INVERTER

FR-E800
 Global Player

GLOBAL IMPACT OF
MITSUBISHI ELECTRIC

Through Mitsubishi Electric’s vision, “Changes for the Better“ are possible for a brighter future.

Mitsubishi Electric is involved in many areas including the following

We bring together the best minds to Energy and Electric Systems

create the best technologies. At A wide range of power and electrical products from generators to large-scale displays.
Mitsubishi Electric, we understand
that technology is the driving force of Electronic Devices
change in our lives. By bringing great- A wide portfolio of cutting-edge semiconductor devices for systems and products.
er comfort to daily life, maximizing the
efficiency of businesses and keeping Home Appliance
things running across society, we Dependable consumer products like air conditioners and home entertain-
integrate technology and innovation ment systems.
to bring changes for the better.
Information and Communication Systems
Commercial and consumer-centric equipment, products and systems.

Industrial Automation Systems

Maximizing productivity and efficiency with cutting-edge automation technology.

2
 Contents

Features 4

Operation Panel, Operation Steps 36 1

Parameter List 38 2
Protective Functions 52 3
Standard Specifications 56 4
Outline Dimensions 59 5
Terminal Connection Diagram, Terminal Specifications 60 6
Example Connections 64 7
Options 66 8
Low-Voltage Switchgear/Cables 86 9
Precaution on Selection and Operation 92 10
Compatible Motors 98 11
Compatibility 102 12
Warranty 109 13
Support 112 14

3
 Design
future
manufacturing
FR-E800—World's smallest class inverter
with high functionality
Ever since the Industrial Revolution,
manufacturing technologies have evolved over the years.
And now, this is the time for new revolution.
A new era has started. Inverters are connected to the world.
We design future manufacturing and what's ahead.

4
 E800-E Ethernet model
E800-SCE Safety communication model

E800 Standard model

5
 I oT

Smart factory made

possible through industrial IoT

AI
Artificial intelligence (AI)
supports users
in various ways

The screen is under development.

6
Real-time connection with the host IT system enables centralized or
remote monitoring of operation, which further streamlines the production.

1 Improving usability by supporting CC-Link IE TSN as standard

Real-time production data can be collected using efficient protocols, and multiple
P13
protocols are supported on the same network, which provides a smart connection
solution with various devices.

2 Expanding a range of applications with multi-protocols

Multi-protocol support enables switching between various types of communication

EtherNet/IP
networks. PROFINET P13
Inverter models that support protocols of major global industrial Ethernet networks EtherCAT, etc.
are available.

3 Enabling flexible connection with two Ethernet ports

There is no need to use a switching hub. Two Ethernet P14

ports

AI technology and smartphone connectivity support initial startup or

troubleshooting. Extensive maintenance functions will contribute to
improvement in maintainability.

1 Reducing downtime using the AI function

The AI fault diagnosis function is used to identify the cause of a fault, enabling the AI fault P27
fastest troubleshooting procedure. diagnosis

2 Enhancing predictive maintenance

Integrating the world's first*1 "Corrosive-Attack-Level Alert System"*2 makes it possible

Environmental P24
to identify signs of inverter damage caused by corrosive gas. The environmental impact impact diagnosis
diagnosis function for the control circuit board enables visualization of the environment function
where the inverter is installed, enhancing maintainability and preventing faults.
*1: According to our investigation as of September 10, 2019.
*2: Patent pending.

3 Further facilitating operation with your smartphone

Using smartphones or tablets, you can scan the QR code on the product to access the
Engineering
setup information, or you can access inverters via wireless remote network with a mobile P28
software
app. This will contribute to reduction in startup time and improvement in maintainability.

7
 Safety

Advanced harmony
between humans and
FA devices

Performance

Various solutions
achieved by the outstanding
drive performance
Available when the plug-in option is connected.

8
Functional safety functions and wireless inverter connection
enable stable and safe operation of the system.

1 Reducing the costs for safety

The inverter is compliant with safety integrity level (SIL) 2 or 3 of the IEC 61508
Functional safety P21
standard for functional safety.

2 Attaining both safety and productivity

Functions conforming to IEC 61800-5-2 ensure safe operation for users. SLS function*1 P21
( Safely -limited speed )

3 Ensuring operators' safety by wireless interfaces

Adjustments of inverter parameters and inverter monitoring can be performed Ethernet P20
wirelessly away from the system, ensuring operators' safety. connection*1

*1: Several conditions must be met to use this function.

Various control methods are supported to expand

applications in many systems.

1 Supporting various control methods

Various control methods such as Vector control (with encoder), Real sensorless
Control method P19
vector control (without encoder), and positioning without using sensors are
supported. Premium efficiency motors and PM motors are supported, enabling
applications in various solutions.

2 Expanding applications with the enhanced product line

The product line is enhanced as compared to the preceding FR-E700 inverters.

Extended capacity
• 18.5 kW / 22 kW supported • Compliance with IEC 60721-3-3(3C2)* 2
P16
range / improved
• 575 V class supported for corrosive gas concentration
environmental
• Surrounding air temperature of -20°C to 60°C*1 • IP67 models (FR-E846)
resistance

*1: Derating required for 50°C or higher.

*2: Coated model (-60) only

9
 Useful functions for
each of the design,
operation, and
maintenance
processes of systems
FR-E800 inverters have various functions to attract more customers
by offering safe and reliable operation for a long time.
This is the time to start innovation in the fields of manufacturing.

10
 1
Smart factory
Supporting various networks P12- 15
enable flexible system design.

2
Wide range of applications
Design The extended range of capacities
and dimensions supports
P16・17
various applications.

3
Higher added values
The outstanding drive performance P18・19
and various functions create
higher added values.

4
Improved safety
Humans and FA devices can work P20・21
together by enhancing functional safety.

Operation

5
Energy saving
Use of induction motors or IPM P22・23
motors contributes to energy saving.

6
Improved maintainability
Functions for residual life diagnosis, P24・25
predictive maintenance, and preventive
maintenance support stable system operation.

Maintenance

7
Downtime reduction
When a fault occurs, AI analysis P26・27
and other diagnosis functions solve
the problem quickly.

8
Engineering software for
Engineering further ease of operation
P28- 31
tools
The work efficiency can be improved
for each of the design, operation, and
maintenance processes.

11
1 Design

Smart factory
Supporting various networks enable flexible system design.

Factory A Production volume is

Smart factory adjusted based on
the warehouse
condition.
Internet

Office

Warehouse Factory B

Real-time remote monitoring of

operation of each factory
enables interconnection
between factories. Products are stored in a warehouse. Production volume of Factory B is
In case of troubles, quick Stock control information is shared adjusted efficiently based on the
detection enables fast recovery. with the office and the factories. production condition of Factory A.

12
 Less workload required for system construction E800 E800-E E800-SCE

Design
CC-Link IE TSN supported as standard

• Deterministic performance of cyclic communication is MELSEC

maintained even when mixed with slower information data

(non real-time). This enables TCP/IP communication
devices to be used without affecting overall control.
• Network device profiles are available to facilitate network
construction.
Data communication Control communication

100

Link scan time Data communication band

occupancy rate (%)

Control communication band

0
Time
Network load diagram

• Non-FA devices that support SLMP and TCP/IP communication can also connect to the network. Inverters can connect
to a variety of devices, enabling use with versatile devices.

Standard Ethernet
communication
(HTTP, FTP etc.)

MELSEC

Programmable controller

Vision sensor
Remote I/O
HMI Barcode reader
Inverter

Compatibility with global networks E800 E800-E E800-SCE

Multi-protocols

Inverter models that support protocols of major global industrial Ethernet networks are available.
FR-E800 inverters support a variety of open networks without using any options, enabling the use of inverters on the existing
network and assuring compatibility with various systems. Users can select a protocol group suitable for the intended system.
It is possible to switch between protocols only by setting parameters. (Supported protocols differ depending on the model.)

Supported protocols

CC-Link IE TSN CC-Link IE Field

Model MODBUS®/TCP PROFINET EtherNet/IP BACnet/IP EtherCAT
(100 Mbps)*1 Network Basic

FR-E800-[]EPA ● ● ● ー ● ● ー
FR-E800-[]EPB ● ● ● ● ー ー ー
FR-E800-[]EPC ー ー ー ー ー ー ○
*1: 1 Gbps is optional (to be supported). ●：Supported ○：To be supported soon

13
1 Design

Smart factory
Supporting various networks enable flexible system design.

Supporting various topologies E800 E800-E E800-SCE

Two Ethernet ports

Two Ethernet ports are provided as standard, enabling flexible connection in line topology without using a switching hub.
(A compatible master module is required for ring topology.)
Complex networks can be created just by connecting devices with a cable to a free port.
The network can even accommodate changes in the specifications of devices.

Line topology
The total wiring length can be minimized
for large or extensive systems.
Eliminating a switching hub allows more
flexible installation of inverters even in a MELSEC

narrow space.

Star topology
A fault in one device does not affect MELSEC

other devices. Fast recovery is enabled

when a fault occurs as it is easy to know
which device is faulty.

Enabling construction of a small-scale synchronous system of inverters E800 E800-E E800-SCE

Inverter-to-inverter link function

Communication between multiple inverters is carried out through the I/O device and special register transmission of the PLC
function (refer to page 18). A small-scale system can be created by connecting multiple inverters via Ethernet. (The FR-A800-E
inverter or the FR-F800-E inverter can be mixed in the system.)

100 Mbps
FR-E800 FR-E800 FR-E800 FR-E800 FR-E800 Inverter
(master) (slave 1) (slave 2) (slave 3) (slave 4) (slave 5)

Motor

Fan

Master Slave

14
 Design
Simple configuration with less wiring using safety communication models E800 E800-E E800-SCE

Safety communication model

Safety communication models support Ethernet-based safety communication protocols certified as compliant with international standards.
The safety control system on the existing network can be easily enhanced with less cost.

• CC-Link IE TSN Safety Function Other than safety communication model Safety communication model
Safety relay
• PROFIsafe
fety
• CIP Safety No sa 1
relay *
• FSoE (Safety over EtherCAT)
Safety programmable
Programmable controller controller

MELSEC MELSEC

FR-E700 tions FR-E800

unica
fe ty comm ess wires
S a L
*1: By using a safety
programmable controller,
safety control and safety
communication functions of
the safety relay are integrated
into the control system.

Security measures E800 E800-E E800-SCE

Ethernet IP filtering function

Set the IP address range for connectable network devices

to limit connectable devices.
The Ethernet IP filtering function is a means to prevent unwanted access from external
devices, but it does not prevent it completely.

Ethernet command source selection

Devices which can control the inverter can be limited by setting the IP address range of the network device(s) used to operate it.

Ethernet function selection

HTTP
Communication sockets are created only for selected
applications such as CC-Link IE TSN or MODBUS/TCP
to prevent unwanted access.

Telnet

15
2 Design

Wide range of applications

The extended range of capacities and dimensions supports various applications.

Supporting various systems and environments E800 E800-E E800-SCE

Extended capacity range Increased environmental resistance

The product line will be extended to Various applications are supported by

include 18.5K and 22K inverters. allowing for corrosive environments or
This will allow use of inverters in a wide range of surrounding air
large-scale systems. temperatures.
• Surrounding air temperatures
between -20°C and 60°C*1 are
supported. (-10°C to +50°C for the
Water treatment plant
FR-E700)
• Inverters with circuit board coating
(IEC 60721-3-3(3C2))*2 are available
for improved environmental
resistance.
*1: Derating required for 50°C or higher.
*2: Coated model (-60) only.

Painting line

16
 Effective solution for downsizing equipment E800 E800-E E800-SCE

Design
Multiple rating

Two rating types of different rated current and permissible load can be selected by
setting parameters. The choice of inverters is widened for intended applications of
users. When users select the LD rating for light duty applications, inverters with
smaller capacities can be used as compared to the FR-E700 series inverters. For
example, when the LD rating (light duty) is selected for a 22K inverter, the inverter
can drive a motor with a capacity up to 30 kW.

Load Rating Overload current rating

Light duty LD rating 120% 60 s, 150% 3 s (inverse-time characteristics) at surrounding air temperature of 50°C
Normal duty ND rating 150% 60 s, 200% 3 s (inverse-time characteristics) at surrounding air temperature of 50°C Building water pumps

Optimizing the layout inside the enclosure E800 E800-E E800-SCE

Flexible installation

When the surrounding air temperature is 40°C or less, multiple inverters can be
installed side-by-side. Users can select the most suitable layout for the intended
installation area.

Side-by-side installation Ceiling crane

Enabling installation in various environments E800 E800-E E800-SCE

IP67 models (400 V class: 0.75K to 3.7K)

Installation outside of the enclosure enables installation closer to machines (FR-E846).

Since the inverter is compatible with hostile environments such as high humidity
and dusty environments, users can easily install the inverter near the machine or in
available spaces.
It is possible to reduce line noise by shortening the wiring length between the
inverter and the motor.
Automotive production line

Improving productivity with shorter tact time by the enhanced regeneration function E800 E800-E E800-SCE

Built-in brake transistor

With the enhanced power regeneration capability (brake

duty: 100% max.), deceleration time can be shortened.*1
*1 : For 200 V class 0.4K and 0.75K models, the brake duty is 30% ED maximum when
the lowest resistance value is used. The brake resistor must have a sufficient capacity
to consume the regenerative power.
For 200 V class 0.1K and 0.2K models, brake transistors are not built in.

Increased excitation deceleration

When the increased magnetic excitation deceleration function is

used, the motor consumes the regenerative power and the deceler- Automotive production line Airport baggage conveyor
ation time can be reduced without using a brake resistor.
The tact time can be reduced for a transfer line or the like.

17
3 Design

Higher added values

The outstanding drive performance and various functions create higher added values.

Customizing inverter operation for each machine E800 E800-E E800-SCE

PLC function
Extruding machine Output (Y1)
Input (X2)
In accordance with the machine
Stop sensor
specifications, users can set various Input (X1)
operation patterns: inverter movements Deceleration sensor
Input (X0)
at signal inputs, signal outputs at
Start sensor Workpiece
particular inverter statuses, and Output (Y0) Workpiece
monitor outputs, etc. Operation of the
system can be customized by the
inverter alone. Conveyor robot

Power supply

Motor
Transfer conveyor

18
 Same spare inverters for various applications E800 E800-E E800-SCE

Design
Control method
Speed Torque Position
Control control control control Motor
Switching between control methods with the FR-E800 inverter, V/F control  – –
Vector control for lift application (with the plug-in option), Advanced magnetic flux vector control  – –
Induction
Real sensorless vector control   –
Advanced magnetic flux vector control for conveyors, etc., motor
Vector control (with plug-in
reduces the number of required spare inverters. option FR-A8AP E kit used)
  

PM sensorless vector control is available when inverters are used PM sensorless vector control  –  PM motor
with PM motors. High-level control such as positioning control is : Supported : To be supported
enabled without using an encoder (to be supported).
Mitsubishi Electric Non-Mitsubishi Electric
Offline auto tuning induction motor PM motor

Sensorless operation can be performed with non-Mitsubishi

Electric general-purpose (induction) motors*1 and permanent
magnet (PM) motors*1 as well as Mitsubishi Electric induction
motors and PM motors.
Users can use existing motors with new inverters.
*1: Tuning may be disabled depending on the motor characteristics.
Mitsubishi Electric Non-Mitsubishi Electric
PM motor induction motor

Improving work efficiency by powerful high-speed operation E800 E800-E E800-SCE

PM sensorless vector control

Speed
The torque is not reduced in the high-speed range (up to Increase Same
speed
the rated speed) during PM sensorless vector control as
compared with operation using a stepper motor.
High-speed system operation improves the tact time. Time
Conveyor A Reduced

Sorting

Conveyor B

Increase
speed
Sorting conveyor

Expanding the range of applications E800 E800-E E800-SCE

using inverter options
FR-E800 inverter options
Plug-in options Model Description Supported
FR-A8AX E kit 16-bit digital input 
In addition to the existing plug-in options to add digital FR-A8AY E kit Digital output, additional analog output 
inputs / analog outputs and to support different FR-A8AR E kit Relay output 
FR-A8AP E kit Vector control, encoder feedback control 
communication standards, the Vector control compatible
FR-E8DS E kit 24VDC input 
option FR-A8AP E kit is supported. Among our compact
FR-A8NC E kit CC-Link 
inverters, the FR-E800 inverter is the first to support Vector FR-A8ND E kit DeviceNet 
control. FR-A8NP E kit PROFIBUS-DP 
: Supported : To be supported

19
4 Operation

Improved safety
Humans and FA devices can work together by enhancing functional safety.

Wireless access with hard-to-reach inverters E800 E800-E E800-SCE

Ethernet communication

Even if inverters are located in a high Inverter

place, narrow area, or other
hard-to-reach place, wireless access
enables adjustments of inverter Crane
parameters, inverter monitoring
(simultaneous monitoring of multiple
MELSEC

axes possible), and inverter maintenance Programmable

controller
such as life diagnosis checks.
The FR-E800 inverter can be
connected to FR Configurator2 using
a commercially-available industrial Wireless LAN
Monitor
wireless LAN*1 access point.*2 access point Ceiling crane

*1: A wireless LAN suitable for the industrial use in severe environments or in environments requiring high reliability (redundancy).
*2: Under certain environments or installation conditions, Ethernet communication through wireless LAN is not as stable as communication through wired LAN. Before starting
operation, always check the communication status. Inverter operation (output shutoff, deceleration stop, etc.) when communication fails (due to reasons such as disconnection)
can be selected by setting parameters. For applications requiring data transmission or update periodically or within a certain time period, a wired connection is recommended.

20
 Attaining both safety and productivity E800 E800-E E800-SCE

Functional safety

The inverter is compliant with safety integrity level (SIL) 2 or 3 of the IEC FR-E800,
FR-E800-SCE FR-E700-SC
61508 standard for functional safety. This will contribute to reduction in FR-E800-E
Functional safety category SIL2, PLd, SIL3, PLe, SIL2, PLd,
the initial safety certification cost.
(ISO 13849-1, IEC 61508) Cat.3 Cat.3 Cat.3
The inverter supports various safety functions (IEC 61800-5-2), STO Safety torque off, coasting to stop   
contributing to eliminating external devices or reducing maintenance SS1 Safe stop 1, deceleration stop –  –
time. (Note that several conditions must be met to use safety functions.) SLS Safely-limited speed –  –
This will significantly reduce time required for maintenance or tooling and SBC Safe brake control –  –
SSM Safe speed monitor –  –
eliminate external devices such as ones used for monitoring the speed.
: Supported : To be supported –: Not supported

STO (safe torque off) function E800 E800-E E800-SCE

Driving power to the motor is electronically shut off by Two MCs required
• High cost
responding to the input signal from external equipment. • High maintenance
Without STO function
(maintenance for two)

Operation
• Large installation space
Speed RUN MON PRM

Emergency stop
PU EXT NET

RUN STOP
RESET
PU
MODE SET EXT

V
Stop category 0

FR-E700
(Uncontrolled stop)
Speed Use the STO function. Safety stop function (STO) cuts
• Magnetic contactor (MC) down the number of MCs to one! *1
Time
• Emergency stop wiring • Cost reduction / low maintenance
(maintenance for one)
With STO function • Small installation space

Emergency stop

FR-E800
*1: One MC is required to shut off the power at an activation of the protective function.

SLS (safely-limited speed) function E800 E800-E E800-SCE

Function to monitor the speed so that the
predetermined speed limit is not exceeded.
The motor speed is calculated without using an Light curtain
Stop area
encoder. This will contribute to wire and cost savings.
Several conditions must be met to use this function.

Speed

Area sensor Limit area

Time Limit area 1

(speed reduction)
Limit area 2
(further speed reduction)

21
5 Operation

Energy saving
Use of induction motors or PM motors contributes to energy saving.

Energy saving with motors E800 E800-E E800-SCE

PM motor

The PM motor achieves even higher efficiency as compared Gene

ral-pu
to the general-purpose motor. r
moto pose
r
The setting for driving PM motors is enabled just by setting
parameters.

Why is a PM motor so efficient?

P
• No current flows to the rotor (secondary side), and no secondary hig remi
h-e um
copper loss is generated. IPMfficien
mo cy
tor
• Magnetic flux is generated with permanent magnets, and less
motor current is required. [Comparison of motor losses]
* Example of 22 kW motors

22
 Supporting step-by-step energy saving solution E800 E800-E E800-SCE

Compatibility with both induction motors and PM motors

Further energy saving operation is Equipment investment in stages

enabled by using IE3/IE4 induction 1st Step
motors or permanent magnet Update
First, replace inverters.
complete
embedded (PM) motors.
FR-E800 inverters support both
induction motors and PM motors,
enabling step-by-step replacement of
existing devices. Users can replace
inverters first and then motors. There
is no need to replace them all at once. FR-E700 FR-E800 FR-E800

Operation
General-purpose General-purpose PM motor
motor motor

2nd Step
Next, replace motors.

Energy saving with inverters E800 E800-E E800-SCE

Advanced optimum excitation control

A large starting torque can be provided with the same motor efficiency under
Optimum excitation control. Without the need of troublesome adjustment of
parameters (acceleration/deceleration time, torque boost, etc.), acceleration is
done in a short time. Also, energy saving operation with the utmost improved
motor efficiency is performed during constant-speed operation.
When Advanced magnetic flux vector control is selected, Advanced optimum
excitation control is available.

Energy saving monitoring

The energy saving effect can be checked using an operation panel, output
terminal, or network.
The output power amount measured by the inverter can be output in pulses.
The cumulative power amount can be easily checked.*1
*1: This function cannot be used as a meter to certify electricity billings.

Energy saving with the regenerative option E800 E800-E E800-SCE

Power regeneration function (optional) [Power regeneration]

Regenerative energy
While the motor rotates to drive the machine during power driving, the machine
rotates the motor during regenerative driving, which results in energy saving since
the motor serves as a generator which returns the power to the power supply.
By using the multifunction regeneration converter (FR-XC) as a common
converter, the power returned from an inverter during regenerative drive can be Power supply
supplied to another inverter, which in turn saves energy. Regeneration Inverter Motor
converter

23
6 Maintenance

Improved maintainability
Functions for residual life diagnosis, predictive maintenance,
and preventive maintenance support stable system operation.

Cooling fan
Control circuit capacitor

Main circuit capacitor

Metal corrosion sensor

Power module

Fault contact relay

(A, B, and C contacts)

Example: FR-E840-3.7K

Supporting scheduled maintenance planning E800 E800-E E800-SCE

Environmental impact diagnosis function

The world's first*1 Corrosive-Attack-Level Alert System*2 makes it possible to

identify signs of inverter damage caused by hydrogen sulfide or other corrosive
gas. Equipment downtime will be reduced as the function notifies operators when
the production environment needs to be improved (for coated models (-60) only).
*1: According to our investigation as of September 10, 2019.
*2: Patent pending.

Enhanced life diagnosis function Sewage treatment plant

Availability of life diagnosis checks is extended. This Extended • Main circuit capacitor residual-life estimation
enhanced diagnosis function ensures reliable operation of the • Inverter fault contact relay
system. (A, B, and C contacts) life diagnosis*4
The design life of cooling fans and capacitors has been • Display power cycle life diagnosis
extended to 10 years*3.
• Control circuit capacitor life diagnosis
*3：Surrounding air temperature: annual average 40°C (free from corrosive gas, flammable
gas, oil mist, dust and dirt) • Cooling fan life diagnosis
Output current: 80% of the inverter ND rating • Inrush current limit circuit life diagnosis
Since the design life is a calculated value, it is not a guaranteed value.
*4：Terminals A, B, and C of the inverter

24
 Real-time monitoring for early fault detection E800 E800-E E800-SCE

Load characteristics fault detection function

When a mechanical fault such as clogging of the filter occurs, the inverter outputs a warning or shuts off the output to
prevent system damage.
The speed–torque characteristic is stored while no fault occurs, enabling comparison between the measured data and the
stored data.

Fault warning Replacement

Excessively fast rotation Poor rotation Normal operation

(light load) (high load) (appropriate)
OK
Current detection function

Faults caused by stiff rotation of motor shaft (increased load) or cracks in the belt (decreased load) can be detected through
the motor output current.
If the output current exceeds the predetermined value, a signal is output to inform the user of the faulty device.

Fault warning Replacement

Maintenance
Cracks in belt Stiff rotation of motor shaft Normal operation
(light load) (high load) (appropriate)
OK

Supporting preventive maintenance of peripherals E800 E800-E E800-SCE

Maintenance timer

The Maintenance timer signal is output when the inverter's cumulative energization time reaches the time period set with the parameter.
This can be used as a guide for when the maintenance of the equipment should be conducted.

Thorough customer support E800 E800-E E800-SCE

FA Center network

Our global network offers reliable technical support and customer satisfaction.
(Refer to page 112.)

Setup information web page

Our setup information web page provides easy access to manuals, videos, and outline dimension drawings.

25
7 Maintenance

Downtime reduction
When a fault occurs, AI analysis and other diagnosis functions solve the problem quickly.

Streamlining the installation process Quick reaction to troubles

Compatible E800 E800-E E800-SCE Power supply E800 E800-E E800-SCE
installation size from USB port

The installation size was determined to With the power supplied from the computer (USB bus
assure exchangeability with the power connection)*1, parameters can be set while the main
FR-E700 series. Installation circuit power supply is OFF.
interchange attachment options Maintenance can be performed quickly and safely.
are available for facilitating *1: The maximum SCCR should be 500 mA. A PU connector cannot be used during USB
bus power connection.
replacement with the models of
different size (FR-E820-3.7K,
FR-E840-0.4K/0.75K/1.5K).
No power supply

Easy and fast wiring E800 E800-E E800-SCE

Spring clamp terminals

• Spring clamp terminals have been adopted for control circuit terminals for easy wiring.
Furthermore, wires can be protected against loosening or contact faults due to vibrations
during operation on a bogie or during transport. No additional screw tightening is required.
FR-E800 FR-E800-E FR-E800-SCE
Input terminal 7 2 0
Output Open collector 2 0 0
terminal Relay 1 1 1

26
 Troubleshooting supported by AI technology E800 E800-E E800-SCE

AI fault diagnosis

The inverter is connected to the engineering software, FR Configurator2, in which

Maisart*1 (Mitsubishi Electric's AI technology) is integrated to analyze data and help
identify the cause of a fault.
This function enables the fastest troubleshooting procedure without requiring any special
skills, which contributes to downtime reduction.
*1: Maisart is Mitsubishi Electric's brand of AI technology. The name stands for "Mitsubishi Electric's AI creates the State-of-the-ART
in technology". This means that it is using our proprietary AI technology to make everything smarter.

Fault occurs Fault diagnosis Fault cause

Input: parameters,
waveform data

AI fault diagnosis result screen

The screen is under development.
Example: E.OC1 (Overcurrent trip during acceleration)

Maintenance
Trouble analysis from a remote location E800 E800-E E800-SCE

Trace function Clock function

The operating status (output frequency Setting the time*1 enables the user to
or other data) immediately before the specify the protective function
protective function is activated can be activation time.
stored in a data file. The date and time are also saved with
Users can read the data file in FR the trace data, making the fault
Configurator2 for graph display or analysis easier.
send it by e-mail to someone away Time synchronization via CC-Link IE
from the worksite, which facilitates the TSN communication is available for
trouble analysis. the Ethernet model.
The internal clocks of connected USB or Ethernet connection
devices on the CC-Link IE TSN
Network can be synchronized.
*1: The clock is reset at power-OFF.

27
8 Engineering tools

Engineering software for

further ease of operation
The work efficiency can be improved for each of the design, operation, and maintenance processes.

FR Configurator2 for further ease of operation E800 E800-E E800-SCE

Free trial version Functions
Using FR Configurator2, easy-to-use software assisting anything
The function with the marking above is available in the free trial
from setup to maintenance, much more useful functions are version (usable free of charge with limited functions). It can be
available for users. downloaded at Mitsubishi Electric FA Global Website.

Function Free trial Function Free trial

version version
Parameter list ○ Developer ×
Diagnosis ○ USB memory
×
AI fault diagnosis × parameter copy file edit
Graph × Ethernet parameter setting ○
Batch monitor × iQSS backup file conversion ○
Test operation ○ Help ○
I/O terminal monitor × ○: Supported
A full functional trial version, which has the same functionality as ×: Not supported
the release version, is also offered for a limited period of 20 days.

Life diagnosis check Free trial version Functions

Parts service life data is displayed in a dedicated window. A warning

icon is shown in the alarm field of the parts recommended for
replacement.
This can be used as a guideline to replace long life parts.

Graph function—Automatic sampling when a fault occurs

Waveform graph data immediately before the

protective function is activated can be automatically
obtained.
Graph display and log analysis are available using
the stored trace data.

Ethernet parameter setting Free trial version Functions

2) Enter the network No., station No.,
1) Detect supported devices. IP address, and subnet mask.
Inverters in the same subnet mask are
automatically detected, supporting
easy network setting. Setting
complete

Diagnostics (Fault history)

Fault records in the inverter can be displayed. When the clock

function or CC-Link IE TSN communication is used, the time of
fault occurrence can be displayed, too. It is possible to check the
occurrence time and the type of faults, which is helpful in
identifying causes of faults.

28
 Further facilitating operation with your smartphone E800 E800-E E800-SCE

Setup information web page

Users can scan the QR code on the product to directly access the setup information.
Manuals, setup videos, and outline dimension drawings are available.

Mobile app E800 E800-E E800-SCE

Wireless access with inverters from a remote location enables setting or changing of parameters, starting and stopping, and
monitoring on the screen of mobile devices.
Users can easily monitor the inverter operation by checking data such as the running frequency and status of input and
output terminals at a glance in one screen.
Wireless communication equipment must be prepared in the system that includes the inverter.

Operating status

Recognize Check the

inverters Set Parameters fault history Monitor

Engineering tools

29
8 Engineering tools

Engineering software for

further ease of operation
The work efficiency can be improved for each of the design, operation, and maintenance processes.

Further facilitating operation with the capacity

selection software
E800 E800-E E800-SCE

Users can select motors by entering data of mechanical 12 types of load mechanism
Navigation Addition of transmission
configuration, specifications, and operating patterns. structures available
Applicable combinations include inverters, sersorless Specification input

servo drive units, and AC servo amplifiers.

The most suitable combination can be selected from the
selection result. The software also supports multi-axis
systems.
Selection result
Twelve types of load mechanism such as a ball screw or a Applicable
rack and pinion are selectable. combinations

Selection is available by following the steps from 1 to 3.

When users include the power regeneration common
converter or other applicable converter, the capacity of the
converter can be selected at the same time.

Further facilitating operation E800 E800-E E800-SCE

with the selection guide software
Advanced search for optimum inverters is available. Users can select inverters by entering data such as the motor capacity
and current value and specifying specifications. The time spent on inverter selection can be reduced.

Axis selection
Applicable models will change in real time
Item selection
according to changes made to entries.
Conditions for
selection Applicable models Users do not have to fill all fields for
selection. Applicable models will be
selected according to the data entered.

Users can select the items to enter to set

conditions for selection by folding or
unfolding windows. Both easy setting and
detailed setting are available.

Users can select one of the applicable

models to register it as the selection result.

Selection
result

Further facilitating operation with E800 E800-E E800-SCE

Edgecross
Cloud On-premise Mobile
IT system
Inverters and the system are integrated by maximizing the IT system Others

use of production data with edge computing, enabling MQTT OPC UA Other protocols
Edge Operation Preventive Data AI

solutions for various issues including productivity

monitoring maintenance analysis
application IT gateway
Interface Interface

improvement and equipment maintenance. Edge computing

Real-time
data processing Plug-in
Data model
management
Security Software for development
SDK
DDK
GDK

• Integration and processing of data sent from various

devices and systems in production lines Interface

• Real-time feedback to production sites CC-Link IE EtherNet/IP EtherCAT PROFINET MTConnect OPC Other protocols
Data collector
• Monitoring of field devices based on the know-how of Processing machine,
conveyor machine,

production sites FA
(Production site)
filling machine, packaging machine,
pick-and-place machine, etc.

30
 Further facilitating operation E800 E800-E E800-SCE
with GOT interaction functions
Enhanced compatibility between inverters and the GOT (human machine
interface) brings various benefits to users.
Connection with the GOT2000 series can be established just by setting the
station number. Other necessary settings are automatically done.

Less time spent on screen design work by importing sample screens

Various sample screens*1 are available to STEP 1 STEP 2 STEP 3

enable parameter setting, batch monitor, Select the GOT and the inverter Sample screens for selected Transfer the project data to the
and connect them. connection type available to be GOT.
measurement of load characteristics and imported to user's project data
so on using the GOT.
Connection type selectable
Using sample screens enables easy Transfer Complete
startup of the system.
*1: Sample screens are included in the GT Works3 (Ver.
1.205P or later) package, or can be downloaded at GOT2000 FR-E800 Sample screen GOT2000 FR-E800
Mitsubishi Electric FA Global Website.

Improving work efficiency without Before A fter

using a computer Do I have to go to the control panel
just to check something trivial?
Users can use the GOT to set up, MELSEC

adjust, and perform maintenance for

inverters without using a computer.
MELSEC

Users do not want to go to the control panel 1 Instead on the control panel, users can check data on a GOT.
or use a computer to check the operation. 2 Multiple inverters can monitored using the target station switching function.

Before A fter
Immediate warning of system errors
Is it possible to detect Trend of failure
a clogged filter monitored by
By storing the data of relationship the inverter to
or pipe?
between the output frequency and the give a warning

torque during normal inverter operation,

users can judge whether the load is
operating in normal condition. By
Users want to detect system errors using 1 System errors such as clogged filter/pipe can be detected.
outputting out-of-range warnings if
the inverter to facilitate maintenance. 2 Operation of the system can be monitored constantly.
applicable, users can detect mechanical
faults or perform maintenance.
Engineering tools

Reducing downtime by interacting Before A fter

with the GOT
What is the meaning
of this fault number?
Faults occurred in the inverter can be
displayed on the GOT screen.
When a fault occurs, it is possible to
identify the cause immediately, which
contributes to downtime reduction. 1 Fault records can be checked quickly (last eight faults).
Users want to identify causes of faults easily. 2 Troubleshooting pages of manuals can be displayed.

31
 Application examples

CASE 1 Smart factory

Problem It is difficult to monitor the operating condition of the equipment due to the diversified.

The inverter supports various industrial networks. It is possible to select the inverter according to the
Solution existing network. Two Ethernet ports are provided, enabling easy wiring.

Standard Ethernet
Multi-protocols communication
(HTTP, FTP etc.)
Users can select a group of protocols that includes CC-Link
IE TSN, MODBUS/TCP, PROFINET, EtherNet/IP, and
EtherCAT suitable for the intended system. It is possible to
MELSEC

Programmable
controller
switch between protocols only by setting parameters.
(Supported protocols differ depending on the product model.) Remote I/O
Vision sensor
HMI Barcode reader
Inverter

CASE 2 Fans and pumps

Is it possible to reduce downtime by predicting faults of the inverter or
Problem peripheral devices or problems arising from environmental causes?

AI-based troubleshooting reduces equipment downtime. The world's first

Solution
environmental impact diagnosis function or other self-diagnostics allow early
prevention or prediction of faults of the inverter or peripheral devices.

AI fault diagnosis MELSEC

By connecting the inverter and a computer (USB or

Ethernet), users can use FR Configurator2 to analyze data
and help identify the cause of a fault.
This diagnosis function enables the fastest troubleshooting
procedure without requiring any special skills.

CASE 3 Transfer system

Problem Is it possible to simplify the electric control system to use a smaller enclosure?

Inverter operations can be freely customized using the PLC function in the inverter.
Solution
This function enables construction of various systems without using programmable controllers.
Extruding machine Output (Y1)
Input (X2)
Stop sensor

PLC function
Input (X1)
Deceleration sensor
Input (X0)

In accordance with the machine specifications, users can set Start sensor Workpiece
Workpiece
Output (Y0)
various operation patterns: inverter movements at signal
inputs, signal outputs at particular inverter statuses, and
Conveyor robot
monitor outputs, etc. Operation of the system can be
customized by the inverter alone.
Power supply

Motor

32
CASE 4 Food processing line

Problem Is it possible to increase productivity while ensuring the safety of operators?

The inverter supports the IEC 61508-5-2 functional safety standard. This
Solution will significantly reduce time required for maintenance or tooling and
eliminate external devices such as ones used for monitoring the speed.

Stop area
Light curtain
SLS (safely-limited speed) function
It is possible to continue operation at a MELSEC

safe speed without stopping the

production line. The motor speed is
calculated based on the current value or Area sensor Limit area

other data without using an encoder. This Limit area 1

(speed reduction)
will contribute to wire and cost savings. Limit area 2
(further speed reduction)

CASE 5 Cutting machine

Problem Is it possible to reduce variation in the finished products?

Using PM sensorless vector control, the inverter contributes to

Solution reducing variation caused by uneven rotation.

PM sensorless vector control Sensorless

PM motor
The speed and magnetic pole positions, the two essential bits of
Workpiece
information to control a PM motor, are detected without a sensor Grinding
(encoder). The speed detection internally-performed in an inverter wheel

enables highly accurate control of a PM motor, almost as accurate

as an AC servo system, without the need of a sensor (encoder).
Speed fluctuation ratio: ±0.05% (digital input)
Speed fluctuation ratio = (Speed under no load − Speed under rated load)/Rated speed × 100(%)

CASE 6 Sprinkler

Problem Is it possible to reduce the amount of water except for daytime hours?

The inverter has the PLC function to change its operation according to
Solution the weather or time of day.

PLC function
The inverter can be run in accordance with a sequence program.
Inverter control such as inverter operations triggered by input
signals, signal output based on inverter operation status, and
monitor output can be freely customized based on the
machine specifications.

33
 Lineup
FR-E8 -

Symbol Voltage class Structure, Symbol Communication / functional safety specification

Symbol
functionality
1* 1
100 V (None) RS-485 + SIL2/PLd
0 Standard model
2 200 V E Ethernet + SIL2/PLd
4 400 V Symbol Voltage specifications SCE*1 Ethernet + SIL3/PLe
6 575 V (None) Three-phase
Symbol Monitoring/protocol specification Rated frequency
S*1 Single phase 200 V input Symbol Circuit board coating
-1 Pulse (terminal FM) 60Hz
Single phase 100 V input (None) Without coating
W* 1
-4 Voltage (terminal AM) 50Hz
(double voltage rectification) -60 With coating
-5 Voltage (terminal AM) 60Hz
Protocol group A
Symbol Description
PA (CC-Link IE TSN, 60Hz
0.1K to 22K Inverter ND rated capacity (kW) CC-Link IE Field Network Basic,
MODBUS/TCP, EtherNet/IP, and BACnet/IP)
0008 to 0900 Inverter ND rated current (A)
Protocol group B
(CC-Link IE TSN,
PB 50Hz
CC-Link IE Field Network Basic,
MODBUS/TCP, and PROFINET)

For the details of the lineup, Protocol group C

please contact your sales representative. PC*1 50Hz
(EtherCAT)
*1: To be released

0.1K 0.2K 0.4K 0.75K 1.5K 2.2K 3.7K 5.5K 7.5K 11K 15K 18.5K 22K
Three-phase 200 V
0008 0015 0030 0050 0080 0110 0175 0240 0330 0470 0600 0760 0900
FR-E820-[](E) ● ● ● ● ● ● ● ● ● ○ ○ ○ ○
FR-E820-[]SCE ○ ○ ○ ○ ○ ○ ○ ○ ○ ○ ○ ○ ○
— — 0.4K 0.75K 1.5K 2.2K 3.7K 5.5K 7.5K 11K 15K 18.5K 22K
Three-phase 400 V
— — 0016 0026 0040 0060 0095 0120 0170 0230 0300 0380 0440
FR-E840-[](E) ̶ ̶ ● ● ● ● ● ● ● ○ ○ ○ ○
FR-E840-[]SCE ̶ ̶ ○ ○ ○ ○ ○ ○ ○ ○ ○ ○ ○
— — — 0.75K 1.5K 2.2K 3.7K 5.5K 7.5K — — — —
Three-phase 575 V
— — — 0017 0027 0040 0061 0090 0120 — — — —
FR-E860-[](E) ̶ ̶ ̶ ● ● ● ● ● ● ̶ ̶ ̶ ̶
FR-E860-[]SCE ̶ ̶ ̶ ○ ○ ○ ○ ○ ○ ̶ ̶ ̶ ̶
0.1K 0.2K 0.4K 0.75K 1.5K 2.2K — — — — — — —
Single-phase 200 V
0008 0015 0030 0050 0080 0110 — — — — — — —
FR-E820S-[](E/SCE) ○ ○ ○ ○ ○ ○ ̶ ̶ ̶ ̶ ̶ ̶ ̶
0.1K 0.2K 0.4K 0.75K — — — — — — — — —
Single-phase 100 V
0008 0015 0030 0050 — — — — — — — — —
FR-E810W-[](E/SCE) ○ ○ ○ ○ ̶ ̶ ̶ ̶ ̶ ̶ ̶ ̶ ̶
: Released, : To be released, : Not applicable

List of inverters by rating

200 V class 400 V class 575 V class
Applicable motor Applicable motor Applicable motor
Model FR-E820-[] capacity (kW)＊1 Model FR-E840-[] capacity (kW)＊1 Model FR-E860-[] capacity (kW)

LD ND LD ND LD ND
0.1K 0008 0.2 0.1 0.4K 0016 0.75 0.4 0.75K 0017 1.5 0.75
0.2K 0015 0.4 0.2 0.75K 0026 1.5 0.75 1.5K 0027 2.2 1.5
0.4K 0030 0.75 0.4 1.5K 0040 2.2 1.5 2.2K 0040 3.7 2.2
0.75K 0050 1.1 0.75 2.2K 0060 3 2.2 3.7K 0061 5.5 3.7
1.5K 0080 2.2 1.5 3.7K 0095 5.5 3.7 5.5K 0090 7.5 5.5
2.2K 0110 3 2.2 5.5K 0120 7.5 5.5 7.5K 0120 11 7.5
3.7K 0175 5.5 3.7 7.5K 0170 11 7.5
5.5K 0240 7.5 5.5
Overload current rating
7.5K 0330 11 7.5
LD 120% 60 s, 150% 3 s (inverse-time characteristics) at surrounding air temperature of 50°C
ND 150% 60 s, 200% 3 s (inverse-time characteristics) at surrounding air temperature of 50°C

*1: The applicable motor capacity indicated is the maximum capacity applicable for use of the Mitsubishi Electric 4-pole standard motor.

34
MEMO

35
 E800_catalog_l06131eng.book 36 ページ ２０１９年１２月６日 金曜日 午後３時２２分

Operation Panel

 Basic Operation
 Components of the operation panel
The operation panel cannot be removed from the inverter.

Name Description
Switches between the PU operation mode, the PUJOG operation
PU/EXT key
mode, and the External operation mode.
MODE key Switches the operation panel to a different mode.
Used to confirm each selection.
SET key
Switches the monitor screen in the monitor mode.
Start command
RUN key
The direction of motor rotation depends on the Pr.40 setting.
Used to stop operation commands.
1 STOP/RESET key
Used to reset the inverter when the protective function is activated.
The setting dial of the Mitsubishi Electric inverters. Turn the setting
Setting dial
Operation Panel, Operation Steps

dial to change the setting of frequency or parameter.

‹Starting/stopping the inverter on the operation panel

External operation mode PU operation mode Change the setting.

Alternating
(Example)
Stop Start
Applied to the set frequency

‹Parameter setting
MODE

PU operation mode Parameter setting mode

(Example)
Blinking

Change the setting. The present setting

Parameter setting complete is displayed.

 Basic Operation
 Components of the operation panel
The operation panel cannot be removed from the inverter.

Name Description
Switches between the PU operation mode, the PUJOG operation
PU/EXT key
mode, and the External operation mode.
MODE key Switches the operation panel to a different mode.
Used to confirm each selection.
SET key
Switches the monitor screen in the monitor mode.
NS Start command
MS RUN key
The direction of motor rotation depends on the Pr.40 setting.
LINK1
Used to stop operation commands.
LINK2 STOP/RESET key
Used to reset the inverter when the protective function is activated.
UP/DOWN key
Press this key to change the setting of frequency or parameter.
(↑ ↓)

‹Starting/stopping the inverter on the operation panel

NET operation mode PU operation mode Change the setting.

Alternating
(Example)
Stop Start

Applied to the set frequency

‹Parameter setting

Monitor mode PU operation mode Parameter setting mode

(Example)
Blinking

Change the setting. The present setting

Parameter setting complete is displayed.

36
E800_catalog_l06131eng.book 37 ページ ２０１９年１２月６日 金曜日 午後３時２２分

Operation Steps

: Initial setting Step of operation

Frequency command
Frequency

Installation/mounting Refer to the Instruction Manual (Connection)

Inverter
output
frequency Wiring of the power Refer to the Instruction Manual (Connection)
(Hz) Time supply and motor
Start command ON (S)
Control mode selection Refer to the Instruction Manual (Function)

Start command via the PU/Ethernet

How
connector of the inverter and plug-in
to give a start
command?
option (Communication)
Initial setting for the Ethernet model 1
Refer to the Instruction Manual (Connection)

Operation Panel, Operation Steps

Connect a switch, relay, etc.
Start command to the control circuit
terminal block of the inverter
with on the operation panel to give a start command. (External)
(PU) Initial setting for the standard model

How to How to
give a frequency give a frequency
command? command?

Set from the operation Change frequency Perform frequency setting Perform frequency setting
panel with ON/OFF switches by a voltage output device by a current output device
connected to terminals (Connection across (Connection across
(multi-speed setting) terminals 2 and 5) terminals 4 and 5)
(PU) (External) (External) (External)
Refer to Refer to Refer to Refer to
the Instruction Manual the Instruction Manual the Instruction Manual the Instruction Manual
(Function) (Function) (Function) (Function)

Set from the operation Change of frequency Perform frequency setting Perform frequency setting
panel with ON/OFF switches by a voltage output device by a current output device
connected to terminals (Connection across (Connection across
(multi-speed setting) terminals 2 and 5) terminals 4 and 5)
(PU) (External) (External) (External)
Refer to Refer to Refer to Refer to
the Instruction Manual the Instruction Manual the Instruction Manual the Instruction Manual
(Function) (Function) (Function) (Function)

37
 E800_catalog_l06131eng.book 38 ページ ２０１９年１２月６日 金曜日 午後３時２２分

Parameter list

For simple variable-speed operation of the inverter, the initial values of the parameters may be used as they are. Set the necessary parameters to meet
the load and operational specifications. Parameter's setting, change and check can be made on the operation panel.

NOTE
• Simple indicates simple mode parameters. Use Pr.160 User group read selection to indicate the simple mode parameters only (initial
setting is to indicate the extended mode parameters).
• The changing of the parameter settings may be restricted in some operating statuses. Use Pr.77 Parameter write selection to change the
setting of the restriction.
• Refer to for instruction codes for communication and availability of Parameter clear, all clear, and Parameter copy.
Notation
[E800]: Available for the standard model.
[E800-1]: Available for the FM type inverter (standard model).
[E800-4]: Available for the AM (50 Hz) type inverter (standard model).
[E800-5]: Available for the AM (60 Hz) type inverter (standard model).
[E800-E]: Available for the Ethernet model.
[E800-EPA]: Available for the Protocol group A (Ethernet model).
[E800-EPB]: Available for the Protocol group B (Ethernet model).
[200/400 V class]: Available for the 200/400 V class.
2 [575 V class]: Available for the 575 V class inverters.
Parameter list

Minimum Initial value

Function Pr. Pr. group Name Setting range setting Customer
increments Gr.1 Gr.2 setting

6%
5%
0 G000 Torque boost Simple 0% to 30% 0.1% 4%
3%
2%
1 H400 Maximum frequency Simple 0 to 120 Hz 0.01 Hz 120 Hz

2 H401 Minimum frequency Simple 0 to 120 Hz 0.01 Hz 0 Hz

3 G001 Base frequency Simple 0 to 590 Hz 0.01 Hz 60 Hz 50 Hz

Basic function

Multi-speed setting (high

4 D301 0 to 590 Hz 0.01 Hz 60 Hz 50 Hz
speed) Simple
Multi-speed setting (middle
5 D302 0 to 590 Hz 0.01 Hz 30 Hz
speed) Simple
Multi-speed setting (low
6 D303 0 to 590 Hz 0.01 Hz 10 Hz
speed) Simple
5 s
7 F010 Acceleration time Simple 0 to 3600 s 0.1 s
10 s
5 s
8 F011 Deceleration time Simple 0 to 3600 s 0.1 s
10 s

H000 Electronic thermal O/L relay Simple Inverter rated

9 0 to 500 A 0.01 A
C103 Rated motor current Simple current

DC injection brake operation

10 G100 frequency 0 to 120 Hz 0.01 Hz 3 Hz
DC injection

11 G101 DC injection brake operation time 0 to 10 s, 9999 0.1 s 0.5 s

brake

6%
12 G110 DC injection brake operation voltage 0% to 30% 0.1% 4%
1%
— 13 F102 Starting frequency 0 to 60 Hz 0.01 Hz 0.5 Hz
— 14 G003 Load pattern selection 0 to 3 1 0
15 D200 Jog frequency 0 to 590 Hz 0.01 Hz 5 Hz
operation
JOG

16 F002 Jog acceleration/deceleration time 0 to 3600 s 0.1 s 0.5 s

— 17 T720 MRS/X10 terminal input selection 0 to 5 1 0

— 18 H402 High speed maximum frequency 0 to 590 Hz 0.01 Hz 120 Hz
— 19 G002 Base frequency voltage 0 to 1000 V, 8888, 9999 0.1 V 9999 8888
deceleration time

20 F000 Acceleration/deceleration reference 1 to 590 Hz 0.01 Hz 60 Hz 50 Hz

Acceleration/

frequency

Acceleration/deceleration time
21 F001 increments 0, 1 1 0

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E800_catalog_l06131eng.book 39 ページ ２０１９年１２月６日 金曜日 午後３時２２分

Minimum Initial value

Function Pr. Pr. group Name Setting range setting Customer
increments Gr.1 Gr.2 setting

Stall prevention operation level

prevention

22 H500 (Torque limit level) 0% to 400% 0.1% 150%

Stall

23 H610 Stall prevention operation level 0% to 200%, 9999 0.1% 9999

compensation factor at double speed
Multi-speed
setting

24 to 27 D304 to Multi-speed setting (speed 4 to speed 0 to 590 Hz, 9999 0.01 Hz 9999
D307 7)

Acceleration/deceleration pattern
— 29 F100 selection 0 to 2 1 0

— 30 E300 Regenerative function selection 0 to 2 1 0

31 H420 Frequency jump 1A 0 to 590 Hz, 9999 0.01 Hz 9999
32 H421 Frequency jump 1B 0 to 590 Hz, 9999 0.01 Hz 9999
Frequency

33 H422 Frequency jump 2A 0 to 590 Hz, 9999 0.01 Hz 9999 2

jump

34 H423 Frequency jump 2B 0 to 590 Hz, 9999 0.01 Hz 9999

Parameter list
35 H424 Frequency jump 3A 0 to 590 Hz, 9999 0.01 Hz 9999
36 H425 Frequency jump 3B 0 to 590 Hz, 9999 0.01 Hz 9999
— 37 M000 Speed display 0.01 to 9998 0.001 1800
— 40 E202 RUN key rotation direction selection 0, 1 1 0
41 M441 Up-to-frequency sensitivity 0% to 100% 0.1% 10%
Frequency
detection

42 M442 Output frequency detection 0 to 590 Hz 0.01 Hz 6 Hz

Output frequency detection for
43 M443 reverse rotation 0 to 590 Hz, 9999 0.01 Hz 9999

Second acceleration/deceleration 5 s

44 F020 time 0 to 3600 s 0.1 s
10 s
Second function

45 F021 Second deceleration time 0 to 3600 s, 9999 0.1 s 9999

46 G010 Second torque boost 0% to 30%, 9999 0.1% 9999
47 G011 Second V/F (base frequency) 0 to 590 Hz, 9999 0.01 Hz 9999
Second stall prevention operation
48 H600 level 0% to 400%, 9999 0.1% 9999

H010 Second electronic thermal O/L relay

51 C203 Rated second motor current 0 to 500 A, 9999 0.01 A 9999

[E800][E800-EPB]
0, 5 to 12, 14, 17, 18, 20,
23 to 25, 32, 33, 38, 40 to
42, 44, 45, 50 to 57, 61,
52 M100 Operation panel main monitor 62, 67, 91, 97, 100 1 0
selection [E800-EPA]
0, 5 to 12, 14, 17, 18, 20,
23 to 25, 32, 33, 38, 40 to
Monitoring

42, 44, 45, 50 to 57, 61,

62, 67, 83, 91, 97, 100
Frequency / rotation speed unit
53 M003 switchover 0, 1, 4 1 0

1 to 3, 5 to 12, 14, 17, 18,

54 M300 FM terminal function selection [E800- 21, 24, 32, 33, 50, 52, 53, 1 1
1] 61, 62, 67, 70, 97
55 M040 Frequency monitoring reference 0 to 590 Hz 0.01 Hz 60 Hz 50 Hz
Inverter rated
56 M041 Current monitoring reference 0 to 500 A 0.01 A current
57 A702 Restart coasting time 0, 0.1 to 30 s, 9999 0.1 s 9999
Automatic
restart

58 A703 Restart cushion time 0 to 60 s 0.1 s 1s

— 59 F101 Remote function selection 0 to 3, 11 to 13 1 0

— 60 G030 Energy saving control selection 0, 9 1 0
acceleration/deceleration

61 F510 Reference current 0 to 500 A, 9999 0.01 A 9999

62 F511 Reference value at acceleration 0% to 400%, 9999 1% 9999
Automatic

63 F512 Reference value at deceleration 0% to 400%, 9999 1% 9999

— 65 H300 Retry selection 0 to 5 1 0

— 66 H611 Stall prevention operation reduction 0 to 590 Hz 0.01 Hz 60 Hz 50 Hz

starting frequency

39
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Minimum Initial value

Function Pr. Pr. group Name Setting range setting Customer
increments Gr.1 Gr.2 setting

67 H301 Number of retries at fault occurrence 0 to 10, 101 to 110 1 0

Retry

68 H302 Retry waiting time 0.1 to 600 s 0.1 s 1s

69 H303 Retry count display erase 0 1 0
— 70 G107 Special regenerative brake duty 0% to 100% 0.1% 0%
[200 V class / 400 V
class]
0, 3, 5, 6, 10, 13, 15, 16,
20, 23, 40, 43, 50, 53, 70,
— 71 C100 Applied motor 73, 8090, 8093, 9090, 1 0
9093
[575 V class]
0, 3, 5, 6, 10, 13, 15, 16,
8090, 8093, 9090, 9093
— 72 E600 PWM frequency selection 0 to 15 1 1
— 73 T000 Analog input selection 0, 1, 6, 10, 11, 16 1 1
2 — 74 T002 Input filter time constant 0 to 8 1 1

— Reset selection/disconnected PU 0 to 3, 14 to 17 14
detection/PU stop selection
Parameter list

— 75 E100 Reset selection 1 0

E101 Disconnected PU detection 0, 1
E102 PU stop selection 1
— 77 E400 Parameter write selection 0 to 2 1 0
— 78 D020 Reverse rotation prevention selection 0 to 2 1 0
— 79 D000 Operation mode selection Simple 0 to 4, 6, 7 1 0
80 C101 Motor capacity 0.1 to 30 kW, 9999 0.01 kW 9999
81 C102 Number of motor poles 2, 4, 6, 8, 10, 12, 9999 1 9999
82 C125 Motor excitation current 0 to 500 A, 9999 0.01 A 9999
[200 V class]
200 V
[400 V class]
83 C104 Rated motor voltage 0 to 1000 V 0.1 V 400 V
[575 V class]
575 V
Motor constant

84 C105 Rated motor frequency 10 to 400 Hz, 9999 0.01 Hz 9999

Speed control gain (Advanced
89 G932 magnetic flux vector) 0% to 200%, 9999 0.1% 9999

90 C120 Motor constant (R1) 0 to 50 Ω, 9999 0.001Ω 9999

91 C121 Motor constant (R2) 0 to 50 Ω, 9999 0.001Ω 9999

92 C122 Motor constant (L1)/d-axis inductance 0 to 6000 mH, 9999 0.1 mH 9999
(Ld)
Motor constant (L2)/q-axis inductance
93 C123 (Lq) 0 to 6000 mH, 9999 0.1 mH 9999

94 C124 Motor constant (X) 0% to 100%, 9999 0.1% 9999

95 C111 Online auto tuning selection 0, 1 1 0
96 C110 Auto tuning setting/status 0, 1, 11 1 0
117 N020 PU communication station number 0 to 31 1 0

118 N021 PU communication speed 48, 96, 192, 384, 576, 1 192
PU connector communication

768, 1152
PU communication stop bit length /
— data length 0, 1, 10, 11 1
119 1
N022 PU communication data length 0, 1 0
N023 PU communication stop bit length 0, 1 1
120 N024 PU communication parity check 0 to 2 1 2
121 N025 PU communication retry count 0 to 10, 9999 1 1

122 N026 PU communication check time 0, 0.1 to 999.8 s, 9999 0.1 s 0

interval
PU communication waiting time
123 N027 setting 0 to 150 ms, 9999 1 ms 9999

124 N028 PU communication CR/LF selection 0 to 2 1 1

Terminal 2 frequency setting gain
— 125 T022 0 to 590 Hz 0.01 Hz 60 Hz 50 Hz
frequency Simple
Terminal 4 frequency setting gain
— 126 T042 0 to 590 Hz 0.01 Hz 60 Hz 50 Hz
frequency Simple

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Minimum Initial value

Function Pr. Pr. group Name Setting range setting Customer
increments Gr.1 Gr.2 setting

PID control automatic switchover

127 A612 frequency 0 to 590 Hz, 9999 0.01 Hz 9999

0, 20, 21, 40 to 43, 50,

128 A610 PID action selection 51, 60, 61, 1000, 1001, 1 0
1010, 1011, 2000, 2001,
PID operation

2010, 2011
129 A613 PID proportional band 0.1% to 1000%, 9999 0.1% 100%
130 A614 PID integral time 0.1 to 3600 s, 9999 0.1 s 1s
131 A601 PID upper limit 0% to 100%, 9999 0.1% 9999
132 A602 PID lower limit 0% to 100%, 9999 0.1% 9999
133 A611 PID action set point 0% to 100%, 9999 0.01% 9999
134 A615 PID differential time 0.01 to 10 s, 9999 0.01 s 9999
— 145 E103 Parameter for manufacturer setting. Do not set.

2
Acceleration/deceleration time
— 147 F022 switching frequency 0 to 590 Hz, 9999 0.01 Hz 9999

150 M460 Output current detection level 0% to 400% 0.1% 150%

detection

Parameter list
Output current detection signal delay 0 to 10 s
Current

151 M461 0.1 s 0s

time
152 M462 Zero current detection level 0% to 400% 0.1% 5%
153 M463 Zero current detection time 0 to 10 s 0.01 s 0.5 s

— 154 H631 Voltage reduction selection during 1, 11 1 1

stall prevention operation
— 156 H501 Stall prevention operation selection 0 to 31, 100, 101 1 0
— 157 M430 OL signal output timer 0 to 25 s, 9999 0.1 s 0s

AM terminal function selection [E800- 1 to 3, 5 to 12, 14, 17, 18,

— 158 M301 4][E800-5] 21, 24, 32, 33, 50, 52 to 1 1
54, 61, 62, 67, 70, 91, 97
— 160 E440 User group read selection Simple 0, 1, 9999 1 0

— 161 E200 Frequency setting/key lock operation 0, 1, 10, 11 1 0

selection
Automatic restart after instantaneous
Current Automatic

162 A700 power failure selection 0, 1, 10, 11 1 0

restart

Stall prevention operation level for

165 A710 restart 0% to 400% 0.1% 150%

Output current detection signal

detection

166 M433 0 to 10 s, 9999 0.1 s 0.1 s

retention time

167 M464 Output current detection operation 0, 1, 10, 11 1 0

selection
E000
— 168
E080
Parameter for manufacturer setting. Do not set.
E001
— 169
E081
170 M020 Watt-hour meter clear 0, 10, 9999 1 9999
Cumulative
monitor

171 M030 Operation hour meter clear 0, 9999 1 9999

172 E441 User group registered display/batch 9999, (0 to 16) 1 0

clear
group
User

173 E442 User group registration 0 to 1999, 9999 1 9999

174 E443 User group clear 0 to 1999, 9999 1 9999

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Minimum Initial value

Function Pr. Pr. group Name Setting range setting Customer
increments Gr.1 Gr.2 setting

0 to 5, 7, 8, 10, 12, 14 to
16, 18, 24 to 27, 30, 37,
178 T700 STF/DI0 terminal function selection 46, 47, 50, 51, 60, 62, 65 1 60
to 67, 72, 92, 9999
0 to 5, 7, 8, 10, 12, 14 to
179 T701 STR/DI1 terminal function selection 16, 18, 24 to 27, 30, 37, 1 61
46, 47, 50, 51, 61, 62, 65
Input terminal function assignment

to 67, 72, 92, 9999

180 T702 RL terminal function selection 1 0
[E800]
181 T703 RM terminal function selection 0 to 5, 7, 8, 10, 12, 14 to 1 1
16, 18, 24 to 27, 30, 37,
182 T704 RH terminal function selection 46, 47, 50, 51, 62, 65 to 1 2
67, 72, 92, 9999
183 T709 MRS terminal function selection [E800-E] 1 24
0 to 4, 8, 14, 15, 18, 24,
2 184 T711 RES terminal function selection
26, 27, 30, 37, 46, 47, 50,
51, 72, 92, 9999
1
[E800]
62
[E800-E]
9999
Parameter list

185 T751 NET X1 input selection 1

186 T752 NET X2 input selection 1
0 to 4, 8, 14, 15, 18, 24,
187 T753 NET X3 input selection 26, 27, 30, 37, 46, 47, 50, 1 9999
51, 72, 92, 9999
188 T754 NET X4 input selection 1
189 T755 NET X5 input selection 1

0, 1, 3, 4, 7, 8, 11 to 16,
20, 25, 26, 34, 35, 39 to
190 M400 RUN terminal function selection 41, 44 to 48, 57, 64, 70, 1 0
80, 81, 90 to 93, 95, 96,
98, 99, 100, 101, 103,
104, 107, 108, 111 to 116,
120, 125, 126, 134, 135,
139 to 141, 144 to 148,
157, 164, 170, 180, 181,
190 to 193, 195, 196,
191 M404 FU terminal function selection 198, 199, 206, 211 to 1 4
213, 242 [E800-E], 306,
311 to 313, 342 [E800-E]
Output terminal function assignment

0, 1, 3, 4, 7, 8, 11 to 16,
20, 25, 26, 34, 35, 39, 40,
41, 44 to 48, 57, 64, 70,
80, 81, 82 [E800-EPA],
90, 91, 95, 96, 98, 99,
100, 101, 103, 104, 107,
108, 111 to 116, 120, 125,
192 M405 ABC terminal function selection 126, 134, 135, 139, 140, 1 99
141, 144 to 148, 157,
164, 170, 180, 181, 182
[E800-EPA], 190, 191,
195, 196, 198, 199, 206,
211 to 213, 242 [E800-E],
306, 311 to 313, 342
[E800-E]

193 M451 NET Y1 output selection 0, 1, 3, 4, 7, 8, 11 to 16, 1 9999

20, 25, 26, 34, 35, 39 to
41, 44 to 48, 57, 64, 70,
80, 81, 90 to 93, 95, 98,
194 M452 NET Y2 output selection 99, 100, 101, 103, 104, 1 9999
107, 108, 111 to 116, 120,
125, 126, 134, 135, 139
to 141, 144 to 148, 157,
195 M453 NET Y3 output selection 164, 170, 180, 181, 190 1 9999
to 193, 195, 198, 199,
206, 211 to 213, 242
[E800-E], 306, 311 to
196 M454 NET Y4 output selection 313, 342 [E800-E] 1 9999

— 198 E709 Display corrosion level (1 to 3) 1 1

Multi-speed
setting

232 to D308 to Multi-speed setting (speed 8 to speed

239 D315 15) 0 to 590 Hz, 9999 0.01 Hz 9999

— 240 E601 Soft-PWM operation selection 0, 1 1 1

— 241 M043 Analog input display unit switchover 0, 1 1 0
— 244 H100 Cooling fan operation selection 0, 1 1 1

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Minimum Initial value

Function Pr. Pr. group Name Setting range setting Customer
increments Gr.1 Gr.2 setting
compensation

245 G203 Rated slip 0% to 50%, 9999 0.01% 9999

246 G204 Slip compensation time constant 0.01 to 10 s 0.01 s 0.5 s
Slip

Constant output range slip

247 G205 compensation selection 0, 9999 1 9999

— 249 H101 Earth (ground) fault detection at start 0, 1 1 0 1

0 to 100 s, 1000 to 1100
— 250 G106 Stop selection s, 8888, 9999 0.1 s 9999

— 251 H200 Output phase loss protection 0, 1 1 1

selection
255 E700 Life alarm status display (0 to 879) 1 0
Life check

256 E701 Inrush current limit circuit life display (0% to 100%) 1% 100%
257 E702 Control circuit capacitor life display (0% to 100%) 1% 100%
258
259
E703
E704
Main circuit capacitor life display
Main circuit capacitor life measuring
(0% to 100%)
0, 1
1%
1
100%
0
2
— 260 E602 PWM frequency automatic switchover 0, 10 1 10

Parameter list
Power failure
stop

261 A730 Power failure stop selection 0 to 2 1 0

— 267 T001 Terminal 4 input selection 0 to 2 1 0

— 268 M022 Monitor decimal digits selection 0, 1, 9999 1 9999
— 269 E023 Parameter for manufacturer setting. Do not set.
270 A200 Stop-on-contact control selection 0, 1, 11 1 0
Stop-on-contact

275 A205 Stop-on contact excitation current low- 0% to 300%, 9999 0.1% 9999
speed scaling factor
control

276 A206 PWM carrier frequency at stop-on 0 to 9, 9999 1 9999

contact
Stall prevention operation current
277 H630 switchover 0, 1 1 0

278 A100 Brake opening frequency 0 to 30 Hz 0.01 Hz 3 Hz

Brake sequence

279 A101 Brake opening current 0% to 400% 0.1% 130%

280 A102 Brake opening current detection time 0 to 2 s 0.1 s 0.3 s
281 A103 Brake operation time at start 0 to 5 s 0.1 s 0.3 s
282 A104 Brake operation frequency 0 to 30 Hz 0.01 Hz 6 Hz
283 A105 Brake operation time at stop 0 to 5 s 0.1 s 0.3 s
Speed deviation excess detection
— 285 H416 frequency 0 to 30 Hz, 9999 0.01 Hz 9999

286 G400 Droop gain 0% to 100% 0.1% 0%

control
Droop

287 G401 Droop filter time constant 0 to 1 s 0.01 s 0.3 s

— 289 M431 Inverter output terminal filter 5 to 50 ms, 9999 1 ms 9999
— 290 M044 Monitor negative output selection 0, 1, 4, 5, 8, 9, 12, 13 1 0
A110
— 292 Automatic acceleration/deceleration 0, 1, 7, 8, 11 1 0
F500
Acceleration/deceleration separate
— 293 F513 selection 0 to 2 1 0

— 295 E201 Frequency change increment amount 0, 0.01, 0.1, 1, 10, 0.01 0
setting
0 to 6, 99, 100 to 106,
Password

296 E410 Password lock level 1 9999

199, 9999
(0 to 5), 1000 to 9998,
297 E411 Password lock/unlock 9999 1 9999

— 298 A711 Frequency search gain 0 to 32767, 9999 1 9999

— 299 A701 Rotation direction detection selection 0, 1, 9999 1 0

at restarting

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Minimum Initial value

Function Pr. Pr. group Name Setting range setting Customer
increments Gr.1 Gr.2 setting

313 M410 DO0 output selection 1 9999

0, 1, 3, 4, 7, 8, 11 to 16,
314 M411 DO1 output selection 20, 25, 26, 34, 35, 39 to 1 9999
41, 44 to 48, 57, 64, 70,
80, 81, 90 to 93, 95, 96,
315 M412 DO2 output selection 98, 99, 100, 101, 103, 1 9999
104, 107, 108, 111 to 116,
120, 125, 126, 134, 135,
316 M413 DO3 output selection 139 to 141, 144 to 148, 1 9999
157, 164, 170, 180, 181,
CC-Link IE

317 M414 DO4 output selection 190 to 193, 195, 196, 1 9999
198, 199, 206, 211 to
213, 242 [E800-E], 306,
318 M415 DO5 output selection 311 to 313, 342 [E800-E], 1 9999
9999
319 M416 DO6 output selection 1 9999

2 320 M420 RA1 output selection 0, 1, 3, 4, 7, 8, 11 to 16, 1

20, 25, 26, 34, 35, 39 to
0

41, 44 to 48, 57, 64, 70, 1

Parameter list

321 M421 RA2 output selection 1

80, 81, 90, 91, 95, 96, 98,
99, 206, 211 to 213, 242
322 M422 RA3 output selection [E800-E], 9999 1 4

Communication operation command

338 D010 source 0, 1 1 0
RS-485 communication

Communication speed command

339 D011 source 0 to 2 1 0

[E800]
340 D001 Communication startup mode 0, 1, 10 1 0
selection [E800-E]
10
Communication EEPROM write
342 N001 selection 0, 1 1 0

343 N080 Communication error count (0 to 999) 1 0

— 349 N010 Communication reset selection 0, 1 1 0
— 374 H800 Overspeed detection level 0 to 590 Hz, 9999 0.01 Hz 9999
— 390 N054 % setting reference frequency 1 to 590 Hz 0.01 Hz 60 Hz 50 Hz
414 A800 PLC function operation selection 0 to 2, 11, 12 1 0
PLC

415 A801 Inverter operation lock mode setting 0, 1 1 0

442 N620 Default gateway address 1 [E800-E]
Ethernet

443 N621 Default gateway address 2 [E800-E]

0 to 255 1 0
444 N622 Default gateway address 3 [E800-E]
445 N623 Default gateway address 4 [E800-E]
[200 V class / 400 V
class]
0, 3, 5, 6, 10, 13, 15, 16,
20, 23, 40, 43, 50, 53, 70,
450 C200 Second applied motor 73, 8090, 8093, 9090, 1 9999
9093
[575 V class]
0, 3, 5, 6, 10, 13, 15, 16,
8090, 8093, 9090, 9093

451 G300 Second motor control method 10 to 12, 20, 40, 9999 1 9999
selection
453 C201 Second motor capacity 0.1 to 30 kW, 9999 0.01 kW 9999
Second motor constant

454 C202 Number of second motor poles 2, 4, 6, 8, 10, 12, 9999 1 9999
455 C225 Second motor excitation current 0 to 500 A, 9999 0.01 A 9999
[200 V class]
200 V
[400 V class]
456 C204 Rated second motor voltage 0 to 1000 V 0.1 V 400 V
[575 V class]
575 V
457 C205 Rated second motor frequency 10 to 400 Hz, 9999 0.01 Hz 9999
458 C220 Second motor constant (R1) 0 to 50 Ω, 9999 0.001 Ω 9999
459 C221 Second motor constant (R2) 0 to 50 Ω, 9999 0.001 Ω 9999

460 C222 Second motor constant (L1) / d-axis 0 to 6000 mH, 9999 0.1 mH 9999
inductance (Ld)

461 C223 Second motor constant (L2) / q-axis 0 to 6000 mH, 9999 0.1 mH 9999
inductance (Lq)
462 C224 Second motor constant (X) 0% to 100%, 9999 0.1% 9999
Second motor auto tuning setting/
463 C210 status 0, 1, 11 1 0

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Minimum Initial value

Function Pr. Pr. group Name Setting range setting Customer
increments Gr.1 Gr.2 setting

495 M500 Remote output selection 0, 1, 10, 11 1 0

Remote
output

496 M501 Remote output data 1 0 to 4095 1 0

497 M502 Remote output data 2 0 to 4095 1 0
— 498 A804 PLC function flash memory clear 0, 9696 (0 to 9999) 1 0

— 502 N013 Stop mode selection at 0 to 2, 6 1 0

communication error
503 E710 Maintenance timer 0 (0 to 9998) 1 0
Maintenance

Maintenance timer warning output set

504 E711 time 0 to 9998, 9999 1 9999

— 505 M001 Speed setting reference 1 to 590 Hz 0.01 Hz 60 Hz 50 Hz

Display estimated main circuit
506 E705 capacitor residual life (0% to 100%) 1% 100%
2
check
Life

507 E706 Display ABC relay contact life 0% to 100% 1% 100%

509 E708 Display power cycle life (0% to 100%) 0.01% 100%

Parameter list
Communication

Frequency command sign selection

541 N100 [E800-E] 0, 1 1 0

544 N103 CC-Link extended setting [E800-E] 0, 1, 12, 14, 18, 100, 112, 1 0
114, 118

547 N040 USB communication station number 0 to 31 1 0

USB

USB communication check time

548 N041 interval 0 to 999.8 s, 9999 0.1 s 9999

549 N000 Protocol selection 0, 1 1 0

Communication

[E800]
550 D012 NET mode operation command 0, 2, 9999 1 9999
source selection [E800-E]
0, 5, 9999
[E800]
PU mode operation command source 2 to 4, 9999
551 D013 selection [E800-E] 1 9999
3, 4, 9999
553 A603 PID deviation limit 0% to 100%, 9999 0.1% 9999
control
Average current PID

554 A604 PID signal operation selection 0 to 3, 10 to 13 1 0

555 E720 Current average time 0.1 to 1 s 0.1 s 1s
monitoring

556 E721 Data output mask time 0 to 20 s 0.1 s 0s

557 E722 Current average value monitor signal 0 to 500 A 0.01 A Inverter rated
output reference current current

— 560 A712 Second frequency search gain 0 to 32767, 9999 1 9999

— 563 M021 Energization time carrying-over times (0 to 65535) 1 0
— 564 M031 Operating time carrying-over times (0 to 65535) 1 0
Multiple Second motor
constant

569 G942 Second motor speed control gain 0% to 200%, 9999 0.1% 9999
rating

570 E301 Multiple rating setting 1, 2 1 2

— 571 F103 Holding time at a start 0 to 10 s, 9999 0.1 s 9999

— 574 C211 Second motor online auto tuning 0, 1 1 0
575 A621 Output interruption detection time 0 to 3600 s, 9999 0.1 s 1s
control
PID

576 A622 Output interruption detection level 0 to 590 Hz 0.01 Hz 0 Hz

577 A623 Output interruption cancel level 900% to 1100% 0.1% 1000%
592 A300 Traverse function selection 0 to 2 1 0
593 A301 Maximum amplitude amount 0% to 25% 0.1% 10%
Amplitude compensation amount
Traverse

594 A302 0% to 50% 0.1% 10%

during deceleration
Amplitude compensation amount
595 A303 during acceleration 0% to 50% 0.1% 10%

596 A304 Amplitude acceleration time 0.1 to 3600 s 0.1 s 5s

597 A305 Amplitude deceleration time 0.1 to 3600 s 0.1 s 5s

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Minimum Initial value

Function Pr. Pr. group Name Setting range setting Customer
increments Gr.1 Gr.2 setting

609 A624 PID set point/deviation input selection 2 to 5 1 2

control
PID

610 A625 PID measured value input selection 2 to 5 1 3

— 611 F003 Acceleration time at a restart 0 to 3600 s, 9999 0.1 s 9999
Inverter output fault detection enable/
— 631 H182 0, 1 1 0
disable selection
639 A108 Brake opening current selection 0, 1 1 0
sequence
Speed smoothing Brake

640 A109 Brake operation frequency selection 0, 1 1 0

653 G410 Speed smoothing control 0% to 200% 0.1% 0%

control

654 G411 Speed smoothing cutoff frequency 0 to 120 Hz 0.01 Hz 20 Hz

2
Parameter list

— 665 G125 Regeneration avoidance frequency 0% to 200% 0.1% 100%

gain
SF-PR slip amount adjustment
— 673 G060 operation selection [200 V class / 400 2, 4, 6, 9999 1 9999
V class]

— 674 G061 SF-PR slip amount adjustment gain 0% to 500% 0.1% 100%
[200 V class / 400 V class]

— 675 A805 User parameter auto storage function 1, 9999 1 9999

selection
— 699 T740 Input terminal filter 5 to 50 ms, 9999 1 ms 9999
702 C106 Maximum motor frequency 0 to 400 Hz, 9999 0.01 Hz 9999

706 C130 Induced voltage constant (phi f) 0 to 5000 mV (rad/s), 0.1 mV (rad/s) 9999
9999
707 C107 Motor inertia (integer) 10 to 999, 9999 1 9999
711 C131 Motor Ld decay ratio 0% to 100%, 9999 0.1% 9999
Motor constant

712 C132 Motor Lq decay ratio 0% to 100%, 9999 0.1% 9999

Starting resistance tuning
717 C182 compensation coefficient 1 0% to 200%, 9999 0.1% 9999

Starting resistance tuning

720 C188 compensation coefficient 0% to 200%, 9999 0.1% 9999

721 C185 Starting magnetic pole position 0 to 6000 μs, 9999 1 μs 9999
detection pulse width
724 C108 Motor inertia (exponent) 0 to 7, 9999 1 9999
725 C133 Motor protection current level 100% to 500%, 9999 0.1% 9999

728 N052 Device instance number (Upper 3 0 to 419 1 0

Ethernet

digits) [E800-EPA]

729 N053 Device instance number (Lower 4 0 to 9999 1 0

digits) [E800-EPA]
Starting resistance tuning
737 C288 compensation coefficient 2 0% to 200%, 9999 0.1% 9999

Second motor induced voltage 0 to 5000 mV (rad/s),

738 C230 constant (phi f) 9999 0.1 mV (rad/s) 9999

739 C231 Second motor Ld decay ratio 0% to 100%, 9999 0.1% 9999
Motor constant

740 C232 Second motor Lq decay ratio 0% to 100%, 9999 0.1% 9999
Second motor starting resistance
741 C282 tuning compensation coefficient 1 0% to 200%, 9999 0.1% 9999

742 C285 Second motor magnetic pole 0 to 6000 μs, 9999 1 μs 9999
detection pulse width
743 C206 Second motor maximum frequency 0 to 400 Hz, 9999 0.01 Hz 9999
744 C207 Second motor inertia (integer) 10 to 999, 9999 1 9999
745 C208 Second motor inertia (exponent) 0 to 7, 9999 1 9999
746 C233 Second motor protection current level 100% to 500%, 9999 0.1% 9999
— 759 A600 Parameter for manufacturer setting. Do not set.

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E800_catalog_l06131eng.book 47 ページ ２０１９年１２月６日 金曜日 午後３時２２分

Minimum Initial value

Function Pr. Pr. group Name Setting range setting Customer
increments Gr.1 Gr.2 setting

774 M101 Operation panel monitor selection 1 1 9999

[E800][E800-EPB]
1 to 3, 5 to 12, 14, 17, 18,
20, 23 to 25, 32, 33, 38,
40 to 42, 44, 45, 50 to 57,
Monitoring

61, 62, 67, 91, 97, 100,

9999
775 M102 Operation panel monitor selection 2 [E800-EPA] 1 9999
1 to 3, 5 to 12, 14, 17, 18,
20, 23 to 25, 32, 33, 38,
40 to 42, 44, 45, 50 to 57,
61, 62, 67, 83, 91, 97,
100, 9999
776 M103 Operation panel monitor selection 3 1 9999

— 779 N014
Operation frequency during
0 to 590 Hz, 9999 0.01 Hz 9999
2
communication error

Parameter list
— 791 F070 Acceleration time in low-speed range 0 to 3600 s, 9999 0.1 s 9999
— 792 F071 Deceleration time in low-speed range 0 to 3600 s, 9999 0.1 s 9999
— 800 G200 Control method selection 10 to 12, 19, 20, 40 1 40
— 801 H704 Output limit level 0% to 400%, 9999 0.1% 9999

803 G210 Constant output range torque 0 to 2, 10 1 0

characteristic selection
command
Torque

804 D400 Torque command source selection 0, 1, 3 to 6 1 0

805 D401 Torque command value (RAM) 600% to 1400% 1% 1000%

806 D402 Torque command value (RAM, 600% to 1400% 1% 1000%

EEPROM)
807 H410 Speed limit selection 0, 1 1 0
Speed
limit

808 H411 Speed limit 0 to 400 Hz 0.01 Hz 60 Hz 50 Hz

809 H412 Reverse-side speed limit 0 to 400 Hz, 9999 0.01 Hz 9999
810 H700 Torque limit input method selection 0 to 2 1 0
811 D030 Set resolution switchover 0, 10 1 0
812 H701 Torque limit level (regeneration) 0% to 400%, 9999 0.1% 9999
Torque limit

813 H702 Torque limit level (3rd quadrant) 0% to 400%, 9999 0.1% 9999
814 H703 Torque limit level (4th quadrant) 0% to 400%, 9999 0.1% 9999
815 H710 Torque limit level 2 0% to 400%, 9999 0.1% 9999
816 H720 Torque limit level during acceleration 0% to 400%, 9999 0.1% 9999
817 H721 Torque limit level during deceleration 0% to 400%, 9999 0.1% 9999
820 G211 Speed control P gain 1 0% to 1000% 1% 60%
821 G212 Speed control integral time 1 0 to 20 s 0.001 s 0.333 s
822 T003 Speed setting filter 1 0 to 5 s, 9999 0.001 s 9999
Torque control P gain 1 (current loop
824 G213 proportional gain) 0% to 500% 1% 100%

825 G214 Torque control integral time 1 (current 0 to 500 ms 0.1 ms 5 ms

loop integral time)
Adjustment

826 T004 Torque setting filter 1 0 to 5 s, 9999 0.001 s 9999

830 G311 Speed control P gain 2 0% to 1000%, 9999 1% 9999
831 G312 Speed control integral time 2 0 to 20 s, 9999 0.001 s 9999
832 T005 Speed setting filter 2 0 to 5 s, 9999 0.001 s 9999
Torque control P gain 2 (current loop
834 G313 proportional gain) 0% to 500%, 9999 1% 9999

835 G314 Torque control integral time 2 (current 0 to 500 ms, 9999 0.1 ms 9999
loop integral time)
836 T006 Torque setting filter 2 0 to 5 s, 9999 0.001 s 9999
849 T007 Analog input offset adjustment 0% to 200% 0.1% 100%
850 G103 Brake operation selection 0, 1 1 0
Additional function

853 H417 Speed deviation time 0 to 100 s 0.1 s 1s

858 T040 Terminal 4 function assignment 0, 4, 9999 1 0

859 C126 Torque current/Rated PM motor 0 to 500 A, 9999 0.01 A 9999

current

860 C226 Second motor torque current/Rated 0 to 500 A, 9999 0.01 A 9999
PM motor current
864 M470 Torque detection 0% to 400% 0.1% 150%
865 M446 Low speed detection 0 to 590 Hz 0.01 Hz 1.5 Hz

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Minimum Initial value

Function Pr. Pr. group Name Setting range setting Customer
increments Gr.1 Gr.2 setting
Indication

866 M042 Torque monitoring reference 0% to 400% 0.1% 150%

— 867 M321 AM output filter [E800-4][E800-5] 0 to 5 s 0.01 s 0.01 s

— 870 M440 Speed detection hysteresis 0 to 15 Hz 0.01 Hz 0 Hz
872 H201 Input phase loss protection selection 0, 1 1 1
Protective
function

874 H730 OLT level setting 0% to 400% 0.1% 150%

882 G120 Regeneration avoidance operation 0 to 2 1 0

selection
[200 V class]
Regeneration

400 V
avoidance

2 883 G121 Regeneration avoidance operation

level
300 to 1200 V 0.1 V [400 V class]
780 V
[575 V class]
944 V
Parameter list

Regeneration avoidance
885 G123 compensation frequency limit value 0 to 45 Hz, 9999 0.01 Hz 6 Hz

886 G124 Regeneration avoidance voltage gain 0% to 200% 0.1% 100%

888 E420 Free parameter 1 0 to 9999 1 9999
parameter
Free

889 E421 Free parameter 2 0 to 9999 1 9999

891 M023 Cumulative power monitor digit shifted 0 to 4, 9999 1 9999

times
892 M200 Load factor 30% to 150% 0.1% 100%
Energy saving monitoring

893 M201 Energy saving monitor reference 0.1 to 30 kW 0.01 kW Inverter rated
(motor capacity) capacity

894 M202 Control selection during commercial 0 to 3 1 0

power-supply operation
895 M203 Power saving rate reference value 0, 1, 9999 1 9999
896 M204 Power unit cost 0 to 500, 9999 0.01 9999
897 M205 Power saving monitor average time 0 to 1000 h, 9999 1h 9999
Power saving cumulative monitor
898 M206 clear 0, 1, 10, 9999 1 9999

899 M207 Operation time rate (estimated value) 0% to 100%, 9999 0.1% 9999
C0 M310 FM terminal calibration [E800-1] — — —
AM terminal calibration [E800-
C1 M320 4][E800-5] — — —

Terminal 2 frequency setting bias

C2 T200 frequency 0 to 590 Hz 0.01 Hz 0 Hz

C3 T201 Terminal 2 frequency setting bias 0% to 300% 0.1% 0%

Terminal 2 frequency setting gain
125 T202 0 to 590 Hz 0.01 Hz 60 Hz 50 Hz
Calibration parameter

frequency
C4 T203 Terminal 2 frequency setting gain 0% to 300% 0.1% 100%

C5 T400 Terminal 4 frequency setting bias 0 to 590 Hz 0.01 Hz 0 Hz

frequency
C6 T401 Terminal 4 frequency setting bias 0% to 300% 0.1% 20%
Terminal 4 frequency setting gain
126 T402 frequency 0 to 590 Hz 0.01 Hz 60 Hz 50 Hz

C7 T403 Terminal 4 frequency setting gain 0% to 300% 0.1% 100%

Terminal 4 bias command (torque/
C38 T410 magnetic flux) 0% to 400% 0.1% 0%

C39 T411 Terminal 4 bias (torque/magnetic flux) 0% to 300% 0.1% 20%

C40 T412 Terminal 4 gain command (torque/ 0% to 400% 0.1% 150%

magnetic flux)
C41 T413 Terminal 4 gain (torque/magnetic flux) 0% to 300% 0.1% 100%
C42 A630 PID display bias coefficient 0 to 500, 9999 0.01 9999
display

C43 A631 PID display bias analog value 0% to 300% 0.1% 20%
PID

C44 A632 PID display gain coefficient 0 to 500, 9999 0.01 9999
C45 A633 PID display gain analog value 0% to 300% 0.1% 100%
990 E104
— Parameter for manufacturer setting. Do not set.
991 E105
Monitoring

0 to 3, 5 to 12, 14, 17, 18,

992 M104 Operation panel setting dial push 20, 23 to 25, 32, 33, 38, 1 0
monitor selection 40 to 42, 44, 45, 50 to 57,
61, 62, 67, 91, 97, 100

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Minimum Initial value

Function Pr. Pr. group Name Setting range setting Customer
increments Gr.1 Gr.2 setting

— 997 H103 Fault initiation 0 to 255, 9999 1 9999

0, 8009, 8109, 9009,
— 998 E430 PM parameter initialization Simple 9109,
1 0

— 999 E431 Automatic parameter setting Simple 10, 12, 20, 21, 9999 1 9999
— 1000 E108 Parameter for manufacturer setting. Do not set.

— 1002 C150 Lq tuning target current adjustment 50% to 150%, 9999 0.1% 9999
coefficient
1006 E020 Clock (year) 2000 to 2099 1 2000
Clock

1007 E021 Clock (month, day) Jan. 1 to Dec. 31 1 101

1008 E022 Clock (hour, minute) 0:00 to 23:59 1 0
Integral stop selection at limited
— 1015 A607 frequency 0 to 2 1 0

1020 A900 Trace operation selection 0 to 3 1 0

1022 A902 Sampling cycle 1, 2, 5, 10, 50, 100, 500, 1

1000
1 2
1023 A903 Number of analog channels 1 to 8 1 4

Parameter list
1024 A904 Sampling auto start 0, 1 1 0
1025 A905 Trigger mode selection 0 to 4 1 0
1026 A906 Number of sampling before trigger 0% to 100% 1% 90%
1027 A910 Analog source selection (1ch) 201
1028 A911 Analog source selection (2ch) 202
1029 A912 Analog source selection (3ch) 1 to 3, 5 to 12, 14, 17, 18, 203
20, 23, 24, 32, 33, 40 to
1030 A913 Analog source selection (4ch) 42, 52 to 54, 61, 62, 67, 204
1031 A914 Analog source selection (5ch) 83 [E800-EPA], 91, 97, 1 205
201 to 210, 212, 213, 230
1032 A915 Analog source selection (6ch) to 232, 235 to 238 206
1033 A916 Analog source selection (7ch) 207
Trace

1034 A917 Analog source selection (8ch) 208

1035 A918 Analog trigger channel 1 to 8 1 1
1036 A919 Analog trigger operation selection 0, 1 1 0
1037 A920 Analog trigger level 600 to 1400 1 1000
1038 A930 Digital source selection (1ch) 0
1039 A931 Digital source selection (2ch) 0
1040 A932 Digital source selection (3ch) 0
1041 A933 Digital source selection (4ch) 0
0 to 255 1
1042 A934 Digital source selection (5ch) 0
1043 A935 Digital source selection (6ch) 0
1044 A936 Digital source selection (7ch) 0
1045 A937 Digital source selection (8ch) 0
1046 A938 Digital trigger channel 1 to 8 1 1
1047 A939 Digital trigger operation selection 0, 1 1 0
— 1103 F040 Deceleration time at emergency stop 0 to 3600 s 0.1 s 5s
Monitoring

1106 M050 Torque monitor filter 0 to 5 s, 9999 0.01 s 9999

1107 M051 Running speed monitor filter 0 to 5 s, 9999 0.01 s 9999
1108 M052 Excitation current monitor filter 0 to 5 s, 9999 0.01 s 9999
Station number in inverter-to-inverter
— 1124 N681 link [E800-E] 0 to 5, 9999 1 9999

— 1125 N682 Number of inverters in inverter-to- 2 to 6 1 2

inverter link system [E800-E]
function

1150 to A810 to
PLC

PLC function user parameters 1 to 50 0 to 65535 1 0

1199 A859

— 1200 M390 AM output offset calibration [E800- 2700 to 3300 1 3000

4][E800-5]

— 1399 N649 Inverter identification enable/disable 0, 1 1 1

selection [E800-E]
Motor induced voltage constant (phi f)
— 1412 C135 exponent 0 to 2, 9999 1 9999

Second motor induced voltage

— 1413 C235 constant (phi f) exponent 0 to 2, 9999 1 9999

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Minimum Initial value

Function Pr. Pr. group Name Setting range setting Customer
increments Gr.1 Gr.2 setting

Ethernet communication network

1424 N650 number 1 to 239 1 1

1425 N651 Ethernet communication station 1 to 120 1 1

number
Ethernet function selection

Link speed and duplex mode

1426 N641 0 to 4 1 0
selection
[E800-EPA]
1427 N630 Ethernet function selection 1 502, 5000 to 5002, 5006 1 5001
to 5008, 5010 to 5013,
1428 N631 Ethernet function selection 2 44818, 45237, 45238, 1 45237
47808, 61450, 9999
[E800-EPB]
1429 N632 Ethernet function selection 3 502, 5000 to 5002, 5006 1 45238
to 5008, 5010 to 5013,
1430 N633 Ethernet function selection 4 34962, 45237, 45238, 1 9999
61450, 9999

2 1431 N643
Ethernet signal loss detection function
selection 0 to 3 1 3

1432 N644 Ethernet communication check time 0 to 999.8 s, 9999 0.1 s 1.5
Parameter list

interval
1434 N600 Ethernet IP address 1 0 to 255 1 192
1435 N601 Ethernet IP address 2 0 to 255 1 168
1436 N602 Ethernet IP address 3 0 to 255 1 50
1437 N603 Ethernet IP address 4 0 to 255 1 1
1438 N610 Subnet mask 1 0 to 255 1 255
1439 N611 Subnet mask 2 0 to 255 1 255
1440 N612 Subnet mask 3 0 to 255 1 255
1441 N613 Subnet mask 4 0 to 255 1 0
1442 N660 Ethernet IP filter address 1 0 to 255 1 0
1443 N661 Ethernet IP filter address 2 0 to 255 1 0
1444 N662 Ethernet IP filter address 3 0 to 255 1 0
1445 N663 Ethernet IP filter address 4 0 to 255 1 0

1446 N664 Ethernet IP filter address 2 range 0 to 255, 9999 1 9999

specification
Ethernet IP filter address 3 range
Ethernet

1447 N665 specification 0 to 255, 9999 1 9999

1448 N666 Ethernet IP filter address 4 range 0 to 255, 9999 1 9999

specification

1449 N670 Ethernet command source selection 0 to 255 1 0

IP address 1
Ethernet command source selection
1450 N671 IP address 2 0 to 255 1 0

1451 N672 Ethernet command source selection 0 to 255 1 0

IP address 3

1452 N673 Ethernet command source selection 0 to 255 1 0

IP address 4
Ethernet command source selection
1453 N674 IP address 3 range specification 0 to 255, 9999 1 9999

1454 N675 Ethernet command source selection 0 to 255, 9999 1 9999

IP address 4 range specification
1455 N642 Keepalive time 1 to 7200 s 1 60 s
1456 N647 Network diagnosis selection 0 to 2, 9999 1 9999

1457 N648 Extended setting for Ethernet signal 0 to 3, 8888, 9999 1 9999
loss detection function selection

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Minimum Initial value

Function Pr. Pr. group Name Setting range setting Customer
increments Gr.1 Gr.2 setting

Load characteristics measurement

1480 H520 mode 0, 1 (2 to 5, 81 to 85) 1 0

1481 H521 Load characteristics load reference 1 0% to 400%, 8888, 9999 0.1% 9999
Load characteristics fault detection

1482 H522 Load characteristics load reference 2 0% to 400%, 8888, 9999 0.1% 9999
1483 H523 Load characteristics load reference 3 0% to 400%, 8888, 9999 0.1% 9999
1484 H524 Load characteristics load reference 4 0% to 400%, 8888, 9999 0.1% 9999
1485 H525 Load characteristics load reference 5 0% to 400%, 8888, 9999 0.1% 9999
Load characteristics maximum
1486 H526 frequency 0 to 590 Hz 0.01 Hz 60 Hz 50 Hz

1487 H527 Load characteristics minimum 0 to 590 Hz 0.01 Hz 6 Hz

frequency
1488 H531 Upper limit warning detection width 0% to 400%, 9999 0.1% 20%
1489 H532 Lower limit warning detection width 0% to 400%, 9999 0.1% 20%
1490
1491
H533
H534
Upper limit fault detection width
Lower limit fault detection width
0% to 400%, 9999
0% to 400%, 9999
0.1%
0.1%
9999
9999
2
Load status detection signal delay

Parameter list
1492 H535 time / load reference measurement 0 to 60 s 0.1 s 1s
waiting time
PR.CL Parameter clear (0), 1 1 0
parameters
Clear

ALLC All parameter clear (0), 1 1 0

ER.CL Fault history clear (0), 1 1 0

— PR.CH Initial value change list — 1 0

— PM PM initialization 0 1 0
— AUTO Automatic parameter setting — — —
— PR.MD Group parameter setting (0), 1, 2 1 0

 Gr.1 and Gr.2 are the parameter initial value groups.

 Differs depending on the capacity.
6%: FR-E820-0050(0.75K) or lower, FR-E840-0026(0.75K) or lower
5%: FR-E860-0017(0.75K)
4%: FR-E820-0080(1.5K) to FR-E820-0175(3.7K), FR-E840-0040(1.5K) to FR-E840-0095(3.7K)
3%: FR-E820-0240(5.5K) or higher, FR-E840-0120(5.5K) or higher, FR-E860-0027(1.5K) to 0040(2.2K)
2%: FR-E860-0061(3.7K) or higher
 Differs depending on the capacity.
5 s: FR-E820-0175(3.7K) or lower, FR-E840-0095(3.7K) or lower, FR-E860-0061(3.7K) or lower
10 s: FR-E820-0240(5.5K) or higher, FR-E840-0120(5.5K) or higher, FR-E860-0090(5.5K) or higher
 Differs depending on the capacity.
6%: FR-E820-0015(0.2K) or lower
4%: FR-E820-0030(0.4K) to FR-E820-0330(7.5K), FR-E840-0016(0.4K) to FR-E840-0170(7.5K)
1%: FR-E860-0017(0.75K) to FR-E860-0120(7.5K)
 For the Ethernet model, the setting is available only when the FR-A8AY is installed.
 aAvailable when the PLC function is enabled. (Pr.313 to Pr.315 are always available for settings in the Ethernet model.)
 For the standard model, the setting is available only when a communication option is installed.

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Protective Functions

 Error message
A message regarding operational fault or setting fault on the operation panel is displayed. The inverter output is not shut off.
Operation panel
Name Description

HOLD Operation panel lock Operation lock is set. Operation other than pressing the STOP/RESET key is disabled.

LOCD Password locked Password function is active. Display and setting of parameters are restricted.

to Er1 to Parameter write

Appears when an error occurred during parameter writing.
Er4 error

• The RES signal is turned ON.

Err. Error
• This error may occur when the voltage at the input side of the inverter drops.

 Warning
The inverter output is not shut off even when a warning is displayed. However, failure to take appropriate measures will lead to a fault.
Operation panel Name Data Description
indication code

3 OLC
Stall prevention
(overcurrent)
1
(H01)
When the output current of the inverter increases, the stall prevention (overcurrent)
function is activated.
• When the output voltage of the inverter increases, the stall prevention (overvoltage)
Protective Functions

Stall prevention 2 function is activated.

OLV
(overvoltage) (H02) • The regeneration avoidance function is activated due to excessive regenerative power
of the motor.
Appears if the regenerative brake duty reaches or exceeds 85% of the Pr.70 Special
Regenerative brake 3
RB regenerative brake duty value. If the regenerative brake duty reaches 100%, a
pre-alarm (H03)
regenerative overvoltage (E. OV[ ]) occurs.
Electronic thermal
4 Appears if the cumulative value of the electronic thermal O/L relay reaches or exceeds
TH relay function pre-
(H04) 85% of the preset level of Pr.9 Electronic thermal O/L relay.
alarm
• The motor is stopped using the STOP/RESET key under the mode other than the PU
6
PS PU stop operation mode.
(H06)
• The motor is stopped by the emergency stop function.
Speed limit 9
SL Output if the speed limit level is exceeded during torque control.
indication (H09)
12
SA Safety stop Appears when safety stop function is activated (during output shutoff).
(H0C)
Maintenance timer 8 Appears when the inverter's cumulative energization time reaches or exceeds the
MT
 (H08) parameter set value.
Continuous
10 Appears when the operation continues while an error is occurring in the communication
CF operation during
(H0A) line or communication option (when Pr.502 = "4").
communication fault
26 Appears when the load is deviated from the detection width set in Pr.1488 Upper limit
LDF Load fault warning
(H1A) warning detection width or Pr.1489 Lower limit warning detection width.
Ethernet 28 Appears when Ethernet communication is interrupted by physical factors while Pr.1431
EHR
communication fault (H1C) Ethernet signal loss detection function selection = "1 to 3".
32
DIP Duplicate IP address Appears when duplicate IP address is detected.
(H20)
38
IP IP address fault Appears when the IP address or the subnet mask is out of the specified range.
(H26)
Incorrect parameter 48 Appears when the combination of setting values of Pr.451 and Pr.800 is incorrect, and
SE
setting (H30) the inverter output is shut off.
If the power supply voltage of the inverter decreases, the control circuit will not perform
normal functions. In addition, the motor torque will be insufficient and/or heat
Stall prevention generation will increase. To prevent this, if the power supply voltage decreases to about
UV -
(overcurrent) 115 VAC (230 VAC for the 400 V class, 330 VAC for the 575 V class) or below, this
function shuts off the inverter output and "UV" is displayed. The warning is removed
when the voltage returns to normal.

 Alarm
The inverter output is not shut off. An Alarm (LF) signal can also be output with a parameter setting.

Operation panel Name Description

indication
For the inverter that contains a cooling fan, FN appears on the operation panel when the cooling
FN Fan alarm fan stops due to a fault, low rotation speed, or different operation from the setting of Pr.244
Cooling fan operation selection.

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 Fault
When a protective function is activated, the inverter output is shut off and a Fault (ALM) signal is output.
The data code is used for checking the fault detail via communication or with Pr.997 Fault initiation.
 Data code 16 to 199
Operation panel Data
indication Name code Description
When the inverter output current reaches or exceeds approximately 230% of the
Overcurrent trip 16
E.OC1 rated current during acceleration, the protection circuit is activated and the inverter
during acceleration (H10)
output is shut off.
Overcurrent trip When the inverter output current reaches or exceeds approximately 230% of the
17
E.OC2 during constant rated current during constantspeed operation, the protection circuit is activated and the
(H11)
speed inverter output is shut off.
Overcurrent trip When the inverter output current reaches or exceeds approximately 230% of the
18
E.OC3 during deceleration rated current during deceleration (other than acceleration or constant speed), the
(H12)
or stop protection circuit is activated and the inverter output is shut off.
If regenerative power causes the inverter's internal main circuit DC voltage to reach or
Regenerative
32 exceed the specified value, the protection circuit is activated to stop the inverter output.
E.OV1 overvoltage trip
(H20) The circuit may also be activated by a surge voltage produced in the power supply
during acceleration
Regenerative
system.
If regenerative power causes the inverter's internal main circuit DC voltage to reach or 3
overvoltage trip 33 exceed the specified value, the protection circuit is activated to stop the inverter output.
E.OV2

Protective Functions
during constant (H21) The circuit may also be activated by a surge voltage produced in the power supply
speed system.
Regenerative If regenerative power causes the inverter's internal main circuit DC voltage to reach or
overvoltage trip 34 exceed the specified value, the protection circuit is activated to stop the inverter output.
E.OV3
during deceleration (H22) The circuit may also be activated by a surge voltage produced in the power supply
or stop system.
Inverter overload trip If the temperature of the output transistor elements exceeds the protection level with a
48
E.THT (electronic thermal rated output current or higher flowing without the overcurrent trip (E.OC[]), the inverter
(H30)
relay function) output is stopped. (Overload capacity 150% 60 s)
The electronic thermal O/L relay function in the inverter detects motor overheat, which
Motor overload trip is caused by overload or reduced cooling capability during low-speed operation. When
49
E.THM (electronic thermal the cumulative heat value reaches 85% of the Pr.9 Electronic thermal O/L relay setting,
(H31)
relay function) pre-alarm (TH) is output. When the accumulated value reaches the specified value, the
protection circuit is activated to stop the inverter output.
64 When the heatsink overheats, the temperature sensor is activated, and the inverter
E.FIN Heat sink overheat
(H40) output is stopped.
When a PM motor is used, the protective function is activated in the following case: a
81 fault such as power failure or voltage drop occurs, the converter voltage drops to cause
E.UVT Undervoltage
(H51) the motor to coast, and restarting and coasting are repeated by the automatic restart
after instantaneous power failure function.
82 When Pr.872 Input phase loss protection selection is enabled ("1") and one of the
E.ILF Input phase loss
(H52) three-phase power input is lost, the inverter output is shut off.
If the output frequency has fallen to 0.5 Hz by stall prevention operation and remains for
96
E.OLT Stall prevention stop 3 seconds, a fault (E.OLT) appears and the inverter is shut off. OLC or OLV appears
(H60)
while stall prevention is being activated.
Loss of synchronism 97 The inverter output is shut off when the motor operation is not synchronized. (This
E.SOT
detection (H61) function is only available under PM sensorless vector control.)
Upper limit fault 98 The inverter output is shut off when the load exceeds the upper limit fault detection
E.LUP
detection (H62) range.
Lower limit fault 99 The inverter output is shut off when the load falls below the lower limit fault detection
E.LDN
detection (H63) range.
The inverter output is shut off if a fault due to damage of the brake transistor and such
Brake transistor 112
E.BE occurs in the brake circuit.
alarm detection (H70)
In such a case, the power supply to the inverter must be shut off immediately.
Output side earth
128 The inverter output is shut off if an earth (ground) fault overcurrent flows due to an earth
E.GF (ground) fault
(H80) (ground) fault that occurred on the inverter's output side (load side).
overcurrent
129 The inverter output is shut off if one of the three phases (U, V, W) on the inverter's
E.LF Output phase loss
(H81) output side (load side) is lost.
The inverter output is shut off if the external thermal relay provided for motor overheat
External thermal 144
E.OHT protection or the internally mounted thermal relay in the motor, etc. switches ON
relay operation (H90)
(contacts open).
• Appears when the AC power supply is connected to terminal R/L1, S/L2, or T/L3
accidentally when a high power factor converter (FR-HC2) or multifunction
regeneration converter (FR-XC in common bus regeneration mode) is connected
160
E.OPT Option fault (when Pr.30 Regenerative function selection = "0 or 2").
(HA0)
• Appears when the switch for manufacturer setting of the plug-in option is changed.
• Appears when a communication option is connected while Pr.296 Password lock level
= "0 or 100".
Communication 161 The inverter output is shut off if a communication line error occurs in the communication
E.OP1
option fault (HA1) option.

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Operation panel Data

indication Name code Description
164
E.16
(HA4)
165
E.17
(HA5) The protective function is activated by setting "16 to 20" in the special register SD1214
User definition error
166 for the PLC function. The inverter output is shut off when the protective function is
E.18 by the PLC
(HA6) activated.
function
167 The protective function is activated when the PLC function is enabled.
E.19
(HA7)
168
E.20
(HA8)
Parameter storage
176 The inverter output is shut off if a fault occurs in the parameter stored. (EEPROM
E.PE device fault (control
(HB0) failure)
circuit board)
• The inverter output is shut off if communication between the inverter and PU is
suspended, e.g. the operation panel is disconnected, when the disconnected PU
detection function is valid in Pr.75 Reset selection/disconnected PU detection/PU stop
selection.

3 E.PUE PU disconnection
177
(HB1)
• The inverter output is shut off if communication errors occurred consecutively for more
than permissible number of retries when Pr.121 PU communication retry count ≠
"9999" during the RS-485 communication.
Protective Functions

• The inverter output is shut off if communication is broken within the period of time set
in Pr.122 PU communication check time interval during the RS-485 communication
via the PU connector.
Retry count 178 The inverter output is shut off if the operation cannot be resumed properly within the
E.RET
excess (HB2) number of retries set in Pr.67 Number of retries at fault occurrence.
Parameter storage
179
E.PE2 device fault (main The inverter output is shut off if a fault occurs in the inverter model information.
(HB3)
circuit board)
192
E.CPU CPU fault The inverter output is shut off if the communication fault of the built-in CPU occurs.
(HC0)
Inrush current limit 196 The inverter output is shut off if the output current exceeds the Pr.150 Output current
E.CDO
circuit fault (HC4) detection level setting.
197 The inverter output is shut off when the resistor of the inrush current limit circuit is
E.IOH Analog input fault
(HC5) overheated. The inrush current limit circuit is faulty.
The inverter output is shut off when a 30 mA or higher current or a 7.5 V or higher
Communication 199 voltage is input to terminal 2 while the current input is selected by Pr.73 Analog input
E.AIE
option fault (HC7) selection, or to terminal 4 while the current input is selected by Pr.267 Terminal 4 input
selection.
 Data code 200 or more
Operation panel Name Data Description
indication code
USB communication 200 The inverter output is shut off when the communication is cut off for the time set in
E.USB
fault (HC8) Pr.548 USB communication check time interval.
• The inverter output is shut off when a safety circuit fault occurs.
• The inverter output is shut off if the either of the wire between S1 and SIC or S2 and
201
E.SAF Safety circuit fault SIC becomes nonconductive while using the safety stop function.
(HC9)
• When the safety stop function is not used, the inverter output is shut off when the
shorting wire between terminals S1 and PC or across S2 and PC is disconnected.
Overspeed 208 The inverter output is shut off when the motor speed exceeds the Pr.374 Overspeed
E.OS
occurrence (HD0) detection level under Real sensorless vector control and PM sensorless vector control.
The inverter output is shut off if the motor speed is increased or decreased under the
Speed deviation 209
E.OSD influence of the load etc. with Pr.285 Overspeed detection frequency set and cannot be
excess detection (HD1)
controlled in accordance with the speed command value.
216
E.MB4
(HD8)
217
E.MB5
Brake sequence (HD9) The inverter output is shut off when a sequence error occurs during use of the brake
fault 218 sequence function (Pr.278 to Pr.283).
E.MB6
(HDA)
219
E.MB7
(HDB)
The inverter output is shut off if the measured value exceeds the PID upper limit or PID
230
E.PID PID signal fault lower limit parameter setting, or the absolute deviation value exceeds the PID deviation
(HE6)
parameter setting during PID control.

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Operation panel Data

indication Name code Description
• Appears when Ethernet communication is interrupted by physical factors while
Pr.1431 Ethernet signal loss detection function selection = "3" or Pr.1457 Ethernet
signal loss detection function selection (extended setting) = "3".
• The inverter output is shut off if Ethernet communication is broken for the time set in
Pr.1432 Ethernet communication check time interval or longer for all devices with IP
addresses in the range specified for Ethernet command source selection (Pr.1449 to
Pr.1454).
Ethernet 231 • Check that the Pr.1432 setting is not too short.
E.EHR
communication fault (HE7) • When the CC-Link IE Field Network Basic is used, the inverter output is shut off in the
following cases: the data addressed to the own station is not received for the
predetermined timeout period or longer, or the status bit of the cyclic transmission
addressed to the own station turns OFF (when the master inverter gives a command
to stop the cyclic transmission).
• When BACnet/IP is used, the inverter output will be shut off after the time period set in
Pr.1432 after power is supplied to the inverter if an IP address of any other inverter
falls within the Ethernet IP address range set for command source selection.
Board combination 232
E.CMB The board combination is not appropriate.
mismatch (HE8)
• The inverter output is shut off when a contact fault is found between the inverter and
E.1 Option fault
241
(HF1)
the plug-in option, or when the communication option is not connected to the
connector 1.
3
• Appears when the switch for manufacturer setting of the plug-in option is changed.

Protective Functions
245
E.5
(HF5)
246
E.6 CPU fault The inverter output is shut off if the communication fault of the built-in CPU occurs.
(HF6)
247
E.7
(HF7)
250 The inverter output is shut off if the inverter detects an output current fault such as an
E.10 Output side fault
(HFA) earth (ground) fault that occurred on the inverter's output side (load side).
The speed may not decelerate during low speed operation if the rotation direction of the
speed command and the estimated speed differ when the rotation is changing from
Opposite rotation 251
E.11 forward to reverse or from reverse to forward during torque control under Real
deceleration fault (HFB)
sensorless vector control. The inverter output is shut off when overload occurs due to
the un-switched rotation direction.
Internal circuit fault 253
E.13 Appears when the internal circuit is faulty.
(15 V poser supply) (HFD)

 Others
The fault history and the operation status of the inverter are displayed. It is not a fault indication.
Operation panel
indication Name
The operation panel stores the fault indications which appear when a protective function is
Fault history
activated to display the fault record for the past 10 faults.
 Resetting the inverter initializes the internal cumulative heat value of the electronic thermal O/L relay function.
 The external thermal operates only when the OH signal is set in Pr.178 to Pr.189 (input terminal function selection).
 This protective function is not available in the initial status.
 Differs according to ratings. The rating can be changed using Pr.570 Multiple rating setting.
170% for LD rating, 230% for ND rating (initial setting) (FR-E820-0175(3.7K) or lower, FR-E840-0095(3.7K) or lower, FR-E860-0061(3.7K) or lower), and 235% for ND
rating (initial value) (FR-E820-0240(5.5K) or higher, FR-E840-0120(5.5K) or higher, FR-E860-0090(5.5K) or higher)

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 standard_specifications.fm 56 ページ ２０１９年１２月６日 金曜日 午後４時１４分

Standard Specifications

 Three-phase 200 V power supply

0.1K 0.2K 0.4K 0.75K 1.5K 2.2K 3.7K 5.5K 7.5K
Model FR-E820-[]
0008 0015 0030 0050 0080 0110 0175 0240 0330
Applicable motor LD 0.2 0.4 0.75 1.1 2.2 3.0 5.5 7.5 11
capacity (kW) ND 0.1 0.2 0.4 0.75 1.5 2.2 3.7 5.5 7.5
Rated capacity LD 0.5 0.8 1.4 2.4 3.8 4.8 7.8 12.0 15.9
(kVA) ND 0.3 0.6 1.2 2.0 3.2 4.4 7.0 9.6 13.1
Rated current LD 1.3 (1.1) 2 (1.7) 3.5 (3.0) 6.0(5.1) 9.6 (8.2) 12 (10.2) 19.6 (16.7) 30 (25.5) 40 (34)
(A) ND 0.8 (0.8) 1.5 (1.4) 3 (2.5) 5 (4.1) 8 (7) 11 (10) 17.5 (16.5) 24 (23) 33 (31)
Output

Overload current LD 120% 60 s, 150% 3 s (inverse-time characteristics) at surrounding air temperature of 50°C
rating ND 150% 60 s, 200% 3 s (inverse-time characteristics) at surrounding air temperature of 50°C
Rated voltage Three-phase 200 to 240 V
Regenerat Brake transistor - Built-in
ive
Maximum brake torque 150% 100% 50% 20%
braking
Rated input AC voltage/frequency Three-phase 200 to 240 V 50 Hz / 60 Hz
Permissible AC voltage fluctuation 170 to 264 V 50 Hz / 60 Hz
Permissible frequency fluctuation ±5%
Rated Without DC reactor 1.9 3.0 5.1 8.2 13 16 26 37 49
Power supply

LD
input With DC reactor 1.3 2.0 3.5 6.0 9.6 12 20 30 40
current Without DC reactor 1.4 2.3 4.5 7.0 11 15 23 30 41
ND
(A) With DC reactor 0.8 1.5 3.0 5.0 8.0 11 17.5 24 33
Power Without DC reactor 0.7 1.1 1.9 3.1 4.8 6.2 9.7 14 19
LD
supply With DC reactor 0.5 0.8 1.3 2.3 3.7 4.6 7.5 11 15
4 capacity
ND
Without DC reactor 0.5 0.9 1.7 2.7 4.1 5.7 8.8 12 16
(kVA) With DC reactor 0.3 0.6 1.1 1.9 3.0 4.2 6.7 9.1 13
Protective structure (IEC 60529) Enclosed type (IP20)
Standard Specifications

Cooling system Natural Forced air

Approximate mass (kg) 0.5 0.5 0.7 1.0 1.4 1.4 1.8 3.3 3.3

 Three-phase 400 V class

0.4K 0.75K 1.5K 2.2K 3.7K 5.5K 7.5K
Model FR-E840-[]
0016 0026 0040 0060 0095 0120 0170
Applicable motor LD 0.75 1.5 2.2 3.0 5.5 7.5 11
capacity (kW) ND 0.4 0.75 1.5 2.2 3.7 5.5 7.5
Rated capacity LD 1.6 2.7 4.2 5.3 8.5 13.3 17.5
(kVA) ND 1.2 2.0 3.0 4.6 7.2 9.1 13.0
Rated current LD 2.1 (1.8) 3.5 (3.0) 5.5 (4.7) 6.9 (5.9) 11.1 (9.4) 17.5 (14.9) 23 (19.6)
(A) ND 1.6 (1.4) 2.6 (2.2) 4 (3.8) 6 (5.4) 9.5 (8.7) 12 17
120% 60 s, 150% 3 s (inverse-time characteristics) at surrounding air
LD
Output

Overload current temperature of 50°C

rating 150% 60 s, 200% 3 s (inverse-time characteristics) at surrounding air
ND
temperature of 50°C
Rated voltage Three-phase 380 to 480 V
Regenerat Brake transistor Built-in
ive
Maximum brake torque 100% 50% 20%
braking
Rated input AC voltage/frequency Three-phase 380 to 480 V 50 Hz / 60 Hz
Permissible AC voltage fluctuation 323 to 528 V 50 Hz / 60 Hz
Permissible frequency fluctuation ±5%
Rated Without DC reactor 3.3 6.0 8.9 11 16 25 32
Power supply

LD
input With DC reactor 2.1 3.5 5.5 6.9 11 18 23
current Without DC reactor 2.7 4.4 6.7 9.5 14 18 25
ND
(A) With DC reactor 1.6 2.6 4.0 6.0 9.5 12 17
Power Without DC reactor 2.5 4.5 6.8 8.2 12 19 25
LD
supply With DC reactor 1.6 2.7 4.2 5.3 8.5 13 18
capacity Without DC reactor 2.1 3.4 5.1 7.2 11 14 19
ND
(kVA) With DC reactor 1.2 2.0 3.0 4.6 7.2 9.1 13
Protective structure (IEC 60529) Enclosed type (IP20)
Cooling system Natural Forced air
Approximate mass (kg) 1.2 1.2 1.4 1.8 1.8 2.4 2.4
 The applicable motor capacity indicated is the maximum capacity applicable for use of the Mitsubishi Electric 4-pole standard motor.
 The rated output capacity indicated assumes that the output voltage is 230 V for three-phase 200 V class and 440 V for three-phase 400 V class.
 The % value of the overload current rating indicated is the ratio of the overload current to the inverter's rated output current. For repeated duty, allow time for the
inverter and motor to return to or below the temperatures under 100% load.
 The maximum output voltage does not exceed the power supply voltage. The maximum output voltage can be changed within the setting range. However, the pulse
voltage value of the inverter output side voltage remains unchanged at about√2 that of the power supply.
 The braking torque indicated is a short-duration average torque (which varies with motor loss) when the motor alone is decelerated from 60 Hz in the shortest time and
is not a continuous regenerative torque. When the motor is decelerated from the frequency higher than the base frequency, the average deceleration torque will reduce.
Since the inverter does not contain a brake resistor, use the optional brake resistor when regenerative energy is large. A brake unit (FR-BU2) may also be used.
(Option brake resistor cannot be used for 0.1K and 0.2K.)
 The power supply capacity varies with the value of the power supply side inverter impedance (including those of the input reactor and cables).
 Setting 2 kHz or more in Pr. 72 PWM frequency selection to perform low acoustic noise operation in the surrounding air temperature exceeding 40°C, the rated output
current is the value in parenthesis.
 The rated input current is the value when at the rated output current. The input power impedances (including those of the input reactor and cables) affect the value.

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 Three-phase 575 V class

0.75K 1.5K 2.2K 3.7K 5.5K 7.5K
Model FR-E860-[]
0017 0027 0040 0061 0090 0120
Applicable motor LD 1.5 2.2 3.7 5.5 7.5 11
capacity (kW) ND 0.75 1.5 2.2 3.7 5.5 7.5
Rated capacity LD 2.5 3.6 5.6 8.2 11.0 15.9
(kVA) ND 1.7 2.7 4.0 6.1 9.0 12.0
Rated current LD 2.5 (2.1) 3.6 (3.0) 5.6 (4.8) 8.2 (7.0) 11 (9.0) 16 (13.6)
(A) ND 1.7 2.7 4 6.1 9 12
120% 60 s, 150% 3 s (inverse-time characteristics) at surrounding air
LD
Output

Overload current temperature of 50°C

rating 150% 60 s, 200% 3 s (inverse-time characteristics) at surrounding air
ND
temperature of 50°C
Rated voltage Three-phase 525 to 600 V
Regenerat Brake transistor Built-in
ive
Maximum brake torque 100% 50% 20%
braking
Rated input AC voltage/frequency Three-phase 575 V 60 Hz
Permissible AC voltage fluctuation 490 to 632 V 60 Hz
Permissible frequency fluctuation ±5%
Rated Without DC reactor 4.3 5.9 8.9 12 16 22
Power supply

LD
input With DC reactor 2.5 3.6 5.6 8.2 11 16
current Without DC reactor 3.0 4.6 6.6 10 13 17
ND
(A)
Power
LD
With DC reactor
Without DC reactor
1.7
4.3
2.7
5.9
4.0
8.9
6.1
12
9.0
16
12
22 4
supply With DC reactor 2.5 3.6 5.6 8.2 11 16

Standard Specifications
capacity Without DC reactor 3.0 4.6 6.6 9.5 13 17
ND
(kVA) With DC reactor 1.7 2.7 4.0 6.1 9.0 12
Protective structure (IEC 60529) Enclosed type (IP20)
Cooling system Natural Forced air
Approximate mass (kg) 1.9 1.9 1.9 2.4 2.4 2.4
 The motor capacity indicates the maximum capacity of a 4-pole standard motor driven by all of the inverters in parallel connection.
 The rated output capacity indicated assumes that the output voltage is 575 V.
 The % value of the overload current rating indicated is the ratio of the overload current to the inverter's rated output current. For repeated duty, allow time for the
inverter and motor to return to or below the temperatures under 100% load.
 The maximum output voltage does not exceed the power supply voltage. The maximum output voltage can be changed within the setting range. However, the pulse
voltage value of the inverter output side voltage remains unchanged at about√2 that of the power supply.
 The amount of braking torque is the average short-term torque (which varies depending on motor loss) that is generated when a motor decelerates in the shortest time
by itself from 60 Hz. It is not continuous regenerative torque. The average deceleration torque becomes lower when a motor decelerates from a frequency higher than
the base frequency. The inverter is not equipped with a built-in brake resistor. Use a brake resistor for an operation with large regenerative power. A brake unit can be
also used.
 The power supply capacity varies with the value of the power supply side inverter impedance (including those of the input reactor and cables).
 Setting 2 kHz or more in Pr. 72 PWM frequency selection to perform low acoustic noise operation in the surrounding air temperature exceeding 40°C, the rated output
current is the value in parenthesis.
 The rated input current indicates a value at a rated output voltage. The impedance at the power supply side (including those of the input reactor and cables) affects the
rated input current.

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 Common specifications
Control method Soft-PWM control/high carrier frequency PWM control
Induction motor Selectable among V/F control, Advanced magnetic flux vector control, and Real sensorless vector control
PM motor PM sensorless vector control
Output 0.2 to 590 Hz (The upper-limit frequency is 400 Hz under Advanced magnetic flux vector control and Real sensorless
Induction motor
frequency vector control.)
range PM motor 0.2 to 400 Hz (not operable at maximum motor frequency or higher)
Frequency 0.015 Hz /60 Hz at 0 to 10 V / 12 bits (terminals 2 and 4)
Analog input
setting 0.03 Hz /60 Hz at 0 to 5 V / 11 bits or 0 to 20 mA / 11 bits (terminals 2 and 4)
resolution
Control specifications

Digital input 0.01 Hz

Frequency Analog input Within ±0.2% of the max. output frequency (25°C ±10°C)
accuracy Digital input Within 0.01% of the set output frequency
Base frequency can be set from 0 to 590 Hz. Constant-torque/variable torque pattern can be selected.
Voltage/frequency characteristics
(available with induction motors only)
150% 0.5 Hz (Advanced magnetic flux vector control)
Induction motor
Starting torque 200% 0.3 Hz (0.4K to 3.7K), 150% 0.3 Hz (5.5K or more) (Real sensorless vector control)
PM motor 50%
Torque boost Manual torque boost (available with induction motors only)
Acceleration/deceleration time
0 to 3600 s (acceleration and deceleration can be set individually), linear or S-pattern acceleration/deceleration mode
setting
DC injection Induction motor Operation frequency (0 to 120 Hz), operation time (0 to 10 s), operation voltage (0 to 30%) can be changed.

4 brake PM motor
Stall prevention operation level
Operation time (0 to 10 s) can be changed, operation voltage (operating current) is fixed.
Operation current level can be set (0 to 220% adjustable), whether to use the function or not can be selected.
Torque limit level Torque limit value can be set (0 to 400% variable).
Standard Specifications

Frequency Analog input Terminals 2 and 4: 0 to 10 V, 0 to 5 V, 4 to 20 mA (0 to 20 mA) are available.

setting Input using the operation panel.
signal Digital input
Four-digit BCD or 16-bit binary (when used with option FR-A8AX E kit)
Start signal Forward and reverse rotation or start signal automatic self-holding input (3-wire input) can be selected.
Low-speed operation command, Middle-speed operation command, High-speed operation command, Output stop,
Input signal (standard model: 7,
Forward rotation command, Reverse rotation command, Inverter reset
Ethernet model: 2)
Operation specifications

The input signal can be changed using Pr.178 to Pr.189 (input terminal function selection).
Maximum and minimum frequency settings, multi-speed operation, acceleration/deceleration pattern, thermal
protection, DC injection brake, starting frequency, JOG operation, output stop (MRS), stall prevention, regeneration
avoidance, frequency jump, rotation display, automatic restart after instantaneous power failure, remote setting,
automatic acceleration/deceleration, retry function, carrier frequency selection, fast-response current limit, forward/
Operational functions reverse rotation prevention, operation mode selection, slip compensation, droop control, speed smoothing control,
traverse, auto tuning, applied motor selection, RS-485 communication, Ethernet communication, PID control,easy
dancer control, cooling fan operation selection, stop selection (deceleration stop/coasting), power-failure deceleration
stop function, stop-on-contact control, PLC function, life diagnosis, maintenance timer, current average monitor,
multiple rating, speed control, torque control, torque limit, safety stop function
Open collector output
Output signal

Inverter running, Up to frequency, Fault

(standard model: 2)
The output signal can be changed using Pr.190 to Pr.196 (output terminal function selection).
Relay output (1)

Analog output (AM type) -10 to +10 V / 12 bits

Overcurrent trip during acceleration, Overcurrent trip during constant speed, Overcurrent trip during deceleration or
stop, Regenerative overvoltage trip during acceleration, Regenerative overvoltage trip during constant speed,
Regenerative overvoltage trip during deceleration or stop, Inverter overload trip, Motor overload trip, Heat sink
overheat, Undervoltage, Input phase loss, Stall prevention stop, Loss of synchronism detection, Upper limit fault
detection, Lower limit fault detection, Brake transistor alarm detection, Output side earth (ground) fault overcurrent,
Protective
Output short circuit, Output phase loss, External thermal relay operation, Option fault, Communication option fault,
functions
Parameter storage device fault, PU disconnection, Retry count excess, CPU fault, Abnormal output current detection,
Protective/warning Inrush current limit circuit fault, USB communication fault, analog input error, Safety circuit fault, Overspeed
function occurrence, Speed deviation excess detection, Brake sequence fault, PID signal fault, Ethernet communication
fault, Opposite rotation deceleration fault, Internal circuit fault, User definition error by the PLC function, Board
combination mismatch
Fan alarm, Stall prevention (overcurrent), Stall prevention (overvoltage), Regenerative brake pre-alarm,
Warning Electronic thermal relay function pre-alarm, PU stop, Maintenance timer warning, Parameter write error,
functions Operation panel lock, Password locked, Speed limit indication, Safety stop, Ethernet communication fault,
Duplicate IP address, IP address fault, Incorrect parameter setting
-20°C to +60°C (-10°C to +60°C for the 575 V class) (The rated current must be reduced at a temperature above
Surrounding air temperature
50°C.)
Environment

95% RH or less (non-condensing) (With circuit board coating (conforming to IEC 60721-3-3 3C2))
Ambient humidity
90% RH or less (non-condensing) (Without circuit board coating)
Storage temperature -40°C to +70°C
Atmosphere Indoors (without corrosive gas, flammable gas, oil mist, dust and dirt, etc.)
Altitude/vibration Maximum 3000 m (Maximum 2000 m for the 575 V class), 5.9 m/s2 or less at 10 to 55 Hz (directions of X, Y, Z axes)
 Enabled only for standard models.
 Enabled only for Ethernet models.
 This protective function is not available in the initial status.
 Temperature applicable for a short time, e.g. in transit.
 For the installation at an altitude above 1000 m, consider a 3% reduction in the rated current per 500 m increase in altitude.

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Outline Dimensions

• FR-E820-0.1K to 0.75K • FR-E820-1.5K to 7.5K

• FR-E840-0.4K to 7.5K
• FR-E860-0.75K to 7.5K

When used with the plug-in option

φC
φC

H1

H1
H

H
W1 W1 D1 D1
W W D D2

(Unit: mm)

• Three-phase 200 V class

Inverter model
FR-E820-0.1K
W W1 H H1

80.5
D

10
D1

108.1
D2 C
5
FR-E820-0.2K
68 56

Outline Dimensions
FR-E820-0.4K 112.5 140.1
42
FR-E820-0.75K 128 118 132.5 160.1 5
FR-E820-1.5K
108 96 135.5 46 163.1
FR-E820-2.2K
FR-E820-3.7K 140 128 142.5 52.5 170.1
FR-E820-5.5K
180 164 260 244 165 71.5 192.6 6
FR-E820-7.5K

• Three-phase 400 V class

Inverter model W W1 H H1 D D1 D2 C
FR-E840-0.4K
129.5 40 157.1
FR-E840-0.75K 108 96 128 118
FR-E840-1.5K 46
FR-E840-2.2K 135 162.6 5
140 128 150 138 43.5
FR-E840-3.7K
FR-E840-5.5K
220 208 150 138 147 68 174.6
FR-E840-7.5K

• Three-phase 575 V class

Inverter model W W1 H H1 D D1 D2 C
FR-E860-0.75K
FR-E860-1.5K 140 128 135 43.5 162.6
FR-E860-2.2K
150 138 5
FR-E860-3.7K
FR-E860-5.5K 220 208 147 68 174.6
FR-E860-7.5K

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Terminal Connection Diagram

Sink logic  When connecting a DC

Main circuit terminal reactor, remove the
jumper across P1 and P/+.
Control circuit terminal
DC reactor Brake unit  A brake transistor is not
(FR-HEL) (Option) built-in to the 0.1K and 0.2K.
 R  Brake resistor (FR-ABR, MRS, MYS type)
Earth
 Install a thermal relay to prevent an
(Ground) overheat and burnout of the brake
Jumper PR N/- resistor. (The brake resistor can not be
connected to the 0.1K and 0.2K.)
MCCB MC P1 P/+ 
Motor
R/L1 U
Three-phase S/L2 V
AC power M
T/L3 W
supply

Earth (Ground
Earth Main circuit
(Ground)
Control circuit
Control input signals (No voltage input allowed)  C Relay output 
Forward STF
 Terminal functions vary by
 Terminal functions vary rotation start B
with the input terminal
Relay output
Reverse STR (Fault output) selection
assignment (
)
rotation start A
RH
High
speed Open collector output 
RM
Multi-speed selection Middle

6 speed  Terminal functions vary with

RUN
RL the output terminal
 The initial setting varies Low Running assignment
depending on the speed ( and )
MRS
Terminal Connection Diagram, Terminal Specifications

specification. Output SOURCE SINK FU

Frequency detection
stop RES SINK
Reset 
SE Open collector output common
Contact input common SD Sink/source common
SOURCE
24VDC power supply(Common for 24V
external power supply transistor) PC
Safety stop input common SO Safety stop signal
S1 Safety monitor output
Safety stop input (Channel 1) Output
S2 shutoff SOC
Safety stop input (Channel 2) Safety monitor output common
circuit
Shorting wire

Frequency setting signals (Analog) Output signal: Pulse or analog selectable

3 10(+5V)
 Terminal input specifications Output signal: Pulse (for the inverter with terminal FM)
Frequency
can be changed by analog PU
setting 2 0 to 5VDC Calibration
input specifications 2 connector Indicator
switchover (). potentiometer 0 to 10VDC resistor + - (Frequency meter, etc.)
Set the voltage/current input 1/2W1kΩ 0 to 20mADC  USB mini B
switch in the "V" position to  FM Moving-coil type
1 5(Analog common) connector 1mA full-scale
select voltage input and "I" 
to select current input . SD
Terminal 4 input (+) 4 4 to 20mADC  It is not necessary when
(Current input) (-) 0 to 5VDC  calibrating the indicator from
0 to 10VDC the operation panel.
 It is recommended to use
2W1kΩ when the 2 Output signal: Analog (for the inverter with terminal AM)
frequency setting signal is V I AM (+)
Analog signal output
changed frequently. 4
(-) (0 to ±10VDC)
Voltage/current
input switch  5

Connector for
plug-in option connection Option connector

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Terminal Specifications

Type Terminal Terminal Name Description

Symbol
R/L1, S/L2, T/ Connect to the commercial power supply. Do not connect anything to these terminals when using the high power
AC power input factor converter (FR-HC2) or the multifunction regeneration converter (FR-XC) in common bus regeneration mode.
L3
U, V, W Inverter output Connect a three-phase squirrel-cage motor or PM motor.
Main circuit

P/+, PR Brake resistor connection Connect a brake transistor (MRS type, MYS type, FR-ABR) across terminals P/+-PR. (The brake resistor
cannot be connected to the 0.1K or 0.2K)
P/+, N/- Brake unit connection Connect the brake unit (FR-BU2), multifunction regeneration converter (FR-XC), or high power factor converter (FR-HC2).
P/+, P1 DC reactor connection Remove the jumper across terminals P/+-P1 and connect a DC reactor. When a DC reactor is not connected,
the jumper across terminals P/+ and P1 should not be removed.
Earth (Ground) For earthing (grounding) the inverter chassis. Must be earthed (grounded).

STF Forward rotation start Turn on the STF signal to start

forward rotation and turn it off to stop. When the STF and STR signals are
turned on simultaneously, the stop
STR Reverse rotation start Turn on the STR signal to start command is given.
reverse rotation and turn it off to stop.
RH, RM, RL Multi-speed selection Multi-speed can be selected according to the combination of RH, RM and Input resistance: 4.7 kΩ,
RL signals. voltage when contacts are open:
Turn on the MRS signal (20ms or more) to stop the inverter output. 21 to 26 VDC,
MRS Output stop Use to shut off the inverter output when stopping the motor by current when contacts are
electromagnetic brake. short-circuited: 4 to 6 mADC
Use to reset alarm output provided when protective circuit is activated. Turn
RES Reset on the RES signal for more than 0.1s, then turn it off. It is possible to set the
Contact input

initial setting to "always enabled". By setting Pr. 75, reset can be set
enabled only at fault occurrence. Recover about 1s after reset is cancelled.
Contact input common Common terminal for contact input terminal (sink logic) and terminal FM.
(sink)
SD External transistor Connect this terminal to the power supply common terminal of a transistor output (open collector output)
common (source) device, such as a programmable controller, in the source logic to avoid malfunction by undesirable currents.
24VDC power supply Common output terminal for 24VDC 0.1A power supply (PC terminal). Isolated from terminals 5 and SE.
common
Connect this terminal to the power supply common terminal of a transistor
input signal

External transistor output (open collector output) device, such as a programmable controller, in
common (sink) the sink logic to avoid malfunction by undesirable currents.
Safety stop input terminal Power supply voltage range:
PC common Common terminal for safety stop input terminals. 22 to 26.5 VDC,
permissible load current: 100 mA
Contact input common Common terminal for contact input terminal (source logic).
(source)

10
24VDC power supply
Frequency setting power
supply
Can be used as 24 VDC 0.1 A power supply.
Used as power supply when connecting potentiometer for frequency setting 5 VDC ± 0.5 V
(speed setting) from outside of the inverter. permissible load current 10 mA
6
Inputting 0 to 5 VDC (or 0 to 10 VDC) provides the maximum output frequency

Terminal Connection Diagram, Terminal Specifications

Frequency setting at 5 V (or 10 V) and makes input and output proportional.
2 (voltage) Use Pr.73 to switch between input 0 to 5 VDC (initial setting) and 0 to 10 VDC
Frequency setting

input (The initial setting varies depending on the specification) . Set the voltage/ Voltage input:
current input switch to the "I" position to select current input (0 to 20 mA). Input resistance 10 kΩ ± 1 kΩ
Inputting 4 to 20 mADC (or 0 to 5 VDC, 0 to 10 VDC) provides the maximum Permissible maximum voltage
output frequency at 20 mA and makes input and output proportional. This input 20 VDC
signal is valid only when the AU signal is ON (terminal 2 input is invalid). To use Current input:
Frequency setting the terminal 4 (current input at initial setting), assign "4" to any parameter from Input resistance 245 Ω ± 5 Ω
4 (current) Pr.178 to Pr.184 (Input terminal function selection) before turning ON the Maximum permissible current
AU signal (The initial setting varies depending on the specification) . Use 30 mA.
Pr.267 to switch among input 4 to 20 mA (initial setting), 0 to 5 VDC, and 0 to
10 VDC. Set the voltage/current input switch in the "V" position to select voltage
input (0 to 5 V / 0 to 10 V).
5 Frequency setting common Common terminal for the frequency setting signals (terminals 2 or 4). Do not earth (ground).
1 changeover contact output indicates that the inverter fault occurs.
Relay

A, B, C Relay output (fault output) Fault: discontinuity across B-C (continuity across A-C), Normal: continuity Contact capacity 240 VAC 2A
(power factor = 0.4) 30 VDC 1A
across B-C (discontinuity across A-C)
The output is in LOW state when the inverter output frequency is equal to or
RUN Inverter running higher than the starting frequency (initial value: 0.5 Hz).
Open collector

Permissible load 24 VDC

The output is in HIGH state during stop or DC injection brake operation.  (Maximum 27 VDC) 0.1 A
The output is in LOW state when the inverter output frequency is equal to or (a voltage drop is 3.4 V
output signal

FU Frequency detection higher than the preset detection frequency, and is in HIGH state when it is maximum when the signal is on)
less than the preset detection frequency.
SE Open collector output Common terminal of terminal RUN and FU.
common
Permissible load current 1 mA
Analog Pulse

FM For meter Select one e.g. output frequency from 1440 pulses/s at 60 Hz
monitor items. (Not output during Output item: output frequency (initial
inverter reset.) The output signal is Output signal 0 to ±10 VDC,
AM Analog voltage output proportional to the magnitude of the setting) permissible load current 1 mA
corresponding monitoring item. (load impedance 10 kΩ or more),
resolution 8 bit
S1 Safety stop input Terminals S1 and S2 are used for the safety stop input signal for the safety Input resistance 4.7 kΩ
(Channel 1) relay module. Terminals S1 and S2 are used at the same time (dual Voltage when contacts are open
channel). Inverter output is shutoff by shortening/opening between
terminals S1 and SIC, or between S2 and SIC. In the initial status, terminals 21 to 26 VDC
Safety stop signal

S2 Safety stop input (with 24 S1 and S2 are shorted with terminal PC by shorting wires. Terminal SIC is Current when contacts are
VDC input) (Channel 2) shorted with terminal SD. Remove the shorting wires and connect the short-circuited
safety relay module when using the safety stop function. 4 to 6 mADC
Indicates the safety stop input signal status. Permissible load
Safety monitor output Switched to LOW when the status is other than the internal safety circuit 24 VDC (maximum 27 VDC)
SO (open collector output) failure. Refer to the FR-E800 Instruction Manual (Functional Safety) (BCN- 0.1 A
A23488-000) when the signal is switched to HIGH while both terminals S1 (The voltage drop is 3.4 V at
and S2 are open. (Please contact your sales representative for the manual.) maximum while the signal is ON.)
SOC Safety monitor output Common terminal for terminal SO. ―――
terminal common
With the PU connector, RS-485 communication can be made.
Communication

― PU connector · Conforming standard: EIA-485 (RS-485) · Transmission format: Multi-drop link

· Communication speed: 300 to 115200bps · Overall extension: 500m
USB connection with a personal computer can be established. Setting, monitoring and testing of the inverter
― USB connector can be performed using FR Configurator2.
· Interface: conforms to USB 1.1 · Transmission Speed: 12 Mbps
· Connector: USB mini B connector (receptacle mini B type)
 Terminal functions can be selected using Pr.178 to Pr.184 (Input terminal function selection).
 An open collector transistor is ON (conductive) in LOW state. The transistor is OFF (not conductive) in HIGH state.
 Terminal FM is provided for the FM type inverter. Terminal AM is provided for the AM type inverter.
 USB bus power connection is available. The maximum SCCR should be 500 mA. A PU connector cannot be used during USB bus power connection.

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Terminal Connection Diagram

Sink logic  When connecting a DC

Main circuit terminal reactor, remove the
jumper across P1 and P/+.
Control circuit terminal
DC reactor Brake unit  A brake transistor is not
(FR-HEL) (Option) built-in to the 0.1K and 0.2K.
 R  Brake resistor (FR-ABR, MRS, MYS type)
Earth
 Install a thermal relay to prevent an
(Ground) overheat and burnout of the brake
Jumper PR N/- resistor. (The brake resistor can not be
connected to the 0.1K and 0.2K.)
MCCB MC P1 P/+ 
Motor
R/L1 U
Three-phase S/L2 V
AC power M
T/L3 W
supply

Earth (Ground
Earth Main circuit
(Ground)
Control circuit
Control input signals (No voltage input allowed)  Relay output 
 Terminal functions vary Forward  Terminal functions vary by
with the input terminal rotation start Relay output
assignment ( Reverse selection
(Fault output)
) rotation start
 The initial setting varies
depending on the
specification. SOURCE SINK

6
SINK
SD 
Contact input common
SOURCE
Terminal Connection Diagram, Terminal Specifications

24VDC power supply(Common for 24V

external power supply transistor)
PC

Safety stop input common Safety stop signal

S1
Safety stop input (Channel 1) Output SO
S2 Safety monitor output
Safety stop input (Channel 2) shutoff
Shorting wire circuit SOC
Safety monitor output common

Frequency setting signals (Analog) Ethernet

3 10(+5V)
 Terminal input specifications connector
Frequency
can be changed by analog (2 ports)
input specifications setting 2 0 to 5VDC
2
switchover (). potentiometer 0 to 5VDC
Set the voltage/current input 1/2W1kΩ 0 to 20mADC  USB mini B
connector
switch in the "V" position to  5(Analog common)
select voltage input and "I" 1
to select current input .

Terminal 4 input (+) 4 4 to 20mADC

(Current input) (-) 0 to 5VDC 
0 to 10VDC
 It is recommended to use
2W1kΩ when the
frequency setting signal is
changed frequently.
Voltage/current
input switch 
Connector for
plug-in option connection Option connector

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Terminal Specifications

Terminal
Type Symbol Terminal Name Description

R/L1, S/L2, Connect to the commercial power supply. Do not connect anything to these terminals when using the high
AC power input power factor converter (FR-HC2) or the multifunction regeneration converter (FR-XC) in common bus
T/L3 regeneration mode.
U, V, W Inverter output Connect a three-phase squirrel-cage motor or PM motor.
Main circuit

Connect a brake transistor (MRS type, MYS type, FR-ABR) across terminals P/+-PR. (The brake resistor
P/+, PR Brake resistor connection
cannot be connected to the 0.1K or 0.2K)
Connect the brake unit (FR-BU2), multifunction regeneration converter (FR-XC), or high power factor converter
P/+, N/- Brake unit connection
(FR-HC2).
Remove the jumper across terminals P/+-P1 and connect a DC reactor. When a DC reactor is not connected,
P/+, P1 DC reactor connection
the jumper across terminals P/+ and P1 should not be removed.
Earth (Ground) For earthing (grounding) the inverter chassis. Must be earthed (grounded).
Turn on the DI0 signal to start forward Input resistance: 4.7 kΩ,
DI0 Forward rotation start When the DI0 and DI1 signals are voltage when contacts are open:
rotation and turn it off to stop.
turned on simultaneously, the stop 21 to 26 VDC,
Turn on the DI1 signal to start reverse current when contacts are
DI1 Reverse rotation start command is given.
rotation and turn it off to stop. short-circuited: 4 to 6 mADC
Contact input common
Common terminal for contact input terminal (sink logic).
(sink)
External transistor Connect this terminal to the power supply common terminal of a transistor output (open collector output) device,
SD
Contact input

common (source) such as a programmable controller, in the source logic to avoid malfunction by undesirable current.
24 VDC power supply
Common output terminal for 24 VDC 0.1 A power supply (PC terminal). Isolated from terminals 5 and SE.
common
External transistor Connect this terminal to the power supply common terminal of a transistor
output (open collector output) device, such as a programmable controller,
common (sink) in the sink logic to avoid malfunction by undesirable current.
Safety stop input terminal Power supply voltage range:
PC Common terminal for safety stop input terminals. 22 to 26.5 VDC,
common
permissible load current: 100 mA
input signal

Contact input common

Common terminal for the contact input terminal (source logic).
(source)
24 VDC power supply Can be used as 24 VDC 0.1 A power supply.

6
Frequency setting power Used as power supply when connecting potentiometer for frequency 5 VDC ± 0.5 V
10
supply setting (speed setting) from outside of the inverter. permissible load current 10 mA
Inputting 0 to 5 VDC (or 0 to 10 V) provides the maximum output frequency at 5
Frequency setting V (10 V) and makes input and output proportional.

Terminal Connection Diagram, Terminal Specifications

2 Use Pr. 73 to switch between input 0 to 5 VDC (initial setting) and 0 to 10 VDC Voltage input:
(voltage) input (The initial setting varies depending on the specification). Set the voltage/ Input resistance 10 kΩ ± 1 kΩ
Frequency setting

current input switch to the "I" position to select current input (0 to 20 mA). Permissible maximum voltage
Inputting 0 to 20 mADC (or 0 to 5 V / 0 to 10 V) provides the maximum output 20 VDC
frequency at 20 mA makes input and output proportional. This input signal is
Current input:
valid only when the AU signal is on (terminal 2 input is invalid). To use terminal
Frequency setting 4 (initial setting is current input), set "4" to any of Pr.178, Pr.179 (input terminal Input resistance 245 Ω ± 5 Ω
4
(current) function selection), and turn AU signal ON (The initial setting varies depending Maximum permissible current
on the specification). Use Pr. 267 to switch from among input 4 to 20 mA 30 mA.
(initial setting), 0 to 5 VDC and 0 to 10 VDC. Set the voltage/current input
switch in the "V" position to select voltage input (0 to 5 V / 0 to 10 V).
Frequency setting
5 Common terminal for the frequency setting signals (terminals 2 or 4). Do not earth (ground).
common
output signal

1 changeover contact output indicates that the inverter fault occurs. Contact capacity 240 VAC 2 A
Relay

A, B, C Relay output (fault output) Fault: discontinuity across B-C (continuity across A-C),
Normal: continuity across B-C (discontinuity across A-C) (power factor = 0.4) 30 VDC 1 A

Safety stop input Terminals S1 and S2 are used for the safety stop input signal for the safety Input resistance 4.7 kΩ
S1 relay module. Terminals S1 and S2 are used at the same time (dual
(Channel 1) Voltage when contacts are open
channel). Inverter output is shutoff by shortening/opening between 21 to 26 VDC
terminals S1 and SIC, or between S2 and SIC. In the initial status,
Safety stop input (with 24 terminals S1 and S2 are shorted with terminal PC by shorting wires. Current when contacts are
S2
VDC input) (Channel 2) Terminal SIC is shorted with terminal SD. Remove the shorting wires and short-circuited
Safety stop signal

connect the safety relay module when using the safety stop function. 4 to 6 mADC
Indicates the safety stop input signal status.
Switched to LOW when the status is other than the internal safety circuit Permissible load
failure. Switched to HIGH during the internal safety circuit failure status. 24 VDC (maximum 27 VDC)
Safety monitor output (LOW is when the open collector output transistor is ON (conducted).
SO 0.1 A
(open collector output) HIGH is when the transistor is OFF (not conducted).) Refer to the FR-
E800 Instruction Manual (Functional Safety) (BCN-A23488-000) when the (The voltage drop is 3.4 V at
signal is switched to HIGH while both terminals S1 and S2 are open. maximum while the signal is ON.)
(Please contact your sales representative for the manual.)
Safety monitor output
SOC Common terminal for terminal SO. ―――
terminal common
Communication can be made via Ethernet.
· Category: 100BASE-TX/10BASE-T
· Data transmission speed: 100 Mbps (100BASE-TX) / 10 Mbps (10BASE-T)
Ethernet connector
Communication

· Transmission method: Baseband

―
(2-port)  · Maximum segment length: 100m between the hub and the inverter
· Number of cascade connection stages: Up to 2 (100BASE-TX) / up to 4 (10BASE-T)
· Interface: RJ-45 · Number of interfaces available: 2
· IP version: IPv4
USB connection with a personal computer can be established. Setting, monitoring and testing of the inverter
can be performed using FR Configurator2.
― USB connector 
· Interface: conforms to USB 1.1 · Transmission Speed: 12 Mbps
· Connector: USB mini B connector (receptacle mini B type)
 Terminal functions can be selected using Pr.178, Pr.179 (Input terminal function selection).
 Do not connect the parameter unit. The inverter may be damaged.
 USB bus power connection is available. The maximum SCCR should be 500 mA.

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Example Connections

(b) Three-phase AC power supply

(c) Molded case circuit breaker (a) Inverter (m) USB power supply
(MCCB) or earth leakage
current breaker (ELB), fuse

Personal computer
(FR Configurator2)

(d) Magnetic contactor (MC)

(e) AC reactor (f) DC reactor

(FR-HAL) (FR-HEL) (n) Brake resistor (FR-ABR, MRS, MYS)

P/+
PR

IM connection PM connection
U VW U VW
R/L1 S/L2 T/L3
P/+ P1 P/+ N/-

(g) Noise filter (o) Noise filter

Earth (ferrite core)
7
(FR-BSF01,
(Ground) (FR-BSF01, FR-BLF)
FR-BLF)
Example Connections

(q) Contactor
Example) No-fuse switch
(DSN type)

(k) Brake unit

(FR-BU2, FR-BU)

(p) Induction Earth (r) PM motor

motor (Ground)

P/+ PR
P/+
PR

(h) High power factor (l) Resistor unit (FR-BR),

converter Discharging resistor
(FR-HC2) (GZG, GRZG) Earth (Ground)

(i) Multifunction regeneration

converter (FR-XC)
(j) Power regeneration
common converter (FR-CV)

64
 Symbol Name Overview
The life of the inverter is influenced by the surrounding air temperature.
The surrounding air temperature should be as low as possible within the
permissible range. This must be noted especially when the inverter is installed
(a) Inverter (FR-E800)
in an enclosure.
Incorrect wiring may lead to damage of the inverter. The control signal lines
must be kept fully away from the main circuit lines to protect them from noise.
(b) Three-phase AC power supply Must be within the permissible power supply specifications of the inverter.
Molded case circuit breaker (MCCB), earth Must be selected carefully since an inrush current flows in the inverter at power
(c)
leakage circuit breaker (ELB), or fuse ON.
Install this to ensure safety.
(d) Magnetic contactor (MC) Do not use this to start and stop the inverter. Doing so will shorten the life of the
inverter.
Install this to suppress harmonics and to improve the power factor.
An AC reactor (FR-HAL) (option) is required when installing the inverter near a
(e) AC reactor (FR-HAL) large power supply system (500 kVA or more). Under such condition, the
inverter may be damaged if you do not use a reactor.
Select a reactor according to the applied motor capacity.
Install this to suppress harmonics and to improve the power factor.
Select a reactor according to the applied motor capacity.
(f) DC reactor (FR-HEL)
When using a DC reactor, remove the jumper across terminals P/+ and P1
before connecting a DC reactor to the inverter.
(g) Noise filter (FR-BLF) Install this to reduce the electromagnetic noise generated from the inverter.
(h) High power factor converter (FR-HC2) Suppresses the power supply harmonics significantly. Install this as required.
(i) Multifunction regeneration converter (FR-XC)
Power regeneration common converter (FR- Provides a large braking capability. Install this as required.
(j)
CV)
(k) Brake unit (FR-BU2)
Allows the inverter to provide the optimal regenerative braking capability. Install
Resistor unit (FR-BR), discharge resistor
(l) this as required.
(GZG, GRZG)
Connect between the inverter and a personal computer with a USB (ver. 1.1)
(m) USB connection
cable.
(n) Brake resistor (FR-ABR, MRS, MYS) Increases the braking capability. (0.4K or higher)

(o)
Install this to reduce the electromagnetic noise generated from the inverter. The
Noise filter (ferrite core) (FR-BSF01, FR-BLF) noise filter is effective in the range from about 0.5 to 5 MHz. A wire should be
7
wound four turns at maximum.

Example Connections
(p) Induction motor Connect a squirrel-cage induction motor.
Connect this for an application where a PM motor is driven by the load even
Example)
(q) while the inverter power is OFF. Do not open or close the contactor while the
No-fuse switch (DSN type)
inverter is running (outputting).
(r) PM motor An IPM motor cannot be driven by the commercial power supply.

NOTE
• To prevent an electric shock, always earth (ground) the motor and inverter.
• Do not install a power factor correction capacitor, surge suppressor, or capacitor type filter on the inverter's output side. Doing so will cause the
inverter shut off or damage the capacitor or surge suppressor. If any of the above devices is connected, immediately remove it. When installing
a molded case circuit breaker on the output side of the inverter, contact the manufacturer of the molded case circuit breaker.
• Electromagnetic wave interference:
The input/output (main circuit) of the inverter includes high frequency components, which may interfere with the communication devices (such
as AM radios) used near the inverter. Install the EMC filter to minimize interference.
• For details of options and peripheral devices, refer to the respective Instruction Manual.
• A PM motor cannot be driven by the commercial power supply.
• A PM motor is a motor with permanent magnets embedded inside. High voltage is generated at the motor terminals while the motor is running.
Before closing the contactor at the output side, make sure that the inverter power is ON and the motor is stopped.

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Options

 Option List
By fitting the following options to the inverter, the inverter is provided with more functions.

Applicable Inverter
Name Type Applications E800- E800- Remarks
E800
E SCE
Vector control can be performed for encoder-equipped
Vector control motors (induction motors).
Orientation control FR-A8AP E kit The main spindle can be stopped at a specified position ○ ○ ○
Encoder feedback control (orientation) in combination with an encoder. The motor
speed is sent back and the speed is maintained constant.
This input interface sets the high frequency accuracy of the
inverter using an external BCD or binary digital signal.
· BCD code 3 digits (maximum 999)
16-bit digital input FR-A8AX E kit ● ● ○
· BCD code 4 digits (maximum 9999)
Plug-in Type

· Binary 12 bits (maximum FFFH)

· Binary 16 bits (maximum FFFFH) Shared among all
This option provides the inverter with open collector models
outputs selected from among the standard output signals.
Digital output
FR-A8AY E kit This option adds 2 different signals that can be monitored ● ● ○
Extension analog output
such as the output frequency and output voltage.
20mADC or 10VDC meter can be connected.
Output any three output signals available with the inverter
Relay output FR-A8AR E kit ● ● ○
as standard from the relay contact terminals.
CC-Link communication FR-A8NC E kit ● ● ○
This option allows the inverter to be operated or monitored
DeviceNet communication FR-A8ND E kit ○ ○ ○
or the parameter setting to be changed from a computer or
PROFIBUS-DP programmable controller.
FR-A8NP E kit ○ ○ ○
communication
Liquid crystal display
FR-LU08 (-01) Graphical operation panel with liquid crystal display ○ - -
operation panel
Parameter unit FR-PU07 Interactive parameter unit with LCD display ○ - -
Parameter unit with battery This parameter unit enables parameter setting without
FR-PU07BB (-L) ○ - -
pack connecting the inverter to power supply.
Enclosure surface This operation panel enables inverter operation and
FR-PA07 ● - -
8 operation panel
Parameter unit connection
monitoring of frequency, etc. from the enclosure surface
Cable for connection of operation panel or parameter unit Shared among all
FR-CB20[] ● - -
cable [] indicates a cable length. (1m, 3m, 5m) models
Options

Encoder cable Connection cable for the inverter and encoder for
Mitsubishi Electric vector Mitsubishi Electric vector control dedicated motor (SF-
FR-V7CBL[] ○ ○ ○
control dedicated motor V5RU).
(SFV5RU) [] indicates a cable length. (5m, 15m, 30m)
Personal computer
MR-J3USBCBL3M Amplifier connector connector
USB cable A connector ● ● ○
Cable length: 3 m Mini B connector (5-pin)

3.7K or lower.
Intercompatibility FR-E7AT For installation of a FR-E800 series inverter to the The option's model
● ● ○
Stand-alone type

attachment 01/02/03 installation holes of FR-A024/A044 series inverter. varies with the
inverter's model.
Intercompatibility For installation of a FR-E700/E800 inverter to the
FR-E8AT03 ● ● ○ 3.7K
attachment installation holes of FR-A024/A044/E700 inverter.
3.7K or lower.
FR-UDA The option's model
DIN rail attachment Attachment for installation on DIN rail ○ ○ ○
01 to 03 varies with the
inverter's model.
Using this attachment dissipates the inverter's heat by
FR-E8CN
Panel through attachment having the inverter heatsink protrude from the back side of ○ ○ ○
01 to 06
the enclosure.
Totally enclosed structure Installing the attachment to the inverter changes the
FR-E8CV
specification attachment protective structure of the inverter to the totally enclosed ○ ○ ○
01 to 04
(IP40) structure (IP40 equivalent as specified by JEM1030). All capacities.
AC reactor FR-HAL For harmonic current reduction and inverter input power ● ● ○ The option's model
DC reactor FR-HEL factor improvement ● ● ○ varies with the
SF, inverter's model.
EMC Directive compliant
FR-E5NF, EMC Directive (EN 61800-3 C3) compliant noise filter ● ● ○
noise filter
FR-S5NFSA
FR-A5AT03
EMC compliant EMC filter For installation of the inverter to the EMC Directive
FR-AAT02 ● ● ○
installation attachment compliant EMC filter (SF).
FR-E5T(-02)
Radio noise filter FR-BIF(H) For radio noise reduction (connect to the input side) ● ● ○
FR-BSF01, All capacities.
Line noise filter For line noise reduction ● ● ○
FR-BLF
●: Supported ○: To be supported soon -: Not supported

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Applicable Inverter
Name Type Applications E800- E800- Remarks
E800
E SCE
0.4K or higher of
the three-phase
Combination of power factor improving DC reactor, power input model.
Filterpack FR-BFP2 ○ ○ ○
common mode choke, and capacitative filter The option's model
varies with the
inverter's model.
For increasing the regenerative braking capability
Brake resistor MRS type, MYS type ● ● ○
(permissible duty 3%ED)
For increasing the regenerative braking capability 0.4K or higher.
High-duty brake resistor FR-ABR ● ● ○
(permissible duty 10%/6%ED) The option's model
For increasing the braking capability of the inverter (for varies with the
Brake unit, Resistor unit, FR-BU2, FR-BR, high-inertia load or negative load) inverter's model.
● ● ○
Stand-alone type

Discharging resistor GZG, GRZG type Brake unit, electrical-discharge resistor and resistor unit
are used in combination
One inverter can handle harmonic suppression and power
Multifunction regeneration
FR-XC regeneration.
converter
FR-XCL Functions that match the application can be selected by ● ● -
Dedicated stand-alone reactor
FR-XCB combining the inverter/converter with the dedicated reactor
Dedicated box-type reactor According to
FR-XCB (box-type) or FR-XCL.
capacities
The high power factor converter switches the converter
High power factor section on/off to reshape an input current waveform into a
FR-HC2 ● ● -
converter sine wave, greatly suppressing harmonics. (Used in
combination with the standard accessory.)
400V:
According to
capacities
Surge voltage suppression FR-ASF
Filter for suppressing surge voltage on motor ● ● ○ 400V:
filter FR-BMF
5.5K or higher
According to
capacities
For tracking operation. 70 V / 35 VAC 500 Hz (at 2500 r/
Pilot generator QVAH-10 ● ● ○
min)
For continuous speed control operation (mechanical
Deviation sensor YVGC-500WNS ● ● ○
8
deviation detection) Output 90VAC /90°
Analog frequency meter Dedicated frequency meter (graduated to 130 Hz).
YM-206NRI 1mA ● - -
Others

(64mm × 60mm) Moving-coil type DC ammeter Shared among all

Options
For frequency meter calibration. models
Calibration resistor RV24YN 10kΩ ● ● ○
Carbon film type B characteristic
FR Configurator2
SW1DND-FRC2 Supports an inverter startup to maintenance. ● ● ○
(Inverter setup software)
FR Configurator Mobile The app enables operation of inverters using smart phones
- ○ ○ ○
(Mobile App for Inverters) or tablets.
●: Supported ○: To be supported soon -: Not supported

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 Stand-alone option
Name (model) Specification and structure
This operation panel can be mounted to an enclosure surface to enable inverter operation and monitoring of frequency, etc.
(This product does not have the parameter copy function.)
• Outline dimension (Unit: mm)
22
68
22

Enclosure surface
operation panel
FR-PA07

59
2-M3 screw

This cable is for connection of operation panel or parameter unit

• Specifications

Parameter unit Model Length

connection cable
FR-CB20[] FR-CB201 1m
FR-CB203 3m
FR-CB205 5m

USB cable for communication with the inverter using the USB port of the PC.
FR Configurator2
Mini-B connector

USB cable
MR-J3USBCBL3M

8 Computer USB cable Inverter

Options

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Name (model) Specification and structure

Intercompatibility attachment
This attachment is used to install the FR-E700/FR-E800 series inverter using the installation holes of the FR-
A024/FR-A044/FRE700 series inverter.(The depth increases after installation of the inverter when the attachment
is used.)
• Replacing the FR-A024/FR-A044 inverter with the FR-E820/FR-E840 inverter
Compatible Former Model Mountable Model Intercompatibility Attachment
0008 (0.1K) to
0.1K to 0.75K FR-E7AT01
0050 (0.75K)
FR-A024 1.5K FR-E820 0080 (1.5K) FR-E7AT02
0110 (2.2K),
2.2K, 3.7K FR-E7AT03
0175 (3.7K)
0016 (0.4K),
0.4K, 0.75K FR-E7AT02
0026 (0.75K)
FR-A044 FR-E840
0040 (1.5K) to
1.5K to 3.7K FR-E7AT03
0095 (3.7K)
• Replacing the FR-E740 inverter with the FR-E840 inverter
Compatible Former Model Mountable Model Intercompatibility Attachment
0016 (0.4K) to
0.4K to 1.5K FR-E7AT02
0040 (1.5K)
FR-E740 FR-E840
0060 (2.2K),
2.2K, 3.7K ―
0095 (3.7K)
―: The attachment is not required.
To replace the FR-E720 inverter with the FR-E820 inverter, use the FR-E8AT03

• Outline dimension (Unit: mm)

• FR-E7AT01 • FR-E7AT02
z FR-E7AT01 z FR-E7AT02 2- 5 hole

5.5
2- 5 hole
5.5

Intercompatibility
attachment
FR-E7AT01/02/03

8
138

149
138
149

Options
5 12
5.5

5.5 128
5.5

5 12 139 (Unit: mm)

5.5 93
104 (Unit: mm)

• FR-E7AT03
z FR-E7AT03
5.5

2- 5 hole

 
138
149

 
5 12
5.5

5.5 188

199 (Unit: mm)

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Name (model) Specification and structure

Intercompatibility attachment
This attachment is used to install the FR-E800 series inverter using the installation holes of the FR-E700 series
inverter.(The depth increases after installation of the inverter when the attachment is used.)
• Replacing the FR-E720 inverter with the FR-E820 inverter
Compatible former model Mountable model Intercompatibility attachment
0.1K (0008) to
0.1K to 2.2K —
FR-E720 FR-E820 2.2K (0110)
3.7K 3.7K (0175) FR-E8AT03
—: The attachment is not required.
To replace the FR-E740 inverter with the FR-E840 inverter, use the FR-E7AT02.

• Outline dimension (Unit: mm)

• FR-E8AT03

5.5
Intercompatibility 2- 5 hole
attachment
FR-E8AT03

118
129

5
5.5

5.5 158
169

Improves the power factor and reduces the harmonic current at the input side. Connect an AC reactor at the input side of the
inverter.
• Selection method
Select an AC reactor according to the applied motor capacity. (Select the AC reactor according to the motor capacity even
8 if the capacity is smaller than the inverter capacity.)
• Connection diagram
FR-HAL Inverter
Options

R X
R/L1 U Motor
Three-phase AC S Y
S/L2 V M
power supply
T Z
T/L3 W

• Outline dimension (Unit: mm)

AC reactor Mass
Mass Model W W1 H D D1 d
(for power supply Model W W1 H D D1 d (kg)
coordination) (kg)
FR-HAL H0.4K 135 120 115 64 45 M4 1.5
0.4K 104 84 99 72 40 M5 0.6
H0.75K 135 120 115 64 45 M4 1.5
0.75K 104 84 99 74 44 M5 0.8
H1.5K 135 120 115 64 45 M4 1.5
1.5K 104 84 99 77 50 M5 1.1
H2.2K 135 120 115 64 45 M4 1.5
2.2K 115 40 115 77 57 M6 1.5
400V

H3.7K 135 120 115 74 57 M4 2.5

200V

3.7K 115 40 115 83 67 M6 2.2

H5.5K 160 145 142 76 55 M4 3.5
5.5K 115 40 115 83 67 M6 2.3
H7.5K 160 145 142 96 75 M4 5.0
7.5K 130 50 135 100 86 M6 4.2
H11K 160 145 146 96 75 M4 6.0
11K 160 75 164 111 92 M6 5.2
H15K 220 200 195 105 70 M5 9.0
15K 160 75 167 126 107 M6 7.0

(a) Approximately 88% of the power factor improving effect can be obtained (92.3% when calculated
Less than D
with 1 power factor for the fundamental wave according to the Architectural Standard
Specifications (Electrical Installation) (2013 revision) supervised by the Ministry of Land,
Infrastructure, Transport and Tourism of Japan). H
(b) This is a sample outline dimension drawing. The shape differs by the model.
W1 and D1 indicate distances between installation holes. The installation hole size is indicated by
d.
(c) When installing an AC reactor (FR-HAL), install in the orientation shown below.
(H)55K or lower: Horizontal installation or vertical installation
D1 W1
(H)75K or higher: Horizontal installation
W
(d) Keep enough clearance around the reactor because it heats up.
(Keep a clearance of minimum 10cm each on top and bottom and minimum 5cm each on right and
left regardless of the installation orientation.)

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Name (model) Specification and structure

Improves the power factor and reduces the harmonic current at the input side.
Selection method
Select a DC reactor according to the applied motor capacity. (Select it according to the motor capacity even if the capacity
is smaller than the inverter capacity.) (Refer to )
• Connection diagram FR-HEL
Connect a DC reactor to the inverter terminals P1
and P. Remove the jumper across terminals P1 Remove a jumper
P1 P

across terminals P1-P.

and P. If the jumper is left attached, no power The connection cable should be
5m maximum.
factor improvement can be obtained.
The connection cable between the reactor and P1 P/+ N/-
the inverter should be as short as possible (5m or U
Motor
R/L1
Three-phase
less). AC power supply S/L2 V M
T/L3 W

Inverter
• Outline dimension (Unit: mm)
Less than D Less than D

H
H W
DC reactor
(for power supply W1 D1
coordination) W W1
FR-HEL-(H)[]K FR-HEL-3.7K to 55K
FR-HEL-0.4K to 2.2K
FR-HEL-H0.75K to H55K
FR-HEL-H0.4K

Mass
Mass Model W W1 H D D1 d
Model W W1 H D D1 d (kg)
(kg)
H0.4K 90 75 78 60 ― M5 0.6
0.4K 70 60 71 61 ― M4 0.4
H0.75K 66 50 100 70 48 M4 0.8
0.75K 85 74 81 61 ― M4 0.5
H1.5K 66 50 100 80 54 M4 1
1.5K 85 74 81 70 ― M4 0.8
H2.2K 76 50 110 80 54 M4 1.3
2.2K 85 74 81 70 ― M4 0.9
400V

H3.7K 86 55 120 95 69 M4 2.3

200V

3.7K 77 55 92 82 57 M4 1.5
H5.5K 96 60 128 100 75 M5 3
5.5K 77 55 92 92 67 M4 1.9
H7.5K 96 60 128 105 80 M5 3.5
7.5K 86 60 113 98 72 M4 2.5
H11K 105 75 137 110 85 M5 4.5
11K
15K
105
105
64
64
133
133
112
115
79
84
M6
M6
3.3
4.1
H15K 105 75 152 125 95 M5 5 8

Options
(a) The size of the cables used should be equal to or larger than that of the power supply cables (R/L1, S/L2, T/L3). (Refer to
)
(b) Approximately 93% of the power factor improving effect can be obtained (94.4% when calculated with 1 power factor for the
fundamental wave according to the Architectural Standard Specifications (Electrical Installation) (2010 revision) supervised by
the Ministry of Land, Infrastructure, Transport and Tourism of Japan).
(c) This is a sample outline dimension drawing. The shape differs by the model.
W1 and D1 indicate distances between installation holes. The installation hole size is indicated by d.
(d) When installing a DC reactor (FR-HEL), install in the orientation shown below.
(H)55K or lower: Horizontal installation or vertical installation
(H)75K or higher: Horizontal installation
(e) Keep enough clearance around the reactor because it heats up.
(Keep a clearance of minimum 10cm each on top and bottom and minimum 5cm each on right and left regardless of the
installation orientation.)

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Name (model) Specification and structure

• The EMC compliant EMC filter (EN61800-3 2nd Environment Category C3) is a filter compliant with the EU EMC Directive
(EN61800-3 2nd Environment Category C3).

H
W D

Outline dimension
EMC filter Applicable inverter Intercompatibility Mass Leakage current (mA) Loss
(Unit: mm)
Model model attachment  (kg)  (reference value) (W)
W H D
FR-E820-0.1K to
SF1306 1.5K - 110 200 36.5 0.7 10 7.3
FR-E820-2.2K FR-E5T
SF1309 FR-E8AT03 200 282 57 2.1 15 15
FR-E820-3.7K
FR-E5T
FR-E5NF-
H0.75K FR-E840-0.4K, 0.75K FR-E7AT02 140 210 46 1.1 22.6 5.5

FR-E5NF- FR-E840-1.5K FR-E7AT02

140 210 46 1.2 44.5 8
EMC Directive H3.7K FR-E840-2.2K, 3.7K -
compliant EMC filter FR-E5NF-
SF, FR-E5NF H7.5K FR-E840-5.5K, 7.5K - 220 210 47 2 68.4 15

EMC compliant EMC

filter
installation attachment
FR-E5T(-02)

8
H
Options

W D
D1
Outline dimension
EMC filter Applicable inverter Intercompatibility Mass Leakage current (mA) Loss
(Unit: mm)
Model model attachment  (kg)  (reference value) (W)
W H D D1
SF1260 FR-E820-5.5K, 7.5K FR-E5T-02 222 468 80 39 5 440 118
 Depth is 12mm deeper when an intercompatibility attachment is installed.
 Leakage current for one phase of three-phase three-wire star-connection power supply. Leakage current for all phases of three-phase
three-wire delta-connection power supply is three times greater than the indicated value.
This is a sample outline dimension drawing. The shape differs by the model.

• Countermeasures for leakage current

Take the following actions to prevent malfunction of peripheral devices or an electric shock caused by leakage current.
(a) Earth (ground) the EMC filter before connecting the power supply. When doing so, confirm that earthing (grounding) is
securely performed through the earthing (grounding) part of the enclosure.
(b) Select an appropriate earth leakage circuit breaker or an earth leakage relay by considering leakage current of the EMC
filter. Note that earth leakage circuit breaker may not be used in some cases such as when leakage current of the EMC filter
is too large. In that case, use an earth leakage relay with high sensitivity. When both of earth leakage circuit breaker and
earth leakage relay cannot be used, securely earth (ground) as explained in (a).

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Name (model) Specification and structure

• Outline dimension
RST <Three-phase power supply>
Red White Blue Green Inverter
MCCB
Leakage currents: 4mA R/L1
300 Power S/L2
supply T/L3
29 φ4.3 hole

41
Earth (Ground)

4
Radio noise filter
58 29 7 FR-BIF(-H)
44 (Unit: mm)
(a) Cannot be connected to the inverter output side.
(b) The wire should be cut as short as possible, and connected to the inverter terminal block.
Install an EMC filter (ferrite core) to reduce the electromagnetic noise generated from the inverter. Effective in the range from
about 0.5 MHz to 5 MHz. range from about 0.5 MHz to 5 MHz.
• Outline dimension (Unit: mm)
FR-BSF01 FR-BLF

Line noise filter

FR-BSF01,
FR-BLF

(a) Wind each phase for three times (4T) in the same direction. (The greater the
MCCB Inverter
number of turns, the more effective result is obtained.)
When using several line noise filters to make 4T or more, wind the phases (cables) Power R/L1
together. Do not use a different line noise filter for different phases. supply S/L2
(b) When the cables are too thick to be winded, run each cable (phase) through four or Line noise T/L3
more filters installed in series in one direction. filter
(c) The filter can be used in the same way as the output side. When using filters at the
output side, do not wind the cable more than 3 times (4T) for each filter because the filter may overheat.
8
(d) A thick cable of 38 mm2 or more is not applicable to the FR-BSF01. Use FR-BLF for a larger diameter cable.

Options
(e) Do not wind the earthing (grounding) cable.

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Name (model) Specification and structure

• Using the option, the inverter may conform to the Japanese guideline for reduction of harmonic emission.
• The option is available for three-phase 200V/400V class inverters with 0.4K to 15K capacity.

• Specification
• Three-phase 200V pow input model
Model FR-BFP2-[]K 0.4 0.75 1.5 2.2 3.7 5.5 7.5 11 15
Permissible inverter output
current (A)  2.5 4.2 7 10 16.5 23.8 31.8 45 58
Approximate mass (kg) 1.3 1.4 2.0 2.2 2.8 3.8 4.5 6.7 7.0
Install a DC reactor on the DC side.
Power factor improving reactor
93% to 95% of power supply power factor under 100% load (94.4% )
Common mode Install a ferrite core on the input side.
Noise filter choke
Capacitive filter About 4mA of capacitor leakage current 
Protective structure (JEM1030) Open type (IP00)
• Three-phase 400V power input mode
Model FR-BFP2-H[]K 0.4 0.75 1.5 2.2 3.7 5.5 7.5 11 15
Permissible inverter output
current (A)  1.2 2.2 3.7 5 8.1 12 16.3 23 29.5
Approximate mass (kg) 1.6 1.7 1.9 2.3 2.6 4.5 5.0 7.0 8.2
Install a DC reactor on the DC side.
Power factor improving reactor
93% to 95% of power supply power factor under 100% load (94.4% )
Common Install a ferrite core on the input side.
mode choke
Noise filter
Capacitive
filter About 8mA of capacitor leakage current 
Protective structure (JEM1030) Open type (IP00)
 Select a capacity for the load (inverter output) current to be equal to or less than the permissible inverter output current.
 The indicated leakage current is for one phase of the three-phase three-wire star-connection power supply.
 The values in parentheses are calculated with 1 fundamental frequency power factor according to the Year 2013 Standard
specification for public constructions (electric installation works), published by the Ministry of Land, Infrastructure, Transport and
Tourism in Japan.

• Outline dimension (Unit: mm)

<FR-BFP2-0.4K, 0.75K, 1.5K, 2.2K, 3.7K> <FR-BFP2-5.5K, 7.5K, 11K, 15K>
8 <FR-BFP2-H0.4K, H0.75K, H1.5K, H2.2K, H3.7K>
2-φ4.5 hole 2-φ4.5 hole
<FR-BFP2-H5.5K, H7.5K, H11K, H15K>
2-fC hole 2-fC hole
H2
H2
5
5
Options

H1

H1
H
H1

Rating
Rating plate
H1

plate
H

H2
H2

C1 C1
12.5 D1 12.5 25 145 25
D (25) 195
220
L-bracket for inverter
back installation
(Enclosed with the option)

5
5

4.5 4.5
D2 D1 D2 W2 W1 W2
D W

Capacity H H1 H2 D D1 C C1 C2
5.5K, 7.5K 210 198 6 75 50 4.5 4.5 5.3
Capacity W W1 W2 H H1 D D1 D2
200V

11K 320 305 7.5 85 60 6 6 5.3

0.4K, 0.75K 68 30 19 218 208 60 30 15
15K 320 305 7.5 85 60 6 6 6.4
200V

1.5K, 2.2K 108 55 26.5 188 178 80 55 12.5

H5.5K, H7.5K 210 198 6 75 50 4.5 4.5 4.3
3.7K 170 120 25 188 178 65 40 12.5
400V

H11K 320 305 7.5 85 60 6 6 4.3

H0.4K, H0.75K 108 55 26.5 188 178 55 30 12.5
400V

H15K 320 305 7.5 85 60 6 6 6.4

H1.5K, H2.2K,
H3.7K 108 55 26.5 188 178 80 55 12.5  L-bracket is not attached when shipped from the factory but is
enclosed with the option. L-bracket is required to install the
 The 400V class H0.4K and H0.75K have no slit. option to the back of inverter.
(a) Above outline dimension drawings are examples. Dimensions differ by model.

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Name (model) Specification and structure

• Outline dimension

• MRS type • MYS type

500 182 500 230
172 220
Round
Round

4.3
42
crimp

4.3
60
terminals crimp
φ4.3 hole terminals
1.25-4
1.25-4

20
20
1.2

3.5
(Unit : mm) (Unit : mm)

Resistance Permissible Applicable

Control torque /
Brake resistor Resistor Model Value Power Motor Capacity
MRS type, MYS type permissible duty
() (W) (kW)
MRS120W200 200 15 0.4
MRS120W100 150% torque 3%ED 100 30 0.75
MRS 1.5
2 MRS120W60 60 55
0 type 100% torque 3%ED 2.2
0 150% torque 3%ED 2.2
V MRS120W40 40 80
100% torque 3%ED 3.7
MYS 150% torque 3%ED
MYS220W50  50/2 2×80 3.7
type 100% torque 6%ED
 Two unit in parallel

(a) The temperature of the brake resistor becomes 200oC or more depending on the operation frequency, care must be taken for
installation and heat dissipation.
(b) The brake resistor cannot be used with the 0.1K and 0.2K.
(c) Do not remove a jumper across terminal P/+ and P1 except when connecting a DC reactor.

Options

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Name (model) Specification and structure

• Outline dimension (Unit: mm)

Permissible Outline Dimension Resistance Approx.

Brake Resistor
Brake Value Mass
Model W W1 D H
Duty () (kg)
FR-ABR-0.4K 10% 140 500 40 21 200 0.2
FR-ABR-0.75K 10% 215 500 40 21 100 0.4
10%
FR-ABR-2.2K 240 500 50 26 60 0.5
2 10%
0 FR-ABR-3.7K 10% 215 500 61 33 40 0.8
0
V FR-ABR-5.5K 10% 335 500 61 33 25 1.3
FR-ABR-7.5K 10% 400 500 80 40 20 2.2
FR-ABR-11K 6% 400 700 100 50 13 3.5
FR-ABR-15K  6% 300 700 100 50 18(×1/2) 2.4(×2)

Permissible Outline Dimension Resistance Approx.

Brake Resistor
Brake Value Mass
Model W W1 D H
High-duty Duty () (kg)
brake resistor FR-ABR-H0.4K 10% 115 500 40 21 1200 0.2
FR-ABR
FR-ABR-H0.75K 10% 140 500 40 21 700 0.2
FR-ABR-H1.5K 10% 215 500 40 21 350 0.4 D
4 H
FR-ABR-H2.2K 10% 240 500 50 26 250 0.5
0 FR-ABR-H3.7K 10% 215 500 61 33 150 0.8
0
V FR-ABR-H5.5K 10% 335 500 61 33 110 1.3 W1+20
0 W
FR-ABR-H7.5K 10% 400 500 80 40 75 2.2
FR-ABR-H11K 6% 400 700 100 50 52 3.2
FR-ABR-H15K  6% 300 700 100 50 18(×2) 2.4(×2)
 For the 1.5K and 2.2K inverter.
 For the 15K brake resistor, configure so that two 18resistors are connected in parallel.
 For the 15K brake resistor, configure so that two 18resistors are connected in series. FR-ABR-15K is indicated on the resistor.
(same resistor as the 200V class 15K)

8 (a)
(b)
The regenerative brake duty setting should be less than permissible brake duty in the table above.
The temperature of the brake resistor becomes 300C or more depending on the operation frequency, care must be taken
for installation and heat dissipation.
(c) MYS type resistor can be also used. Note that the permissible brake duty.
Options

(d) The brake resistor cannot be used with the 0.1K and 0.2K.
(e) Do not remove a jumper across terminal P/+ and P1 exceptwhen connecting a DC reactor.

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Name (model) Specification and structure

Provides a braking capability greater than that is provided by an external brake resistor. This option can also be connected to
the inverters without built-in brake transistors. Three types of discharging resistors are available. Make a selection according
to the required braking torque.
• Specification
[Brake unit]

200V 400V
7.5K 15K 30K-[]
1.5K 3.7K 7.5K 15K 30K H7.5K H15K H30K
Applicable motor capacity The applicable capacity differs by the braking torque and the operation rate (%ED).
Connected brake resistor GRZG type, FR-BR, MT-BR5 (For the combination, refer to the table below.)
Max. 10 units (However, the torque is limited by the permissible current of the
Multiple (parallel) driving
connected inverter.)
Approximate mass (kg) 0.9 0.9 0.9 0.9 1.4 0.9 0.9 1.4

[Discharging resistor]
200V 400V
Model: GRZG type
GZG300W- GRZG200- GRZG300- GRZG400- GRZG200- GRZG300- GRZG400-

50Ω (1 unit) 10Ω (3 units) 5Ω (4 units) 2Ω (6 units) 10Ω (3 units) 5Ω (4 units) 2Ω (6 units)
Number of 3 in series 4 in series 6 in series 6 in series 8 in series 12 in series
connectable units 1 unit (1 set) (1 set) (1 set) (2 sets) (2 sets) (2 sets)
Discharging
resistor combined 50 30 20 12 60 40 24
resistance (Ω)
Continuous
operation 100 300 600 1200 600 1200 2400
permissible
power (W)

[Resistor unit]

200 V 400 V
Brake unit Model: FR-BR-[]
FR-BU2 15K 30K 55K H15K
Resistor unit Discharging resistor 8
FR-BR 4 2 32
combined resistance (Ω)
Discharging resistor
GZG type, GRZG type Continuous operation
permissible power (W) 990 1990 3910 990
Approximate mass (kg) 15 30 70 15 8
 The 1 set contains the number of units in the parentheses. For the 400 V class, 2 sets are required.

Options
• Combination between the brake unit and the resistor unit

Discharging resistor model or resistor unit model

GRZG type
Brake unit model
Number of connectable FR-BR
Model 
units
FR-BU2-1.5K GZG 300W-50Ω (1 unit) 1 unit -
FR-BU2-3.7K GRZG 200-10Ω (3 units) 3 in series (1 set) -
200V

FR-BU2-7.5K GRZG 300-5Ω (4 units) 4 in series (1 set) -

FR-BU2-15K GRZG 400-2Ω (6 units) 6 in series (1 set) FR-BR-15K
FR-BU2-30K - - FR-BR-30K
FR-BU2-H7.5K GRZG 200-10Ω (3 units) 6 in series (2 sets) -
400V

FR-BU2-H15K GRZG 300-5Ω (4 units) 8 in series (2 sets) FR-BR-H15K

FR-BU2-H30K GRZG 400-2Ω (6 units) 12 in series (2 sets) FR-BR-H30K
 The 1 set contains the number of units in the parentheses. For the 400 V class, 2 sets are required.

• Selection method
[GRZG type]
The maximum temperature rise of the discharging resistors is about 200°C. Use heat-resistant wires to perform wiring, and
make sure that they will not come in contact with resistors.
Do not touch the discharging resistor while the power is ON or for about 10 minutes after the power supply turns OFF.
Otherwise you may get an electric shock
Power Motor capacity (kW)
Braking
supply
torque 0.4 0.75 1.5 2.2 3.7 5.5 7.5 11 15
voltage
50% 30s FR-BU2-1.5K FR-BU2-3.7K FR-BU2-7.5K FR-BU2-15K
200V
100% 30s FR-BU2-1.5K FR-BU2-3.7K FR-BU2-7.5K FR-BU2-15K 2×FR-BU2-15K 
50% 30s - FR-BU2-H7.5K FR-BU2-H15K
400V 100%%
30s - FR-BU2-H7.5K FR-BU2-H15K FR-BU2-H30K

 The number next to the model name indicates the number of connectable units in parallel.
 The inverter for 400V class 1.5K or lower cannot be used in combination with a brake unit. To use in combination with a brake unit, use
the inverter of 2.2K or higher.

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Name (model) Specification and structure

[FR-BR]
The maximum temperature rise of the resistor unit is about 100°C. Therefore, use heat-resistant wires (such as glass
wires).
%ED at short-time rating when braking torque is 100% Braking torque (%) at 10%ED in short-time rating of 15 s
Motor capacity(kW) Motor capacity(kW)
Model Model
5.5kW 7.5kW 11kW 15kW 5.5kW 7.5kW 11kW 15kW
FR-BU2-15K 80 40 15 10 Braking 280 200 120 100
200V %ED
FR-BU2-30K - - 65 30 200V torque
- - 260 180
FR-BU2- (%)
80 40 15 10
H15K Braking 280 200 120 100
400V %ED
FR-BU2- torque
- - 65 30 400V
H30K (%) - - 260 180

tb
Regeneration duty factor (operation frequency)%ED 100 tb<15s (continuous operation time)
tc
Example 1 Travel operation Example 2 Lift operation
Ascending
Speed

Speed Descending
Time t Time t
tb
tc
t1

tc t2 t3 t4 tb=t1+t2+t3+t4

• Connection diagram
ON OFF
T *3
Brake unit
MC
FR-BU2 MC
Resistor unit or
Resistor unit Inverter discharging resistor
MCCB MC
FR-BR Three-phase Motor
Resistor unit or
R/L1 U P discharging resistor P
Discharging resistor AC power supply
S/L2 V IM PR
GZG type, GRZG type W
PR
T/L3

8 PR A PR A
P/+ P/+ B P/+ B
*2
N/- N/- C C
Options

N/-
*2 *2

RES RES
Reset
BUE *1 BUE *1
Brake permission signal SD SD
MSG MSG
Signal for SD SD
master/slave MSG MSG
SD SD
Brake unit Brake unit
FR-BU2 FR-BU2

When connecting
several brake units

 A jumper is connected across BUE and SD in the initial status.

 Connect the inverter terminals (P/+, N/-) and brake unit (FR-BU2) terminals so that their terminal symbols match with each other.
Incorrect connection will damage the inverter. Do not remove a jumper across terminal P/+ and P1 except when connecting a DC reactor.
 When the power supply is 400V class, install a step-down transformer.

• Outline dimension (Unit: mm)

<FR-BU2L> <GZG,GRZG> <FR-BR>
H
H

W D

W D
Model W H D Model W H D Model W H D
FR-BU2-1.5K to GZG300W 335 78 40 FR-BR-15K 170 450 220
15K 68 128 132.5
GRZG200 306 55 26 FR-BR-30K 340 600 220
FR-BU2-30K 108 128 129.5 GRZG300 334 79 40 FR-BR-H15K 170 450 220
FR-BU2-H7.5K, 68 128 132.5 GRZG400 411 79 40 FR-BR-H30K 340 600 220
H15K
FR-BU2-H30K 108 128 129.5

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Name (model) Specification and structure

One inverter can handle harmonic suppression and power regeneration.
Functions that match the application can be selected by combining the inverter/converter with the dedicated reactor FR-XCB
(boxtype) or FR-XCL
• Combination
<<Combination matrix of FR-XCL and FR-XC(-PWM)>> <<Combination matrix of FR-XCCP and FR-XC(-PWM)>>
Dedicated standalone Multifunction regeneration Multifunction
Converter installation
reactor converter regeneration
attachment for enclosure
FR-XCL-[ ] FR-XC-[ ] FR-XC-[ ]-PWM  converter
7.5K 7.5K - FR-XCCP[ ] FR-XC-[ ]
11K 11K - (H) 7.5K
01
15K 15K - (H) 11K
22K 22K 18.5K 02 (H) 15K
30K 30K 22K (H) 22K
37K 37K 37K (H) 30K
03
55K 55K 55K (H) 18.5K-PWM
H7.5K H7.5K - (H) 22K-PWM
H11K H11K - <<Combination matrix of FR-XCCU and FR-XC(-PWM)>>
H15K H15K - Multifunction
IP20 compatible
H22K H22K H18.5K regeneration
attachment
H30K H30K H22K converter
H37K H37K H37K FR-XCCU[ ] FR-XC-[ ] (-PWM)
H55K H55K H55K 37K
01
<<Combination matrix of FR-XCB and FR-XC(-PWM)>> H55K
Dedicated box-type Multifunction regeneration 02 55K
Multifunction 03 H37K
regeneration converter reactor converter
FR-XC FR-XC-[ ]-  The harmonic suppression function is preenabled in this
Dedicated stand-alone FR-XCB-[ ] FR-XC-[ ] 
PWM model. To use the converter with the FR-XCL, change the
reactor "9999" setting of Pr.416 Control method selection to "0"
FR-XCL 18.5K 22K 18.5K (harmonic suppression disabled).
22K 30K 22K  The harmonic suppression function is not preenabled in this
Dedicated box-type model. To use the converter with the FR-XCB, change the
reactor 37K 37K 37K "9999" setting of Pr.416 Control method selection to "1"
FR-XCB 55K 55K 55K (harmonic suppression enabled).
H18.5K
H22K
H22K
H30K
H18.5K
H22K
8
H37K H37K H37K

Options
H55K H55K H55K

• Specifications
<<200V class>>
Model  FR-XC-[ ]K FR-XC-[ ]K-PWM
Harmonic
7.5 11 15 22 30 37 55 18.5 22 37 55
suppression
Applicable Disabled 7.5 11 15 22 30 37 55 22 30 37 55
Common inverter
bus capacity (kW) Enabled - - - 18.5 22 37 55 18.5 22 37 55
regeneration
mode 100% continuous /150%
Overload current rating 100% continuous /150% 60 s
60 s
Potential regenerative capacity 5.5 7.5 11 18.5 22 30 45 18.5 22 30 45
Power (kW)
regeneration
mode  100% continuous /150%
Overload current rating 100% continuous /150% 60 s
60 s
Three-phase 200 to 240
Rated input AC Disabled Three-phase 200 to 240 V 50 Hz/60 Hz
V 50 Hz/60 Hz
voltage/
frequency Three-phase 200 to 230 Three-phase 200 to 230
Enabled - - -
V 50 Hz/60 Hz  V 50 Hz/60 Hz 
Three-phase 170 to 264
Power Permissible Disabled Three-phase 70 to 264 V 50 Hz/60 Hz
source AC V 50 Hz/60 Hz
voltage Three-phase 170 to 253 Three-phase 170 to 253
fluctuation Enabled - - -
V 50 Hz/60 Hz V 50 Hz/60 Hz
Permissible Disabled ±5% ±5%
frequency
fluctuation Enabled - - - ±5% ±5%
0.99 or more (when load 0.99 or more (when load
Input power factor Enabled - - -
ratio is 100%) ratio is 100%)
Approx. mass (kg)  5 5 6 10.5 10.5 28 38 10.5 10.5 28 38

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Name (model) Specification and structure

<<400V class>>
Model FR-XC-H[ ]K FR-XC-H[ ]K-PWM
Harmonic
7.5 11 15 22 30 37 55 18.5 22 37 55
suppression
Applicable Disabled 7.5 11 15 22 30 37 55 22 30 37 55
Common inverter
bus capacity (kW) Enabled - - - 18.5 22 37 55 18.5 22 37 55
regeneration
mode 100% continuous /150%
Overload current rating 100% continuous /150% 60 s
60 s
Potential regenerative capacity 5.5 7.5 11 18.5 22 30 45 18.5 22 30 45
Power (kW)
regeneration
mode  100% continuous /150%
Overload current rating 100% continuous /150% 60 s
60s
Three-phase 380 to 500
Rated input AC Disabled Three-phase 380 to 500 V 50 Hz/60 Hz
V 50 Hz/60 Hz
voltage/
frequency Three-phase 380 to 480 Three-phase 380 to 480
Enabled - - -
V 50 Hz/60 Hz  V 50 Hz/60 Hz 
Three-phase 323 to 550
Power Permissible Disabled Three-phase 323 to 550 V 50 Hz/60 Hz
source AC V 50 Hz/60 Hz
voltage Three-phase 323 to 506 Three-phase 323 to 506
fluctuation Enabled - - -
V 50 Hz/60 Hz V 50 Hz/60 Hz
Permissible Disabled ±5% ±5%
frequency
fluctuation Enabled - - - ±5% ±5%
0.99 or more (when load 0.99 or more (when load
Input power factor Enabled - - -
ratio is 100%) ratio is 100%)
Approx. mass (kg)  5 5 6 10.5 10.5 28 28 10.5 10.5 28 28
Multifunction
regeneration converter  The harmonic suppression function is not pre-enabled in this model.
FR-XC  The power regeneration mode is selectable when the harmonic suppression function is disabled.
Dedicated stand-alone  The DC bus voltage is approx. 297 VDC at an input voltage of 200 VAC, approx. 327 VDC at 220 VAC, and approx. 342 VDC at 230
reactor VAC.
FR-XCL  The DC bus voltage is approx. 594 VDC at an input voltage of 400 VAC, approx. 653 VDC at 440 VAC, and approx. 713 VDC at 480
VAC.
Dedicated box-type  Mass of the FR-XC alone.

8
reactor
FR-XCB
• Connection diagram
<<Common bus regeneration mode with harmonic suppression enabled>>
Options

Inverter
∗1
R/L1 U
FR-XC S/L2 V
IM
M
T/L3 W
P4 ∗6
FR-XCB ∗3∗8 R1/L11
MCCB MC
Fuse ∗7 R/L1 R2/L12 R2/L12 S1/L21
Junction terminal
Power Fuse ∗7 S/L2 S2/L22 S2/L22 P/+ Fuse P/+
supply Fuse ∗7 T/L3 T2/L32 T2/L32
∗2
N/- Fuse N/-
LOH1 LOH SOURCE
LOH2 RES
SOF SINK
Open collector

SD SD RYA
PC RYB X10(MRS)∗5
FAN1 FAN RSO RES
SE SD
C
B
A Inverter
∗3∗4 R/L1 ∗1
PU
connector R/L1 U
S/L2
S/L2 V
T/L3 IM
M
T/L3 W

R1/L11
S1/L21
Junction terminal
 Never connect the power supply to terminals R/L1, S/L2, and T/L3 Fuse P/+
on the inverter. Incorrect connection will damage the inverter and
∗2
the converter. Fuse N/-
 Connect between the inverter terminal P/+ and the converter
terminal P/+ and between the inverter terminal N/- and the
converter terminal N/- for polarity consistency. Connecting opposite
X10(MRS)∗5
polarity of terminals P/+ and N/- will damage the converter and the RES
SD
inverter.
 Confirm the correct phase sequence of three-phase current to
connect between the reactor and the converter, and between the Inverter
∗1
power supply and the reactor (terminals R/L1, S/L2, and T/ L3). R/L1 U
Incorrect connection will damage the converter. S/L2 V
IM
M
 Always connect between the power supply and terminals R/L1, S/ T/L3 W
L2, and T/L3 of the converter. Operating the inverter without R1/L11
connecting them will damage the converter. Junction terminal
S1/L21

 Assign the X10 signal to any of the input terminals. Fuse P/+
 Do not connect anything to terminal P4.
∗2
 Install the UL listed fuse on the input side of the FR-XCB reactor to Fuse N/-

meet the UL/cUL standards (refer to the Instruction Manual of the

converter for information about the fuse).
 Do not install an MCCB or MC between the reactor and the X10(MRS)∗5
converter. Doing so disrupts proper operation. RES
SD

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Name (model) Specification and structure

<<Power regeneration mode>>
AC reactor Inverter
(FR-HAL) ∗4
MCCB MC
R/L1 U

Power S/L2 V
supply
IM
M
T/L3 W

FR-XC R1/L11
MCCB ∗7
P4 Fuse S1/L21
FR-XCL
∗2 ∗2 ∗9
Fuse ∗8 R/L1 R2/L12 R2/L12 DC reactor
(FR-HEL) ∗5 ∗1
P/+ P/+
Fuse ∗8 S/L2 S2/L22 S2/L22
Fuse ∗8 T/L3 T2/L32 T2/L32
P1

Earth (ground)
N/- ∗1
SOURCE
N/- Fuse
SINK
∗3 R/L1

Open collector
RYA
S/L2 RYB X10(MRS)
∗6 T/L3 RSO RES
SE SD
R1/L11 C
S1/L21 B
A
PU
RES connector
SOF
LOH
SD

 Connect between the inverter terminal P/+ and the converter terminal P4 and between the inverter terminal N/- and the converter
terminal N/- for polarity consistency. Connecting the opposite polarity of terminals P/+ and N/- will damage the converter and the inverter.
 Confirm the correct phase sequence of three-phase current to connect between the reactor and the converter, and between the power
supply and the reactor. Incorrect connection will damage the converter.
 Always connect between the power supply and terminals R/L1, S/L2, and T/L3 of the converter. Operating the inverter without
connecting them will damage the converter. A branch point to each of these terminals must be placed between the power supply and the
FR-HAL reactor.
 Install the FR-HAL reactor between the node points joined to the converter terminals R/L1, S/L2, and T/L3 and the node points joined to
the FR-XCL reactor. For further information, refer to the Instruction Manual.
 To connect a DC reactor, remove a jumper installed across terminals P1 and P/+ before installing the DC reactor.
 To use separate power supply for the control circuit, remove each jumper at terminal R1/L11 and terminal S1/L21.
Multifunction  Refer to the Instruction Manual to select an MCCB.
regeneration converter  Install the UL listed fuse on the input side of the FR-XCL reactor to meet the UL/cUL standards (refer to the Instruction Manual of the
FR-XC converter for information about the fuse).
Dedicated stand-alone  Do not install an MCCB or MC between the reactor and the converter. Doing so disrupts proper operation.
reactor
FR-XCL • Outline dimension (Unit: mm)
This is an example of the outer appearance, which differs depending on the model.
Dedicated box-type
reactor <<Multifunction regeneration converter FR-XC (-PWM)>>
FR-XCB •FR-XC-(H)7.5K, (H)11K, (H)15K
φ6 hole
•FR-XC-(H)22K, (H)30K
•FR-XC-(H)18.5K-PWM, (H)22K-PWM 8
FAN 2-φ6 hole
M5 screw
M5 screw FAN

Options
280

300

360

380

W1
93
W 293

Model W W1 60 100
FR-XC-(H)7.5K, (H)11K 90 45 150 300

FR-XC-(H)15K 120 60

•FR-XC-(H)37K, (H)55K
•FR-XC-(H)37K-PWM, (H)55K-PWM
2-φ10 hole
M8 screw
H1

W1
W D

Model W W1 H H1 D
FR-XC-(H)37K, H55K
FR-XC-(H)37K-PWM, H55K-PWM 325 270 550 530 195
FR-XC-55K
FR-XC-55K-PWM 370 300 620 600 250

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Name (model) Specification and structure

<<Dedicated stand-alone reactor FR-XCL>>
200 V class
Mounting Terminal
Mass
Model W W1 W2 H D D1 screw screw

D1
(kg)
size size
FR-XCL-7.5K 80±2 3.9
165 125 120 M5
W2 Installation hole FR-XCL-11K 73±2 3.6
W1±1.5 55
D max FR-XCL-15K 8 130 100±2 M6 5.5
192 130
FR-XCL-22K 140 110±2 M6 6.3
FR-XCL-30K 240 70 150 160 119±2 10.0
H max FR-XCL-37K 248 200 240 120±5 12.0
10 190 M8 M10
FR-XCL-55K 250 225 260 135±5 15.5
400 V class
Mounting Terminal
W±2.5 Mass
Model W W1 W2 H D D1 screw screw
(kg)
size size
FR-XCL-H7.5K 73±2 3.7
120
FR-XCL-H11K 165 55 125 80±2 M5 4.2
FR-XCL-H15K 8 135 110±2 M6 6.0
FR-XCL-H22K 150 109±2 9.0
240 70 150 M6
Multifunction FR-XCL-H30K 170 129±2 12.0
regeneration converter FR-XCL-H37K 220 200 120±5 12.0
FR-XC 10 190 230 M8 M8
FR-XCL-H55K 250 225 135±5 16.0
Dedicated stand-alone
reactor
FR-XCL <<Dedicated box-type reactor FR-XCB>>
2-φd hole 200 V class(
Dedicated box-type
reactor Screw Mass
Model W W1 H H1 D d
FR-XCB size (kg)
FR-XCB-18.5K
265 200 470 440 275 10 M8 26.0
FR-XCB-22K
H1

FR-XCB-37K 56.9
350 270 600 575 330 12 M10
8 FR-XCB-55K
400 V class
68.5

Screw Mass
Options

Model W W1 H H1 D d
W1 size (kg)
W D
FR-XCB-H18.5K
265 200 470 440 275 10 M8 26.9
FR-XCB-H22K
FR-XCB-H37K 63.0
350 270 600 575 330 12 M10
FR-XCB-H55K 73.0

<<Converter installation enclosure attachment FR-XCCP>>

2-φd hole
H1

Screw
Model W W1 H H1 D d
size
D FR-XCCP01 110 60 115
330 314 6 M5
W1 FR-XCCP02 130 90 120
W FR-XCCP03 160 120 410 396 116 7 M6

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Name (model) Specification and structure

Substantially suppresses power harmonics to obtain the equivalent capacity conversion coefficient K5 = 0 specified in "the
Harmonic Suppression Guidelines for Consumers Who Receive High Voltage or Special High Voltage" in Japan.
The power regeneration function comes standard.
The common converter driving with several inverters is possible.
• Selection method
Select the model according to capacity of the inverter or the applicable motor, whichever larger.
• Specifications

Model: 200 V 400 V

FR-HC2-[] H7.5 H110 H160 H220 H280 H400 H560
7.5K 15K 30K 55K 75K H15K H30K H55K H75K
 K K K K K K K
Applicable 3.7K 7.5K 15K 30K 37K 3.7K 7.5K 15K 30K 37K 55K 90K 110K 160K 200K 280K
inverter
capacity(ND to to to to to to to to to to to to to to to to
rating)  7.5K 15K 30K 55K 75K 7.5K 15K 30K 55K 75K 110K 160K 220K 280K 400K 560K
Rated input Three-phase 200 V to 220 V
voltage/ 50 Hz Three-phase 380 V to 460 V 50/60 Hz
frequency 200 V to 230 V 60 Hz
Rated input
current (A) 33 61 115 215 278 17 31 57 110 139 203 290 397 506 716 993

 The total capacity of the connected inverters.

 If a high power factor converter (FR-HC2) is purchased, it comes with reactor 1 (FR-HCL21), reactor 2 (FR-HCL22), and an outside box
(FR-HCB2). Do not connect the DC reactor to the inverter when using a high power factor converter.
(If an H280K or higher is purchased, it comes with FR-HCL21, FR-HCL22, FR-HCC2, FR-HCR2, and FR-HCM2.)
High power factor • Outline dimension (Unit: mm)
converter
FR-HC2- High power factor
Reactor 1 Reactor 2 Outside box
Voltage

converter
Capacity FR-HCL21  FR-HCL22  FR-HCB2 
FR-HC2
W H D W H D W H D W H D
7.5K 220 260 170 132 150 100 237.5 230 140
190 320 165
15K 250 400 190 162 172 126 257.5 260 165
200 V

30K 325 550 195 195 210 150 342.5 305 180
270 450 203
55K 370 620 250 210 180 200.5 432.5 380 280
75K 465 620 300 240 215 215.5 474 460 280 400 450 250
H7.5K
H15K
220
220
300
300
190
190
132
162
140
170
100
126
237.5
257.5
220
260
140
165 190 320 165 8
H30K 325 550 195 182 195 101 342.5 300 180

Options
H55K 370 670 250 282.5 245 165 392.5 365 200 270 450 203
H75K 325 620 250 210 175 210.5 430 395 280 300 350 250
400 V

H110K 465 620 300 240 230 220 500 440 370 350 450 380
H160K 498 1010 380 280 295 274.5 560 520 430
400 450 440
H220K 498 1010 380 330 335 289.5 620 620 480
H280K 680 1010 380 330 335 321 690 700 560 - - -
H400K 790 1330 440 402 460 550 632 675 705 - - -
H560K 790 1330 440 452 545 645 632 720 745 - - -

High power factor converter Reactor 1, Reactor 2 Outside box

P.CPY PWR

FAN
REGEN....... DRIVE

PSCLR
H

W D W D
W D

 Install reactors (FR-HCL21 and 22) on a horizontal surface.

 The H280K or higher are not equipped with FR-HCB2. A filter capacitor and inrush current limit resistors are provided instead.

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Name (model) Specification and structure

A surge voltage suppression filter limits surge voltage applied to motor terminals when driving the 400 V class motor by the
inverter.
• Selection method
Select the model according to the applied motor capacity.
• Specifications
400 V
Model: FR-ASF-[]
H1.5K H3.7K H7.5K H15K H22K H37K H55K
Applicable motor capacity (kW) 0.4 to 1.5 2.2 to 3.7 5.5 to 7.5 11 to 15 18.5 to 22 30 to 37 45 to 55
Rated input current (A) 4.0 9.0 17.0 31.0 43.0 71.0 110.0
Overload current rating  150% 60 s, 200% 0.5 s
Rated input AC voltage  Three-phase 380 V to 460 V 50 Hz/60 Hz
Maximum AC voltage fluctuation Three-phase 506 V 50 Hz/60 Hz

Maximum frequency  400 Hz
PWM frequency permissible
range 0.5 kHz to 14.5 kHz
Maximum wiring length between 300 m
the filter-motor
Approx. mass (kg) 8.0 11.0 20.0 28.0 38.0 59.0 78.0
Surrounding air temperature -10°C to +50°C (non-freezing)
Environment

Surrounding air humidity 90% RH or less (non-condensing)

Atmosphere Indoors (without corrosive gas, flammable gas, oil mist, dust and dirt, etc.)

Surge voltage Altitude/vibration Maximum 1000 m, 5.9 m/s2 or less at 10 to 55 Hz (directions of X, Y, Z axes)
suppression filter
FR-ASF  Determined by the specification of the connected inverter (400 V class).

• Connection diagram
Within 5 m
Within 300 m
Inverter FR-ASF
MCCB MC
Motor
Three- R U U X
phase AC S V V Y IM
power supply T W W Z

8
Options

• Outline dimension (Unit: mm)

Model W  H  D 
FR-ASF-H1.5K 221 193 160
FR-ASF-H3.7K 221 200 180
FR-ASF-H7.5K 281 250 215
H

FR-ASF-H15K  336 265 290

FR-ASF-H22K  336 345 354
FR-ASF-H37K  376 464 429
W D FR-ASF-H55K  396 464 594
 This indicates the maximum dimension.
 The H15K or higher has a different shape.

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Name (model) Specification and structure

Limits surge voltage applied to motor terminals when driving a 400 V class motor with an inverter.
This filter is compatible with the 5.5 to 37 kW motors.
• Selection method
Select the model according to the applied motor capacity.
• Specifications
Model: FR-BMF-H[]K 7.5 15 22 37
Applicable motor 5.5 7.5 11 15 18.5 22 30 37
capacity (kW) 
Rated current (A) 17 31 43 71
Overload current rating 150% 60 s, 200% 0.5 s (inverse-time characteristics)

Rated AC input voltage Three-phase 380 to 480 V

Permissible AC voltage
fluctuation  323 to 528 V
Maximum frequency  120 Hz
PWM carrier frequency 2 kHz or lower 
Protective structure
(JEM 1030) Open type (IP00)
Cooling system Self-cooling
Maximum wiring length 100m or lower
Approx. mass (kg) 5.5 9.5 11.5 19
Surrounding air -10°C to +50°C (non-freezing)
Environment

temperature
Surrounding air 90% RH or less (non-condensing)
humidity
Atmosphere Indoors (without corrosive gas, flammable gas, oil mist, dust and dirt, etc.)
Altitude/vibration Maximum 1000 m, 5.9 m/s2 or less  at 10 to 55 Hz (directions of X, Y, Z axes)

 Indicates the maximum capacity applicable with the Mitsubishi Electric 4-pole standard motor. (PM motors are not applicable.)
 Determined by the specification of the connected inverter (400 V class).
 Set the Pr.72 PWM frequency selection to 2 kHz or less.
Surge voltage  When an inverter has a filter mounted on its back, do not use such an inverter on a moving object or in a place that vibrates (exceeding
suppression filter 1.96 m/s2).
FR-BMF • Connection diagram

Inverter FR-BMF
within 100m 8
MCCB MC
Three- R U X

Options
phase S V Y M
AC power T W Z
supply
T* TH0

TH1
MC
ON OFF

MC
* Install a step-down transformer.
• Outline dimension (Unit: mm)
FR-BMF-H7.5K FR-BMF-H15K, H22K FR-BMF-H37K
230 2- φ 6 hole 260 2- φ 10 hole 245
208 230
195 75 195 100
4-M5 180 50 31
150 45 13.5 4-M8
2- φ 10 hole
4-M4

6-M5
138

245

550
525
285
245

380
325
340
325

Terminal layout
480
500
457

X Y Z TH0 TH1
149.5

Rating

Earth terminal (M5)

Rating
plate

plate

Earth terminal Terminal layout

Earth terminal Terminal layout (M8)
Rating
plate
X Y Z
205
165

(M6) X Y Z TH0 TH1

60

TH0 TH1
7.5
370

6 6
450
7.5

80

33

12.5

2.3 10
420

Red White Blue Crimping terminal 5.5-4

10

(U) (V) (W)

10 10 80
Isolation cap color Red White Blue Crimping terminal
(U) (V) (W) 22-6 130
Main terminal block (M4) Red White Blue Crimping terminal: 8-6 Isolation cap color
(U) (V) (W)
2.3 Control terminal block (M3) Isolation cap color Main terminal block (M6)
Main terminal block (M5)
2.3 Control terminal block (M3)
2.3

(Unit: mm)
Control terminal block (M3) (Unit: mm)
2.3

(Unit: mm)

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Low-Voltage Switchgear/Cables

 Mitsubishi Electric Molded Case Circuit Breakers and Earth Leakage Circuit Breakers
WS-V Series
Our main series of products in the industry's smallest class with high breaking capability enabled by a new
breaking technology.
The new WS-V series breaker has enhanced usability by further standardizing internal parts, meets interna-
tional standards, and addresses environmental and energy-saving issues.

 Features
 Some models have a 54-mm-wide compact body, which belongs to the smallest
class in the industry, by adopting the new "arc run breaking method".
While keeping the breaking capability, the new compact breaker contributes to downsizing of the enclosure and the mechanical equipment.
 Adopted for the F Style 32-A and 63-A frames.
Electric field design 32-A/63-A frame
that enables high

55
speed arc movement
Volume ratio
(Compared with
our preceding model)
Fluid design that improves capability
to maintain arc in the grid

(Before: 75 mm wide) (New: 54 mm wide)

 Significant downsizing
When multiple units are used, the width becomes significantly smaller.
750mm

Before × 10 circuits ……………

Width reduced by 210 mm

× 10 circuits ……………………

540mm

 Conforms to various global standards

• New JIS standard: JIS C 8201-2-1 (NF) • EN (Europe): EN 60947-2, CE marking
Annex 1 and Annex 2 (TÜV certification, self declaration)
• Electrical Appliances and Materials Safety • GB standard (China): GB/T 14048.2 CCC
9 Act (PSE)
• IEC standard: IEC 60947-2
certification
• Safety certification (Korea): KC marking
Low-Voltage Switchgear/Cables

 Three-phase power supply supported by CE/CCC marked earth leakage circuit breakers
GB/T 14048.2-2008 was established in China, requiring the earth leakage circuit breaker to fulfill its function even if a phase is lost as is the case with
the EN standard in Europe. CE/CCC marked earth leakage circuit breakers of the WS-V series support three phase power supply. Compliance with the
revised standard is certified.

 Lineup of UL 489 listed circuit breakers with 54 mm width "Small Fit"

The compact breakers contribute to a size reduction of machines, and IEC 35 mm rail mounting is standard.

For security and standard compliance of machines, F-type and

V-type operating handles are available for breakers with 54 mm
NF50-SVFU NF100-CVFU NV50-SVFU NV100-CVFU width.

 Lineup of UL 489 listed circuit breakers for 480 V AC "High Performance"

The breaking capacity has been improved to satisfy the request for SCCR upgrading.

Breaking capacity of UL 489 listed circuit breakers for 480

V AC (UL 489) (Example of 240 V AC)
NF125-SVU/NV125-SVU ...........................50 kA
NF125-HVU/NV125-HVU ...........................100 kA
NF250-CVU/NV250-CVU ...........................35 kA
NF250-SVU/NV250-SVU ...........................65 kA
NF250-HVU/NV250-HVU ...........................100 kA
NF125-SVU NF125-HVU NF250-CVU NF250-SVU NF250-HVU

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 Mitsubishi Electric Magnetic Motor Starters and Magnetic Contactors MS-T Series
Mitsubishi Electric magnetic motor starters have been newly designed and the MS-T series has been released..
The MS-T series is smaller than ever, enabling more compact control panel. The MS-T series is suitable for other Mitsubishi Electric
FA equipment. In addition, the MS-T conforms to a variety of global standards, supporting the global use.

 Features
 Compact
The width of the 10 A-frame model is as small as 36 mm.
General-purpose magnetic contactor with smallest width in the industry.
The width of MS-T series is reduced by 32% as compared to the prior MS-N series, enabling a more compact panel.
S-T10
For selection, refer to page 90.
 Based on Mitsubishi Electric research as of November 2019 in the general-purpose magnetic contactor industry for 10 A-frame class.
[Unit: mm]
Frame size 11A 13A 20A 25A 32A
43 43 53 63 75

1/L1 3/L2 5/L3 13 1/L1 3/L2 5/L3 13 1/L1 3/L2 5/L3

13 1/L1 3/L2 5/L3 21
1/L1 3/L2 5/L3

MS-N series
13 43
13 21 21 31

14 22 22
14
32
44
2/T1 4/T2 6/T3 14 2/T1 4/T2 6/T3 14 14 2/T1 4/T2 6/T3 22
2/T1 4/T2 6/T3 2/T1 4/T2 6/T3

S-N10 S-N11 (Auxiliary 1-pole) S-N12 (Auxiliary 2-pole) S-N20 S-N25

36 44 44 63 43

New 1/L1 3/L2 5/L3

MS-T series
7mm 9mm 1 9mm 12mm 2/T1 4/T2 6/T3

S-T10 S-T12 (Auxiliary 2-pole) S-T20 S-T25 S-T32

Frame size 35A 50A 65A 80A 100A

75 88 88 88 88 100 100

1/L1 3/L2 5/L3 1/L1 3/L2 5/L3 1/L1 3/L2 5/L3 1/L1 3/L2 5/L3
1/L1 3/L2 5/L3

MS-N series 13
21

22
14
43
31

32
44
13
21
22
14
43
31
32
44
13
21
22
14
43
31
32
44

2/T1 4/T2 6/T3

2/T1 4/T2 6/T3 2/T1 4/T2 6/T3 2/T1 4/T2 6/T3 2/T1 4/T2 6/T3

S-N35 S-N50 S-N50AE S-N65 S-N65AE S-N80 S-N95

75 75 88 88 100

New
1/L1 3/L2 5/L3 1/L1 3/L2 5/L3
1/L1 3/L2 5/L3

MS-T series
13mm 12mm
9
2/T1 4/T2 6/T3 2/T1 4/T2 6/T3
2/T1 4/T2 6/T3

S-T35 S-T50 S-T65 S-T80 S-T100

Low-Voltage Switchgear/Cables
 Standardization
• Terminal covers are provided as standard to ensure safety inside • Widened range of operation coil ratings (AC operated model)
the enclosure. Users do not have to make arrangements to specify The widened range reduces the number of operation coil rating
and obtain options separately. Covers are provided also for the types from 13 (MS-N series) to 7.
auxiliary contact unit. Users can reduce their inventory. The reduced number of the operation coil types enables more
simplified customers' ordering process and the faster delivery.
• (Conventional
Customersproduct)
can select the( operation) coil more easily.
Coil Rated voltage [V]
Coil Rated voltage [V]
designation 50 Hz 60 Hz
rs are 24 VAC 24 24 designation 50 Hz/60 Hz
Cove d as 48 VAC 48 to 50 48 to 50
e
attach ard. 100 VAC 100 100 to 110 24 VAC 24
stand 120 VAC 110 to 120 115 to 120 48 VAC 48 to 50
127 VAC 125 to 127 127
200 VAC 200 200 to 220 100 VAC 100 to 127
Covers + Contactor 220 VAC 208 to 220 220
230 VAC 220 to 240 230 to 240
200 VAC 200 to 240
(Conventional product)
260 VAC 240 to 260 260 to 280 300 VAC 260 to 300
MS-T series 380 VAC 346 to 380 380
400 VAC 380 to 415 400 to 440 400 VAC 380 to 440
440 VAC 415440 460 to 480 500 VAC 460 to 550
500 VAC 500 500 to 550
Seven types are available without change for
the 50 A frame model or higher.

 Global Standard
• Conforms to various global standards
Our magnetic contactors are certified as compliant not only with major international standards such as IEC, JIS, UL, CE, and CCC but also with ship
classification standards and country specific standards.
This will help our customers expand their business overseas.
Applicable Standard Safety Standard
International Japan Europe China U.S.A./ Canada
EN Certification
body GB
Standard EC Directive
IEC JIS

 The MS-T series also provide safe isolation (mirror contact) specified in the IEC standard.

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 Spring Clamp Terminal Models Available for Mitsubishi

Electric Magnetic Contactor and Magnetic Relay
Spring clamp terminal:
Easy-to-connect terminal that ensures connection with the contact pressure of the spring just by pushing wire
into the conductive terminal.Solid wires and ferrules can be connected simply by inserting them into the termi-
nals.
Stranded wires can be connected by opening the spring with a tool, inserting wire, and removing the tool.


Key features of the screwless terminals: 22% 52%
reduction reduction
• Significant reduction in the time required for wiring
Comparison with the terminal screw model (with round crimp terminal)
Wiring with ferrules: 22% reduction

Round crimp
Wiring with solid or stranded wire: 52% reduction

terminal

Ferrule
Reduction in the time required for wiring
Wiring performed by non-experts (with 2-year experience) (The research conducted by
Japan Switchboard & control system Industries Association)
Screw Spring clamp terminal
• Easy wiring for whoever works on S-T12SQ terminal
Push-in connection eliminates the need for the screw-tightening skills.
• Enhanced maintenance efficiency
Screw retightening is not necessary for installation and maintenance of enclosures and machines.
• Reliable wire connection
There is no risk of terminal screw loosening due to vibration or shocks, or long-term service.

 Motor Circuit Breaker MMP-T Series

Motor circuit protection (against overload / phase loss / short-circuit) is achievable the MMP-T series alone.
The wire-saving, space-saving design enables downsizing of the enclosure.
The MMP-T series can be used in combination with the MS-T series .

 Features MMP-T32
 What is the motor circuit breaker?  Space-saving design for downsizing of the enclosure
The motor circuit breaker, applicable to the motor circuit, has the functions of a cir-
Example of space saving
cuit breaker and a thermal overload relay in one unit. The motor circuit breaker pro-
Conventional system Motor circuit breakers system
vides protection against overload, phase loss, and short circuit.

9
Motor circuit configuration Motor circuit configuration using a Inside the enclosure Inside the enclosure
using a circuit breaker and a motor circuit breaker and a
magnetic contactor magnetic contactor
With motor circuit breakers

Disconnection Disconnection
Low-Voltage Switchgear/Cables

Circuit opening/ Circuit opening/

closing closing

Short-circuit Short-circuit
protection protection
Circuit breaker

Device Device
protection protection
Motor circuit breaker

Motor control
Magnetic contactor Overload protection

Overload protection Magnetic contactor

Motor control
Thermall overload
l d relay

M M

 Wire saving Example of wire saving

Using a connection conductor unit (option) for connecting a motor Conductor unit connection example
circuit breaker and a contactor reduces work hours required for
wiring.
A connection conductor unit for the high sensitivity contactor (SD-Q)
is also available. (Model: UT-MQ12)

UT-MQ12 application example

 Compliance to major standards support customers' overseas business

• Compliance with major global standards
Not only major international standards such as IEC, JIS, UL, CE, and CCC but also other national standards are certified. This will help our
customers expand their business in foreign countries.
Applicable Standard Safety Standard
International Japan Europe China U.S.A./ Canada
EN Certification
Standard GB
EC Directive body
IEC JIS

• UL60947-4-1A Type E/F is also covered.

Compliance of the device to UL's Type E/F combination can surely support export to the United States.

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 Selecting the rated sensitivity current for the earth leakage circuit breaker
When using an earth leakage circuit breaker with the inverter circuit, select its rated sensitivity current as follows, independently of the PWM carrier fre-
quency.

• Breaker designed for harmonic and surge suppression <Example>

Rated sensitivity current
In10×(Ig1+Ign+Igi+Ig2+Igm) 5.5 mm2 5 m 5.5 mm2 50 m
• Standard breaker ELB Noise
Rated sensitivity current filter
3
M 200 V
In10×{Ig1+Ign+Igi+3×(Ig2+Igm)}
Inverter
2.2 kW
Ig1, Ig2: Leakage currents in wire path during commercial power
Ig1 Ign Ig2 Igm
supply operation
Ign: Leakage current of inverter input side noise filter Igi
Igm: Leakage current of motor during commercial power supply
(a) Install the earth leakage circuit breaker (ELB) on the input side of the
operation
inverter.
Igi: Leakage current of inverter unit
(b) In the connection earthed-neutral system, the sensitivity current is blunt
against a ground fault in the inverter output side. Earthing (Grounding) must
Example of leakage current of conform to the requirements of national and local safety regulations and
Leakage current example of
cable path per 1 km during the electrical codes. (NEC section 250, IEC 61140 class 1 and other applicable
three-phase induction motor
commercial power supply operation standards)
during the commercial
when the CV cable is routed in
power supply operation
 Selection example (in the case of the above figure)
metal conduit
(200 V 60 Hz) Breaker designed
(200 V 60 Hz)
120 2.0 for harmonic and Standard breaker
Leakage currents (mA)
Leakage currents (mA)

100
1.0 surge suppression
80 0.7
0.5 Leakage current Ig1 5m
60 33× =0.17
0.3 (mA) 1000 m
40
0.2
20 Leakage current Ign
(mA) 0
0 0.1
2 3.5 8 14 2238 80150 1.5 3.7 7.5 15223755
5.5 30 60 100 2.2 5.5 11 18.5 3045 Leakage current Igi
2
(mA) 1
Cable size(mm ) Motor capacity (kW)
Leakage current Ig2 50 m
Example of leakage current per 1 km during Leakage current example of three- 33× =1.65
(mA) 1000 m
the commercial power supply operation phase induction motor during the
when the CV cable is routed in metal conduit commercial power supply operation Motor leakage current
Igm (mA) 0.18
(Three-phase three-wire delta (Totally-enclosed fan-cooled
connection 400 V 60 Hz) type motor 400 V 60 Hz) Total leakage current 3.00 6.66
120 2. 0 (mA)
leakage currents (mA)

leakage currents (mA)

100 1. 0 Rated sensitivity

current (mA) 30 100
9
80 0. 7
0. 5 (Ig × 10)
60
0. 3
40
0. 2
20

Low-Voltage Switchgear/Cables
0 0. 1
2 3.5 8 142238 80150 1. 5 3. 7 7. 5 15223755
5.5 30 60 100 2. 2 5.5 1118. 53045
Cable size (mm ) 2
Motor capacity (kW)
For " " connection, the amount of leakage current is appox.1/3 of the above value.

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 Molded case circuit breaker, magnetic contactor, cable gauge

Molded case circuit breaker (MCCB) Recommended cable gauge (mm2)
Input side magnetic
 or earth leakage circuit breaker 
contactor 
Motor Applicable inverter (ELB) (NF, NV type) R/L1, S/L2, T/L3
Voltage

output model Power factor improving Power factor improving

Power factor improving (AC or DC)
(kW)  (ND rating) (AC or DC) reactor con- (AC or DC) reactor con- U, V, W
reactor connection
nection nection
Without With Without With Without With
0.1 FR-E820-0008(0.1K) 5A 5A S-T10 S-T10 2 2 2
0.2 FR-E820-0015(0.2K) 5A 5A S-T10 S-T10 2 2 2
0.4 FR-E820-0030(0.4K) 5A 5A S-T10 S-T10 2 2 2
0.75 FR-E820-0050(0.75K) 10A 10A S-T10 S-T10 2 2 2
200 V

1.5 FR-E820-0080(1.5K) 15A 15A S-T10 S-T10 2 2 2

2.2 FR-E820-0110(2.2K) 20A 15A S-T10 S-T10 2 2 2
3.7 FR-E820-0175(3.7K) 30A 30A S-T21 S-T10 3.5 3.5 3.5
5.5 FR-E820-0240(5.5K) 50A 40A S-T35 S-T21 5.5 5.5 5.5
7.5 FR-E820-0330(7.5K) 60A 50A S-T35 S-T35 14 8 8
0.4 FR-E840-0016(0.4K) 5A 5A S-T10 S-T10 2 2 2
0.75 FR-E840-0026(0.75K) 5A 5A S-T10 S-T10 2 2 2
1.5 FR-E840-0040(1.5K) 10A 10A S-T10 S-T10 2 2 2
400 V

2.2 FR-E840-0060(2.2K) 15A 10A S-T10 S-T10 2 2 2

3.7 FR-E840-0095(3.7K) 20A 15A S-T10 S-T10 2 2 2
5.5 FR-E840-0120(5.5K) 30A 20A S-T21 S-T12 3.5 2 2
7.5 FR-E840-0170(7.5K) 30A 30A S-T21 S-T21 3.5 3.5 3.5
0.75 FR-E860-0017(0.75K) 5A 5A 3A 3A 2 2 2
1.5 FR-E860-0027(1.5K) 10A 5A 5A 3A 2 2 2
575 V

2.2 FR-E860-0040(2.2K) 10A 10A 7A 5A 2 2 2

3.7 FR-E860-0061(3.7K) 15A 10A 10A 7A 2 2 2
5.5 FR-E860-0090(5.5K) 20A 15A 15A 10A 2 2 2
7.5 FR-E860-0120(7.5K) 30A 20A 21A 15A 3.5 2 2
 Assumes the use of a 4-pole standard motor.
 Select an MCCB according to the power supply capacity.
Install one MCCB per inverter. MCCB INV M
(For the use in the United States or Canada, refer to "Instructions for UL and cUL" in the Instruction Manual (Connection), and
select an appropriate fuse or molded case circuit breaker (MCCB).) MCCB INV M
 The magnetic contactor is selected based on the AC-1 class. The electrical durability of magnetic contactor is 500,000 times.
9 When the magnetic contactor is used for emergency stops during motor driving, the electrical durability is 25 times.
If using an MC for emergency stop during motor driving or using it on the motor side during commercial power supply operation, select an MC with the class AC-3 rated
current for the rated motor current.
 Cables
Low-Voltage Switchgear/Cables

The gauge of the cable with the continuous maximum permissible temperature of 90°C or higher. (LMFC (heat resistant flexible cross-linked polyethylene
insulated cable), etc.). It assumes a surrounding air temperature of 40°C or lower and in-enclosure wiring.

NOTE
• When the inverter capacity is larger than the motor capacity, select an MCCB and a magnetic contactor according to the inverter model, and
select cables and reactors according to the motor output.
• When the breaker on the inverter's input side trips, check for the wiring fault (short circuit), damage to internal parts of the inverter etc. The
cause of the trip must be identified and removed before turning ON the power of the breaker.

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MEMO

91
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Precaution on Selection and Operation

 Precautions for use  Installation

• Install the inverter in a clean place with no floating oil mist, cotton
 Safety instructions fly, dust and dirt, etc. Alternatively, install the inverter inside the
• To use the product safely and correctly, make sure to read the "sealed type" enclosure that prevents entry of suspended
"Instruction Manual" before the use. substances. For installation in the enclosure, decide the cooling
• This product has not been designed or manufactured for use with method and the enclosure size to keep the surrounding air
any equipment or system operated under life-threatening temperature of the inverter/the converter unit within the
conditions. permissible range (for specifications, refer to page 58).
• Please contact our sales representative when considering using • Some parts of the inverter/the converter unit become extremely
this product in special applications such as passenger mobile, hot. Do not install the inverter to inflammable materials (wood
medical, aerospace, nuclear, power or undersea relay equipment etc.).
or system. • Attach the inverter vertically.
• Although this product was manufactured under conditions of strict
quality control, install safety devices to prevent serious accidents
 Setting
when it is used in facilities where breakdowns of the product or • Depending on the parameter setting, high-speed operation (up to
other failures are likely to cause a serious accident. 590 Hz) is available. Incorrect setting will lead to a dangerous
• Do not use the inverter for a load other than the three-phase situation. Set the upper limit by using the upper frequency limit
induction motor and the PM motor. setting.
• Do not connect a IPM motor in the induction motor control • Setting the DC injection brake operation voltage and operating
settings (initial settings). Do not use an induction motor in the IPM time larger than their initial values causes motor overheating
sensorless vector control settings. It will cause a failure. (electronic thermal O/L relay trip).
• Do not set Pr. 70 Special regenerative brake duty except for
 Operation using the optional brake resistor. This function is used to protect
• When a magnetic contactor (MC) is installed on the input side, do the brake resistor from overheating. Do not set the value
not use the MC for frequent starting/stopping. Otherwise the exceeding permissible duty of the brake resistor.
inverter may be damaged.
• When a fault occurs in the inverter, the protective function is
 Real sensorless vector control
acticvated to stop the inverter output. However, the motor cannot • Under Real sensorless vector control, always execute offline auto
be immediately stopped. For machinery and equipment that tuning before starting operations.
require an immediate stop, provide a mechanical stop/holding • The speed command setting range under Real sensorless vector
mechanism. control is 0 to 400 Hz.
• Even after turning OFF the inverter, it takes time to discharge the • The selectable carrier frequencies under Real sensorless vector
capacitor. Before performing an inspection, wait 10 minutes or control are 2, 6, 10, and 14 kHz.
longer after the power supply turns OFF, then check the voltage • Torque control is not available in the low-speed (about 10 Hz or
using a tester, etc. less) regenerative range, or in the low speed with the light load
(about 5 Hz or less with about 20% or less of the rated torque).
 Wiring • The motor may start running at a low speed even when the start
• Applying the power to the inverter output terminals (U, V, W) signal (STF or STR) is not input. The motor may run also at a low
causes a damage to the inverter. Before power-on, thoroughly speed when the speed limit value = 0 with a start command input.
check the wiring and sequence to prevent incorrect wiring, etc. Confirm that the motor running does not cause any safety
• Terminals P/+, P1, N/-, and PR are the terminals to connect problems. Under torque control, do not switch between the
dedicated options. Do not connect any device other than the forward rotation command (STF) and reverse rotation command
dedicated options. Do not short-circuit between the frequency (STR). The overcurrent trip (E. OC[]) or opposite rotation
setting power supply terminal 10 and the common terminal 5, and deceleration fault (E.11) occurs.
between terminals PC and SD. • If the inverter may restart during coasting under Real sensorless
10 • To remove the wire connected to the control circuit terminal, pull
the wire while pressing down the open/close button firmly with a
vector control, set the automatic restart after instantaneous power
failure function to enable frequency search (Pr.57  "9999",
flathead screwdriver. Otherwise, the terminal block may be Pr.162 = "10").
Precaution on Selection and Operation

damaged. • Under Real sensorless vector control, sufficient torque may not
• To prevent a malfunction due to noise, keep the signal cables be obtained in the extremely low-speed range of about 2 Hz or
10cm or more away from the power cables. Also, separate the less.
main circuit cables at the input side from the main circuit cables at • The approximate speed control range is as described below.
the output side. Power drive: 1:200 (2, 4, 6 poles), 0.3 Hz or more for 60 Hz
• After wiring, wire offcuts must not be left in the inverter. Wire rating.
offcuts can cause an alarm, failure or malfunction. Always keep 1:30 (8, 10 poles), 2 Hz or more for 60 Hz rating
the inverter clean. When drilling mounting holes in an enclosure Regenerative driving: 1:12 (2 to 10 poles), 5 Hz or more for 60 Hz
etc., take caution not to allow chips and other foreign matter to rating
enter the inverter.
• Set the voltage/current input switch correctly. Incorrect setting
may cause a fault, failure or malfunction.
 Power supply
• When the inverter is
connected near a large-
capacity power
1500
transformer (500 kVA or Power
Range
more) or when a power requiring
supply
installation
factor correction capacitor system 1000 of the reactor
capacity
is to be switched over, an (kVA)
excessive peak current 500
may flow in the power
input circuit, damaging the 0
inverter. To prevent this, Wiring length (m) 10
always install an optional
AC reactor (FR-HAL).
• If surge voltage occurs in the power supply system, this surge
energy may flow into an inverter, and the inverter may display the
overvoltage protection (E. OV[]) and trip. To prevent this, install an
optional AC reactor (FR-HAL).

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 IPrecautions for use of IPM motor  Connection with machine

When using the IPM motor, the following precautions must be observed 
as well. • When installing, align the motor shaft center and the machine
shaft. Insert a liner underneath the motor or the machine legs as
 Safety instructions required to make a perfect alignment.
∗2
• Do not use an IPM motor for an application where the motor is Level meter Level meter

B
driven by the load
 Combination of motor and inverter
• For the motor capacity, the rated motor current should be equal to A ∗1
Good Bad Bad
or less than the rated inverter current. (Note that the motor rated
 Set so that the A dimensions become the same dimension even
current should be 0.4 kW or higher (0.1 kW or higher for the 200 when any position is measured by feeler gauge. (inequality in A
V class).) If a motor with substantially low rated current compared width 3/100 mm or lower)
with the inverter rated current is used, speed and torque  Do not set parts with a vertical gap like B (maximum runoff
accuracies may deteriorate due to torque ripples, etc. Set the degree: 3/100 mm).
rated motor current to about 40% or higher of the inverter rated
current. NOTE
• Only one IPM motor can be connected to an inverter. • When a fan or blower is directly connected to the motor
• An IPM motor cannot be driven by the commercial power supply. shaft or to the machine, the machine side may become
unbalanced. When the unbalanced degree becomes larger,
 Installation the motor vibration becomes larger and may result in a
• While power is ON or for some time after power-OFF, do not damage of the bearing or other area. The balance quality
touch the motor since the motor may be extremely hot. Touching with the machine should meet the class G2.5 or lower of
these devices may cause a burn. JISB0905 (the Balance Quality Requirements of Rigid
Rotors).
 Wiring 
• Applying the commercial power supply to input terminals (U,V, W)
• When installing, place the motor shaft and the machine shaft in
of a motor will burn the motor. The motor must be connected with
parallel, and mount them to a position where their pulley centers
the output terminals (U,V, W) of the inverter.
are aligned. Their pulley centers should also have a right angle to
• An IPM motor is a motor with permanent magnets embedded
each shaft.
inside. High voltage is generated at the motor terminals while the
• An excessively stretched belt may damage the bearing and break
motor is running. Before wiring or inspection, confirm that the
the shafts. A loose belt may slip off and easily deteriorate. A flat
motor is stopped. In an application, such a as fan or blower,
belt should be rotated lightly when it is pulled by one hand.
where the motor is driven by the load, a low-voltage manual
For details, refer to the Instruction Manual of the motor.
contactor must be connected at the inverter's output side, and
wiring and inspection must be performed while the contactor is 
open. Otherwise an electric shock may be caused. The inverter Place the motor and machine shafts in parallel, and engage the
power must be turned ON before closing the contacts of the gear teeth properly.
contactor at the output side.
• Match the input terminals (U, V, W) of the motor and the output
terminals (U, V, W) of the inverter when connecting.
 Permissible vibration during operation
• Use the following length of wiring or shorter when connecting an During operation, the motor coupled to a load machine may
IPM motor. vibrate according to the degree of coupling between the motor
and the load, and the degree of vibration created by the load. The
 Operation degree of the motor's vibration varies depending on the condition
• About 0.1 s (magnetic pole detection time) takes to start a motor
after inputting a start signal.
of the foundations and baseplate of the motor.
If the motor has higher vibration than the permissible level,
10
• An IPM motor is a motor with embedded permanent magnets. investigate the cause, take measure, and take action.

Precaution on Selection and Operation

Regression voltage is generated when the motor coasts at an
instantaneous power failure or other incidents.
The inverter's DC bus voltage increases if the motor coasts fast in
this condition. When using the automatic restart after
instantaneous power failure function, it is recommended to also
use the regeneration avoidance operation to make startups
stable.
• Thus, the relation between the rotation speed and the frequency
setting is:
Rotation speed = 120 × frequency setting value / number of motor
poles

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 E800_catalog_l06131eng.book 94 ページ ２０１９年１２月６日 金曜日 午後３時２２分

 Selection precautions  Precautions on peripheral device

 Inverter capacity selection selection
• When operating a special motor or multiple motors in parallel by  Selection and installation of molded case
one inverter, select the inverter capacity so that 1.05 times of the
total of the rated motor current becomes less than the rated circuit breaker
output current of the inverter. Install a molded case circuit breaker (MCCB) on the power
(Multiple PM motors cannot be connected to an inverter.) receiving side to protect the wiring at the inverter input side.
• Do not set Pr. 70 Special regenerative brake duty except for Select an MCCB according to the inverter power supply side
using the optional brake resistor. This function is used to protect power factor, which depends on the power supply voltage, output
the brake resistor from overheating. Do not set the value frequency and load. Refer to page 90. Especially for a completely
exceeding permissible duty of the brake resistor. electromagnetic MCCB, a slightly large capacity must be selected
since its operation characteristic varies with harmonic currents.
 Starting torque of the motor (Check the reference material of the applicable breaker.) As an
• The starting and acceleration characteristics of the motor driven earth leakage circuit breaker, use the Mitsubishi Electric earth
by an inverter are restricted by the overload current rating of the leakage circuit breaker designed for harmonics and surge
inverter. In general, the torque characteristic has small value suppression. (Refer to page 89.)
compared to when the motor is started by a commercial power When installing a molded case circuit breaker on the inverter
supply. When a large starting torque is required, and torque boost output side, contact the manufacturer of each product for
adjustment, Advanced magnetic flux vector control and Real selection.
sensorless vector control cannot cannot generate the sufficient
torque, increase both the motor and inverter capacities.  Handling of the input side magnetic contactor
(MC)
 Acceleration/deceleration time
• For the operation using external terminals (using terminal STF or
• The motor acceleration/deceleration time is decided by the torque
STR), install the input-side magnetic contactor to prevent
generated by the motor, load torque, and moment of inertia (J) of
accidents due to automatic restart when the power is restored
load.
after power failures such as an instantaneous power failure, or for
• The required time may increase when the torque limit function or
safety during maintenance works. Do not use this magnetic
stall prevention function operates during acceleration/
contactor for frequent starting/stopping of the inverter. (The
deceleration. In such a case, set the acceleration/decelerations
switching life of the converter part is about 1 million times.) In the
time longer.
operation by parameter unit, the automatic restart after power
• To decrease the acceleration/deceleration time, increase the
restoration is not performed and the magnetic contactor cannot
torque boost value (setting of a too large value may activate the
be used to start the motor. The input-side magnetic contactor can
stall prevention function at a start, longer the acceleration time),
stop the motor. However, the regenerative brake of the inverter
use the advanced magnetic flux vector control or real sensorless
does not operate, and the motor coasts to a stop.
vector control or increase the inverter and motor capacities. To
• Installation of a magnetic contactor at the input side is
decrease the deceleration time, it is necessary to add optional recommended. A magnetic contactor avoids overheat or burnout
brake resistor MRS type, MYS type, or FR-ABR (for the 0.4K or of a brake resistor when heat capacity of the resistor is insufficient
higher), the brake unit (FR-BU2), multifunction regeneration or a brake regenerative transistor is damaged with short while
converter (FR-XC), or a similar device to absorb braking energy. connecting an optional brake resistor. In this case, shut-off the
 Power transfer mechanisms (reduction gear, belt, magnetic contactor when fault occurs and inverter trips.
chain, etc.)  Handling of the output side magnetic contactor
• Caution is required for the low-speed continuous operation of the
motor with an oil lubricated gear box, transmission, reduction
(MC)
10 gear, etc. in the power transfer mechanism. Such an operation
may degrade the oil lubrication and cause seizing. On the other
• Switch the MC between the inverter and motor only when both
the inverter and motor are at a stop. When the magnetic contactor
hand, the high-speed operation at more than 60 Hz may cause is turned ON while the inverter is operating, overcurrent
protection of the inverter and such will activate. When an MC is
Precaution on Selection and Operation

problems with the noise of the power transfer mechanism, life, or

insufficient strength due to centrifugal force, etc. Fully take provided to switch to a commercial power supply, switch it ON/
necessary precautions. OFF after the inverter and motor have stopped.
• Do not install a magnetic contactor at the inverter's output side
 Instructions for overload operation when using a PM motor.
• When performing frequent starts/stops by the inverter, rise/fall in
the temperature of the transistor element of the inverter will
 Installation of thermal relay
repeat due to a repeated flow of large current, shortening the life In order to protect the motor from overheating, the inverter has an
from thermal fatigue. Since thermal fatigue is related to the electronic thermal O/L relay. However, install an external thermal
amount of current, the life can be increased by reducing current at overcurrent relay (OCR) between the inverter and motors to
locked condition, starting current, etc. Reducing current may operate several motors or a multi-pole motor with one inverter. In
extend the service life but may also cause torque shortage, which this case, set 0 A to the electronic thermal O/L relay setting of the
leads to a start failure. Adding a margin to the current can inverter. For the external thermal overcurrent relay, determine the
eliminate such a condition. For an induction motor, use an setting value in consideration of the current indicated on the
inverter of a higher capacity (up to two ranks for the ND rating). motor's rating plate and the line-to-line leakage current. (Refer to
For an PM motor, use an inverter and PM motor of higher page 96.)
capacities. Self cooling ability of a motor reduces in the low-speed operation.
Installation of a thermal protector or a use of a motor with built-in
thermistor is recommended.
 Output side measuring instrument
When the inverter-to-motor wiring length is long, especially for
the 400 V class, small-capacity models, the meters and CTs may
generate heat due to line-to-line leakage current. Therefore,
choose the equipment which has enough allowance for the
current rating.
When measuring and displaying the output voltage and output
current of the inverter, use of terminals AM and 5 output function
of the inverter is recommended.

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E800_catalog_l06131eng.book 95 ページ ２０１９年１２月６日 金曜日 午後３時２２分

 Disuse of power factor improving capacitor  Cable gauge and wiring distance
(power factor correction capacitor) If the wiring distance is long between the inverter and motor,
The power factor improving capacitor and surge suppressor on during the output of a low frequency in particular, use a large
the inverter output side may be overheated or damaged by the cable gauge for the main circuit cable to suppress the voltage
harmonic components of the inverter output. Also, since an drop to 2% or less. (The table on page 90 indicates a selection
excessive current flows in the inverter to activate overcurrent example for the wiring length of 20 m.)
protection, do not provide a capacitor and surge suppressor. To Especially for long-distance wiring or wiring with shielded
improve the power factor, use an AC reactor (on page 39), a DC cables, the inverter may be affected by a charging current
reactor (on page 40), or a high power factor converter (on page caused by stray capacitances of the wiring, leading to an
55). incorrect activation of the overcurrent protective function. Refer
to the maximum wiring length shown in the following table.
 Electrical corrosion of the bearing When multiple motors are connected, use the total wiring length
When a motor is driven by the inverter, axial voltage is shown in the table or shorter
generated on the motor shaft, which may cause electrical

Cable type
corrosion of the bearing in rare cases depending on the wiring, Pr.72 setting
load, operating conditions of the motor or specific inverter Voltage 1.5 2.2 3.7K or
(carrier fre- 0.1K 0.2K 0.4K 0.75K
settings (high carrier frequency, use of a capacitive filter ). class K K higher
quency)
Contact your sales representative to take appropriate
countermeasures for the motor. 200V 200 200 300 500 500 500 500
The following shows examples of countermeasures for the 400V - - 200 300 500 500 500
inverter.
200V 30 100 200 300 500 500 500
• Decrease the carrier frequency.
• Remove the capacitive filter. 400V - - 30 100 200 300 100
• Provide a common mode choke on the output side of the 200V 50 50 75 100 100 100 100
inverter. 400V - - 50 50 75 100 100
(This is effective regardless of the use of the capacitive filter.) 200V 10 25 50 75 100 100 100
 Mitsubishi Electric capacitive filter: FR-BIF, SF[], FR-E5NF-[], FR-S5NFSA[], 400V - - 10 25 50 75 100
FR-BFP2-[]
 Recommended common mode choke: FT-3KM F series FINEMET® common When using the automatic restart after instantaneous power
mode choke cores manufactured by Hitachi Metals, Ltd. failure function with wiring length exceeding 100m, select
FINEMET is a registered trademark of Hitachi Metals, Ltd. without frequency search (Pr. 162 = "1, 11").
When the operation panel is installed away from the inverter and
when the parameter unit is connected, use a recommended
connection cable.
For the remote operation using analog signals, keep the control
cable distance between the operation signal transmitter and the
inverter to 30 m or less. Also, to prevent induction from other
devices, keep the wiring away from the power circuits (main
circuit and relay sequential circuit).
When the frequency setting is performed using the external
potentiometer, not using the parameter unit, use a shielded or
twisted cable as shown in the figure below. Connect the shield
cable to terminal 5, not to the earth (ground).
(3) Shielded cable
(3)
(2)
10 (10E) (2)
(1)
10 (10E)
2 10
2
(1) 5

Precaution on Selection and Operation

Frequency setting
Frequency setting Twisted cable 5 potentiometer
potentiometer

 Earth (ground)
When the inverter is set for the low acoustic noise operation, the
leakage current increases compared to in the normal operation
due to the high speed switching operation. Always earth
(ground) the inverter and the motor. Also, always use the earth
(ground) terminal of the inverter for earthing (grounding). (Do not
use a case or chassis.)

95
 E800_catalog_l06131eng.book 96 ページ ２０１９年１２月６日 金曜日 午後３時２２分

 Electromagnetic interference (EMI) 

For the low acoustic noise operation with high carrier frequency, Type Influence and countermeasure
electromagnetic noise tends to increase. Take countermeasures • Line-to-line leakage current flows through the
by referring to the following examples. Depending on an capacitance between the inverter/the converter unit
installation condition, noise may affect the inverter also in the output lines.
normal operation (initial status). • Harmonic component of the leaked current may cause
• Decrease the carrier frequency (Pr.72) setting to lower the
unnecessary operation of an external thermal relay.
EMI level. Long wiring length (50 m or longer) for the 400V class
• As measures against AM radio broadcasting noise, radio small capacity models (7.5 kW or lower) will increase
noise filter FR-BIF produces an effect. the rate of leakage current against the rated motor
• As measures against sensor malfunction, line noise filter current. In such a case, an unnecessary operation of
FRBSF01, FR-BLF produces an effect. Influence and the external thermal relay may be more liable to occur.
countermeas Countermeasure
• For effective reduction of induction noise from the power ure • Use Pr.9 Electronic thermal O/L relay.
cable of the inverter, secure the distance of 30 cm (at least 10 • If the carrier frequency setting is high, decrease the
cm) from the power line and use a shielded twisted pair cable Pr.72 PWM frequency selection setting.
for the signal cable. Do not earth (ground) the shield, and However, the motor noise increases. Selecting Pr.240
connect the shield to a common terminal by itself. Soft-PWM operation selection makes the sound
EMI measure example inoffensive.
To protect motor securely without being subject to the
Enclosure Decrease carrier frequency. Install filter (FR-BLF
or FR-BSF01) on influence of the line-to-line leakage current, direct
Inverter inverter output side. detection of the motor temperature using a temperature
power EMC FR-
Inverter BLF M Motor sensor is recommended.
supply filter
Use 4-core cable for motor MCCB MC Thermal relay
Separate inverter and power cable and use one cable Power
power line by more than as earth (ground) cable. Transmission supply
Inverter
30 cm (at least 10 cm) path
from sensor circuit. Use a twisted pair shielded cable. Line-to-line static
Sensor capacitances
Control Power Line-to-line leakage currents path
power supply for
supply sensor
Do not earth (ground) Do not earth (ground) shield but
enclosure directly. connect it to signal common cable.
Do not earth (ground) control cable.

 leakage current
Capacitances exist between the inverter unit I/O cables and
other cables or the earth, and within the motor, through which a
leakage current flows. Since its value depends on the static
capacitances, carrier frequency, etc., low acoustic noise
operation at the increased carrier frequency of the inverter will
increase the leakage current. Therefore, take the following
countermeasures. Select the earth leakage circuit breaker
according to its rated sensitivity current, independently of the
carrier frequency setting.
10 
Type Influence and countermeasure
Precaution on Selection and Operation

• Leakage currents may flow not only into the inverter

own line but also into the other lines through the
earthing (grounding) cable, etc. These leakage
currents may operate earth leakage circuit breakers
and earth leakage relays unnecessarily.
Countermeasure
Influence and • If the carrier frequency setting is high, decrease the
countermeasur Pr.72 PWM frequency selection setting.
e However, the motor noise increases. Selecting
Pr.240 Soft-PWM operation selection makes the
sound inoffensive.
• By using earth leakage circuit breakers designed for
harmonic and surge suppression in the inverter's own
line and other line, operation can be performed with
the carrier frequency kept high (with low noise).
Inverter
Power NV1 Motor
supply C
Leakage
Transmission breaker C
path NV2 Motor

Leakage C
breaker

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E800_catalog_l06131eng.book 97 ページ ２０１９年１２月６日 金曜日 午後３時２２分

 
Inverters have a converter section (rectifier circuit) and generate a har-
Outgoing harmonic current = fundamental wave current (value
monic current.
converted from received power voltage) × operation ratio × harmonic
Harmonic currents flow from the inverter to a power receiving point via a
content
power transformer. The Harmonic Suppression Guidelines was estab-
• Operation ratio: Operation ratio = actual load factor × operation
lished to protect other consumers from these outgoing harmonic cur-
time ratio during 30 minutes
rents. • Harmonic content: Found in the table below.
The three-phase 200 V input specifications 3.7 kW or lower were previ-
ously covered by the "Harmonic Suppression Guidelines for Household • Harmonic contents (values when the fundamental wave current is
Appliances and General-purpose Products" and other models were cov- 100%)
ered by the "Harmonic Suppression Guidelines for Consumers Who Reactor 5th 7th 11th 13th 17th 19th 23rd 25th
Receive High Voltage or Special High Voltage". However, the general- Not used 65 41 8.5 7.7 4.3 3.1 2.6 1.8
Used (AC side) 38 14.5 7.4 3.4 3.2 1.9 1.7 1.3
purpose inverter has been excluded from the target products covered by
Used (DC side) 30 13 8.4 5.0 4.7 3.2 3.0 2.2
the "Harmonic Suppression Guidelines for Household Appliances and
Used (AC, DC
General-purpose Products" in January 2004 and the "Harmonic Suppres- sides) 28 9.1 7.2 4.1 3.2 2.4 1.6 1.4
sion Guideline for Household Appliances and General-purpose Products" • Rated capacities and outgoing harmonic currents when driven by
was repealed on September 6, 2004. inverter
All capacity and all models of general-purpose inverter used by specific Funda-

converted from 6.6 kV (mA)

Fundamental wave current
consumers are now covered by the "Harmonic Suppression Guidelines mental Outgoing harmonic current con-

Rated capacity(kVA)
for Consumers Who Receive High Voltage or Special High Voltage". wave verted from 6.6 kV (mA)
• "Harmonic Suppression Guidelines for Consumers Who Receive current (No reactor, 100% operation ratio)
motor(kW)
Applied
High Voltage or Special High Voltage” (A)
This guideline sets the maximum values of outgoing harmonic
currents generated from a high-voltage or specially high-voltage
receiving consumer who will install, add or renew harmonic 200 400 11t 13t 17t 19t 23r 25t
5th 7th
generating equipment. If any of the maximum values is exceeded, V V h h h h d h
this guideline requires that consumer to take certain suppression
measures.
The users who are not subjected to the above guidelines do not need fol- 31. 20. 4.1 3.7 2.1 1.5 1.2 0.8
0.4 1.61 0.81 49 0.57
low the guidelines, but the users are recommended to connect a DC 85 09 65 73 07 19 74 82
reactor and an AC reactor as usual. 53. 34. 7.0 6.3 3.5 2.5 2.1 1.4
0.75 2.74 1.37 83 0.97
Compliance with the "Harmonic Suppression Guidelines for Consumers 95 03 55 91 69 73 58 94
Who Receive High Voltage or Special High Voltage" 108 68. 14. 12. 7.1 5.1 4.3 3.0
1.5 5.50 2.75 167 1.95
Input Target .6 47 20 86 81 77 42 06
Countermeasure 156 98. 20. 18. 10. 7.4 6.2 4.3
power capacity 2.2 7.93 3.96 240 2.81
.0 40 40 48 32 40 40 20
Confirm the compliance with the "Harmonic
257 161 33. 30. 16. 12. 10. 7.0
Three- Suppression Guidelines for Consumers Who 3.7 13.0 6.50 394 4.61
.1 .5 49 34 94 21 24 92
phase Receive High Voltage or Special High Voltage"
200 V 376 237 49. 44. 24. 17. 15. 10.
published in September 1994 by the Ministry of 5.5 19.1 9.55 579 6.77
.1 .4 22 58 90 95 05 42
International Trade and Industry (the present
504 318 65. 59. 33. 24. 20. 13.
Japanese Ministry of Economy, Trade and 7.5 25.6 12.8 776 9.07
.4 .2 96 75 37 06 18 97
Industry). Take countermeasures if required.
Use the following materials as reference to 11 36.9 18.5 1121 13.1
728 459 95. 86. 48. 34. 29. 20. 10
.7 .6 29 32 20 75 15 18
calculate the power supply harmonics.
All

Precaution on Selection and Operation

Reference materials • Conversion factors
capacities
"Harmonic Suppression Measures of the Conversion
Three- General-purpose Inverter" Classification Circuit type
phase coefficient Ki
400 V January 2004, Japan Electrical Manufacturers'
Without reactor K31 = 3.4
Association
With reactor (AC
"Calculation Method of Harmonic Current of the Three-phase K32 = 1.8
side)
General-purpose Inverter Used by Specific bridge
3 With reactor (DC
Consumers" (Capacitor K33 = 1.8
side)
JEM-TR201 (Revised in December 2003), smoothing)
With reactors (AC,
Japan Electrical Manufacturers' Association K34 = 1.4
DC sides)
For compliance to the "Harmonic Suppression Guideline of the General- When a high power
Self-excitation
purpose Inverter (Input Current of 20A or Less) for Consumers Other 5 factor converter is K5 = 0
three-phase bridge
Than Specific Consumers" published by JEMA used
Input Target
Measures
power capacity
Connect the AC reactor or DC reactor
recommended in the Catalogs and Instruction
Manuals.
Three- 3.7 kW or Reference materials
phase "Harmonic Suppression Guideline of the
200 V lower
General-purpose Inverter (Input Current of
20A or Less)"
JEM-TR226 (Published in December 2003),
Japan Electrical Manufacturers' Association

97
 E800_catalog_l06131eng.book 98 ページ ２０１９年１２月６日 金曜日 午後３時２２分

Compatible Motors

 List of applicable inverter models by rating (motor capacity  inverter model)

 200 V class
Motor DC reactor LD ND
capacity Rated cur- Rated cur-
FR-HEL-[] Model FR-E820-[] Model FR-E820-[]
(kW) rent (A) rent (A)
0.1 0.4K 0.1K 0008 0.8 0.1K 0008 0.8
0.2 0.4K 0.1K 0008 0.8 0.2K 0015 1.5
0.4 0.4K 0.2K 0015 1.5 0.4K 0030 3
0.75 0.75K 0.4K 0030 3 0.75K 0050 5
1.1 1.5K 0.75K 0050 5 1.5K 0080 8
1.5 1.5K 1.5K 0080 8 1.5K 0080 8
2.2 2.2K 1.5K 0080 8 2.2K 0110 11
3 3.7K 2.2K 0110 11 3.7K 0175 17.5
3.7 3.7K 3.7K 0175 17.5 3.7K 0175 17.5
5.5 5.5K 3.7K 0175 17.5 5.5K 0240 24
7.5 7.5K 5.5K 0240 24 7.5K 0330 33
11 11K 7.5K 0330 33 - - -

 400 V class
Motor DC reactor LD ND
capacity Rated cur- Rated cur-
FR-HEL-[] Model FR-E840-[] Model FR-E840-[]
(kW) rent (A) rent (A)
0.4 H0.4K 0.4K 0016 1.6 0.4K 0016 1.6
0.75 H0.75K 0.4K 0016 1.6 0.75K 0026 2.6
1.5 H1.5K 0.75K 0026 2.6 1.5K 0040 4
2.2 H2.2K 1.5K 0040 4 2.2K 0060 6
3 H3.7K 2.2K 0060 6 3.7K 0095 9.5
3.7 H3.7K 3.7K 0095 9.5 3.7K 0095 9.5
5.5 H5.5K 3.7K 0095 9.5 5.5K 0120 12
7.5 H7.5K 5.5K 0120 12 7.5K 0170 17
11 H11K 7.5K 0170 17 - - -

 The applicable motor capacity indicated is the maximum capacity applicable for use of the Mitsubishi Electric 4-pole standard motor.
 The power factor may be slightly lower.
 Overload current rating
11 LD
ND
120% 60 s, 150% 3 s (inverse-time characteristics) at surrounding air temperature of 50C
150% 60 s, 200% 3 s (inverse-time characteristics) at surrounding air temperature of 50C
Compatible Motors

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 Application to constant-torque motors  Standard specifications (indoor type)

 SF-HRCA type Output Number of Frequency

Common specification
• Continuous operation even at low speed of 0.3 Hz is possible (kW) poles range
(when using Real sensorless vector control). 0.4
For the 37 kW or lower (except for 22 kW), load torque is not 0.75
needed to be reduced even at a low speed and constant torque
1.5
(100% torque) continuous operation is possible within the range
of speed ratio 1/20 (3 to 60 Hz). 2.2 3 to 120 Hz Base frequency 60 Hz
(The characteristic of motor running at 60 Hz or higher is that 3.7 • Rotation direction (CCW)
output torque is constant.) 5.5 Counterclockwise when viewed
• Installation size is the same as that of the standard motor. 7.5 from the motor end
• Note that operation characteristic in the chart below cannot be • Lead wire
11 4
obtained if V/F control is used. 3.7 kW or lower: 3 wires
15 5.5 kW or higher: 6 or 12 wires
18.5 3 to 100 Hz • Surrounding air temperature:
22 40C or lower
30 The protective structure is IP44.
37
45 3 to 65 Hz
55

 Motor torque
The following shows torque characteristics of the motor in combination with the inverter with the ND rating. The overload capacity decreases for the LD
rating. Observe the specified range of the inverter.
 Continuous rated range of use (Real sensorless vector control)

60 Hz torque reference 60 Hz torque reference

(when the inverter is 0.4 kW to 7.5 kW) (when the inverter is 11 kW to 22 kW)

Maximum torque for short time (0.4 kW to 3.7 kW)

200

Maximum torque for short time

(5.5 kW to 7.5 kW)
Maximum torque for short time
150
150
220 V 220 V
Output torque

Continuous operation torque

(0.4 kW to 2.2 kW, 5.5 kW, 7.5 kW) Continuous operation torque
Output torque

(15 kW, 18.5 kW) 200 V

100 200 V 100
95
95
85
70 80
(60)
(%) 63 Continuous operation torque (3.7 kW)
(50) 60
50 (%) 57
(45)
45
(51) Continuous operation torque
(40) (22 kW)
Continuous operation torque
(11 kW)
0 0
0.3 3 60 120 0.3 3 10 60 100
Output frequency (Hz) Output frequency (Hz)
Values in parenthesis apply to the 0.4 kW to 0.75 kW Values in parenthesis apply to the 22 kW
11
The maximum short-time torque indicates the maximum torque characteristics within 60 s.
For the motor constant under Real sensorless vector control, please contact your sales representative. Compatible Motors

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 Specification comparison between PM sensorless vector control and induction motor control
Item PM sensorless vector control Induction motor control
Applicable motor IPM motor,SPM motor  Induction motor 
200% (FR-E820-0175(3.7K) or less, FR-E840-0095(3.7K)
or less, FR-E860-0061(3.7K) or less)
Starting torque 50% 150% (FR-E820-0240(5.5K) or higher, FR-E840-
0120(5.5K) or higher, FR-E860-0090(5.5K) or higher)
under Real sensorless vector control and vector control
Startup delay of about 0.1 s for magnetic pole position No startup delay (when online auto tuning is not performed
Startup delay
detection. at startup).
Driving by the
commercial power supply Cannot be driven by the commercial power supply. Can be driven by the commercial power supply.
While the motor is coasting, potential is generated across While the motor is coasting, potential is not generated
Operation during coasting
motor terminals. across motor terminals.
Torque control Not available Available under Real sensorless vector control
 For the motor capacity, the rated motor current should be equal to or less than the rated inverter current. (Note that the motor rated current should be 0.4 kW or higher
(0.1 kW or higher for the 200 V class).) If a motor with substantially low rated current compared with the inverter rated current is used, speed and torque accuracies may
deteriorate due to torque ripples, etc. Set the rated motor current to about 40% or higher of the inverter rated current.

NOTE
• Before wiring, make sure that the motor is stopped. Otherwise an electric shock may occur.
• Never connect an IPM motor to the commercial power supply.
• No slippage occurs with an IPM motor because of its characteristic. If an IPM motor, which took over an induction motor, is driven at the same
speed as for the induction motor, the running speed of the IPM motor becomes faster by the amount of the induction motor's slippage. Adjust
the speed command to run the IPM motor at the same speed as the induction motor, as required.

11
Compatible Motors

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 Countermeasures against deterioration of the 400 V class motor insulation

When driving a 400 V class motor by the inverter, surge voltages attributable to the wiring constants may occur at the motor terminals, deteriorating the
insulation of the motor. When the 400 V class motor is driven by the inverter, consider the following countermeasures:

 With induction motor

It is recommended to take one of the following countermeasures:
 Rectifying the motor insulation and limiting the PWM carrier frequency according to the wiring length
For the 400 V class motor, use an insulation-enhanced motor.
Specifically,
• Order a "400 V class inverter-driven insulation-enhanced motor".
• For the dedicated motor such as the constant-torque motor and low-vibration motor, use an "inverter-driven dedicated motor".
• Set Pr.72 PWM frequency selection as indicated below according to the wiring length.
Wiring length Wiring length Wiring length
50 m or shorter 50 m to 100 m Longer than 100 m
14.5 kHz or lower 8 kHz or lower 2 kHz lower
 Suppressing the surge voltage on the inverter side
• Connect a surge voltage suppression filter (FR-ASF-H/FR-BMF-H) at the output side of the inverter.
 With PM motor
Use the wiring length of 100 m or shorter when connecting a PM motor.
Use one PM motor for one inverter. Multiple PM motors cannot be connected to an inverter.
When the wiring length exceeds 50 m for a 400 V class motor driven by an inverter under PM sensorless vector control, set "9" (6 kHz) or less in Pr.72
PWM frequency selection.

NOTE
• A surge voltage suppression filter (FR-ASF-H/FR-BMF-H) can be used under V/F control and Advanced magnetic flux vector control.

 Application to special motors  Explosion-proof motor

 Motors with brake To drive an explosion-proof type motor, an explosion-proof test of the
Use the motor with brake having independent power supply for the brake, motor and inverter together is necessary. The test is also necessary
connect the brake power supply to the inverter primary side power and when driving an existing explosion-proof motor.
make the inverter output off using the output stop terminal (MRS) when The inverter is a non-explosion proof structure, install it in a safety loca-
the brake is applied (motor stop). Rattle may be heard according to the tion.
type of the brake in the low speed region but it is not a fault.  Geared motor
 Pole changing motor The continuous operating rotation range of this motor changes depend-
As this motor differs in rated current from the standard motor, confirm the ing on the lubrication system and maker. Especially in the case of oil
maximum current of the motor and select the inverter. Be sure to change lubrication, continuous operation in the low-speed range only can cause
the number of poles after the motor has stopped. If the number of poles gear seizure. For fast operation at higher than 60 Hz, please consult the
is changed during rotation, the regenerative overvoltage protection circuit motor maker.
may be activated to cause an inverter alarm, coasting the motor to a  Synchronous motor other than PM motor
stop. This motor is not suitable for applications of large load variation or
impact, where out-of-sync is likely to occur. Please contact your sales
11
 Submersible motor
Since the motor rated current is larger than that of the standard motor, representative when using this motor because its starting current and Compatible Motors
make selection of the inverter capacity carefully. In addition, the wiring rated current are greater than those of the standard motor and will not
distance between the motor and inverter may become longer, refer to rotate stably at low speed.
page 90 to perform wiring with a cable thick enough. Leakage current  Single phase motor
may flow more than the land motor, take care when selecting the earth The single phase motor is not suitable for variable operation by the
leakage current breaker. inverter.
For the capacitor starting system, the capacitor may be damaged due to
harmonic current flowing to the capacitor. For the split-phase starting sys-
tem and repulsion starting system, not only output torque is not gener-
ated at low speed but it will result in starting coil burnout due to failure of
centrifugal force switch inside. Replace with a three-phase motor for use.

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Compatibility

 Major differences from the FR-E700 series

Item FR-E800 FR-E700
Multiple rating Two ratings (LD/ND) N/A (ND rating only)
ND rating 150% 60 s, 200% 3 s at surrounding air temperature of 50°C
Permissible load 120% 60 s, 150% 3 s at surrounding air
LD rating N/A
temperature of 50°C
200 V class: 0.4K to 22K
200 V class: 0.4K to 15K
Built-in brake transistor 400V class: 0.4K to 22K
400V class: 0.4K to 15K
575V class: 0.75K to 7.5K
— Soft-PWM control / High carrier frequency PWM
V/F control Available
Advanced magnetic flux
vector control Available

Control method General-purpose magnetic Not available Available

flux vector control
Real sensorless vector Available Not available
control
PM sensorless vector
control Available Not available

Speed control Available

Control mode
Torque control Available Not available
0.2 to 590 Hz (under V/F control)
Output frequency 0.2 to 400 Hz
0.2 to 400 Hz (under other than V/F control)
0.015 Hz / 0 to 60 Hz (0 to 10 V / 12 bits)
0.06 Hz / 0 to 60 Hz (0 to 10 V / 10 bits)
Terminal 2 0.03 Hz / 0 to 60 Hz (0 to 5 V / 11 bits)
Frequency 0.12 Hz / 0 to 60 Hz (0 to 5 V / 9 bits)
0.03 Hz / 0 to 60 Hz (0 to 20 mA / 11 bits)
setting
resolution 0.015 Hz / 0 to 60 Hz (0 to 10 V / 12 bits) 0.06 Hz / 60 Hz (0 to 10 V / 10 bits)
Terminal 4 0.03 Hz / 0 to 60 Hz (0 to 5 V / 11 bits) 0.12 Hz / 60 Hz (0 to 5 V / 9 bits)
0.03 Hz / 0 to 60 Hz (0 to 20 mA / 11 bits) 0.06 Hz / 60 Hz (0 to 20 mA / 10 bits)
Major additional functions
• Signals added for additional control methods/
modes (e.g. MC signal for control mode switching)
Terminal function • Signals added for the trace function (e.g. Trace -
trigger input (TRG) signal)
Input signal • Signals added for the PLC function (Sequence
start (SQ) signal)
FR-E800/FR-E800-E: Safety stop function model only.
Safety stop Safety stop input (S1) Safety stop input (S1)
signal Safety stop input (S2) Safety stop input (S2)
Safety stop input common (PC) Safety stop input common (PC)
Major additional functions
Traverse, multi-rating, PLC function, torque limit,
Operational functions trace function, load fault detection, Ethernet -
communication (incl. CC-Link IE TSN, EtherNet/IP),
and others
Major additional functions
• Signals added for additional control methods/
modes
(e.g. Home position return completed (ZP) signal
12 Terminal function To be supported)
• Signals added for the load fault detection function
-

(e.g. Upper limit warning detection (LUP) signal)

Compatibility

• Virtual output terminals for communication (NET

Y1 to Y4)
Specification of terminal
FM 1440 pulses/s at full scale
AM: 0 to +10 V
Specification of terminal -10 to +10 V / 12 bits (Provided only for inverters other than Japanese
AM
specification)
Major additional functions
Output signal Output signal • Signals added for additional control methods/
(for terminal FM / modes (e.g. position command To be supported, -
terminal AM) torque monitor)
• PID measured value 2
Major additional functions
• Signals added for BACnet communication
Output signal (e.g. signal for BACnet reception status) -
(for communication)
• Communication station number
(PU port, CC-Link)
FR-E800/FR-E800-E:
The following signals can be assigned to output
• Safety monitor output (SO)
terminals.
• Safety stop input/output common (SOC)
SAFE signal (used to monitor safety stop status)
Safety stop function • The following signals can be assigned to output
SAFE2 signal (output when a fault is detected)
terminals.
SAFE signal (used to monitor safety stop status)
(Safety stop function model only.)
SAFE2 signal (output when a fault is detected)

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Item FR-E800 FR-E700

Major additional functions
Protective function -
Upper limit fault detection (E.LUP) and others
Protective/ Major additional functions
warning output
Warning function Duplicate IP address (DIP),IP address fault (IP), -
Incorrect parameter setting (SE), and others
Operation panel equipped as standard (not removable).
Operation panel Standard
Four-digit display using a 7-segment LED is employed.
Enclosure surface operation panel (FR-PA07)
Optional Enclosure surface operation panel (FR-PA07)
Parameter unit (FR-PU07(BB))
Main circuit terminals R, S, T, U, V, W, P, PR, N, P1, earth (ground) (screw terminal type)
Standard control circuit terminal model:
Screw type
Shape of terminal block Spring clamp type
Safety stop function model:
Spring clamp type
Standard control circuit terminal model: 7
FR-E800: 7 terminals
Contact input terminals
FR-E800-E: 2 terminals
Safety stop function model: 6 terminals
FR-E800: 2 terminals
Control circuit Analog input 2 terminals
terminal FR-E800-E: 2 terminals
FR-E800: 1 terminal
Relay output 1 terminal
FR-E800-E: 1 terminal
FR-E800: 2 terminals
Open collector output. 2 terminals
FR-E800-E: 0
Pulse output 1 terminal (FM type only) 1 terminal
Analog output 1 terminal (AM type only) N/A
FR-E800/FR-E800-E: S1, S2, PC
Safety I/O signal
S1, S2, SIC, SO, SOC (Safety stop function model only.)
Available, two ports Available, one port
CC-Link IE TSN, CC-Link IE Field Network Basic, CC-Link IE Field Network Basic
Ethernet
EtherNet/IP, PROFINET, MODBUS/TCP, BACnet/ MODBUS/TCP
IP (provided for FR-E800-E only) (provided for FR-E700-NE only)
Communication Available, one port, Mitsubishi inverter protocol, MODBUS RTU
RS-485
(Not available for FR-E800-E and FR-E800-SCE)
Available, mini B connector, USB bus power
Available, mini B connector, USB bus power
USB available
unavailable
(Maximum SCCR: 500 mA)
200/400 V class:
-20°C to +60°C (Derate the rated current when
using the inverter in a temperature exceeding
50°C.)
Surrounding air temperature -10°C to +50°C
575 V class:
-10°C to +60°C (Derate the rated current when
using the inverter in a temperature exceeding
50°C.)
Storage temperature -40°C to +70°C -20°C to +65°C

 Installation precautions
• Removal procedure of the front cover is different. (Refer to the Instruction Manual (Connection).)
• Plug-in options of the FR-A700 series are not compatible.
 Wiring precautions 12
• When the FR-E700 standard control circuit terminal model is replaced, the terminal block type is changed from the screw type to the spring
Compatibility

clamp type.
Use of blade terminals is recommended.
• To use the PU connector, note that wiring methods are different. (Refer to the Instruction Manual (Connection).)

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 Comparison with the FR-E700 series in functions

Differences with the FR-E700
Parameter/function Modifica- Remarks
Addition Deletion Related parameter
tion
Base frequency or other Maximum setting was changed from 400 Hz to 590
functions related to output  Pr.3 and others Hz. Max. 400 Hz when the control method is not V/
frequency F control.
Addition of normally closed (NC contact) input
MRS input selection  Pr.17
specification for terminal X10
Multiple ratings
Stall prevention operation
level and related functions  Pr.22, Pr.150, Pr.165 LD: 120%
ND: 150%
Operation panel main monitor
selection, TM terminal  Pr.52, Pr.54, and others Addition of monitor items (e.g. running speed)
function selection, and related
functions
Frequency / rotation speed
Unit switchover  Pr.53

Restart coasting time  Pr.57, Pr.165 Change of the setting range

and others

Remote setting enabled for deceleration to the

Remote function selection  Pr.59
frequency to the set frequency or lower
• Change of the retry waiting time
• Change of the operation to be performed when a
Retry waiting time  Pr.68
fault that does not trigger a retry occurs during
retry waiting time

Special regenerative brake

duty  Pr.70 Change of the setting range for the brake duty

Addition of the premium efficiency motor SF-PR

Applied motor  Pr.71
series.
Motor capacity, number of Addition of 11 to 30 kW motors.
motor poles, and the like  Pr.80, Pr.81, and others
12 motor poles are supported.
Online auto tuning selection  Pr.95
Built-in potentiometer  Pr.146
switching
Output current detection  Pr.166, Pr.167
operation selection
I/O terminal function selection
and related functions  Pr.178 to Pr.192 Addition of input/output signals
NET output selection  Pr.193 to Pr.196
Control circuit board
Corrosion-Attack-Level Alert  Pr.198
System
PWM frequency automatic
switchover  Pr.260
Brake opening current  Pr.279 The setting range is extended to 400%.
Speed deviation excess
 Pr.285
12 detection frequency
Output terminal filter  Pr.289 The terminal response can be adjusted.
Monitor negative output  Pr.290
selection
Compatibility

Overspeed detection level  Pr.374

Initial communication delay Pr.387, Pr.388, Pr.389,
time, 
heartbeat settings Pr.391, Pr.392
Pr.414 to Pr.417,
Pr.498, Pr.1150 to
PLC function 
Pr.1199, Pr.415 to
Pr.417
Extension output terminal
filter  Pr.418
Gateway address  Pr.442 to Pr.445
Digital torque command  Pr.447, Pr.448
Pr.451, Pr.453 to
Second motor control  Pr.462,Pr.463 and
others
Speed setting reference  Pr.505

Display estimated main circuit  Pr.506

capacitor residual life

Display ABC relay contact life  Pr.507

Display power cycle life  Pr.509
PID signal operation selection  Pr.553, Pr.554
Second frequency search gain  Pr.560
Multiple rating setting  Pr.570

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Differences with the FR-E700

Parameter/function Modifica- Remarks
Addition Deletion Related parameter
tion
PID output suspension
function  Pr.575 to Pr.577
Traverse function  Pr.592 to Pr.597
PID set point and related  Pr.609, Pr.610
settings
Inverter output fault detection
enable/disable selection  Pr.631
Brake opening current  Pr.639
selection
Brake operation frequency  Pr.640
selection
Speed smoothing cutoff
frequency  Pr.654
SF-PR slip amount adjustment  Pr.673 to Pr.675
Input terminal filter  Pr.699 The terminal response can be adjusted.
Device instance  Pr.728, Pr.729
Second motor constant and  Pr.737 to Pr.746
related settings
PID unit selection  Pr.759
Operation panel monitor item
selection  Pr.774 to Pr.776
Operation frequency during  Pr.779
communication error
Acceleration time in low-
speed range  Pr.791, Pr.792
deceleration time in low-speed
range
• Real sensorless vector control, PM sensorless
Pr.800, Pr.702 to vector control Addition
Pr.712, Pr.717, Pr.721, • Addition of torque control
Control mode selection   
Pr.724, Pr.725, and • Deletion of General-purpose magnetic flux vector
others control
• Setting value for V/F control changed to 40
Pr.801 to Pr.810,
Pr.820 to Pr.822,
Real sensorless vector Pr.824 to Pr.826,

control, vector control Pr.830 to Pr.832,
Pr.834 to Pr.836, Pr.850
and others
Analog input offset  Pr.849
adjustment

Low speed detection  Pr.865

Terminal 4 function  Pr.858, Pr.932 to Pr.933

AM output filter  Pr.867
Speed detection hysteresis  Pr.870
OLT level setting  Pr.874

12
Energy saving monitoring  Pr.891 to Pr.899
PID display  Pr.934 to Pr.935
Safety fault code display  Pr.986
Compatibility

Operation panel setting dial  Pr.992

push monitor selection
Fault initiation  Pr.997
PM parameter initialization  Pr.998
Automatic parameter setting  Pr.999
Clock function  Pr.1006 to Pr.1008

Trace function  Pr.1020 to Pr.1047

Filter for monitoring of torque, running speed, and

Monitor filter  Pr.1106 to Pr.1108
excitation current
Inverter-to-inverter link
function  Pr.1124, Pr.1125

Inverter identification enable/

disable selection  Pr.1399
FR-E700-NE supports CC-Link IE Field Network
Ethernet communication Basic, MODBUS/TCP,
function  Pr.1424 to Pr.1457
(CC-Link IE TSN and others) MELSOFT / FA product connection,
and SLMP.
Load characteristics fault  Pr.1480 to Pr.1492
detection

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 Major differences between the standard model (FR-E800) and the Ethernet
communication model (FR-E800-E)
Item FR-E800 FR-E700
Name Standard model Ethernet model
ND rating: 0.1 to 7.5 kW
Applicable motor capacity LD rating: 0.2 to 11 kW
(Same for FR-E800, FR-E800-E, and FR-E800-SCE)
Output, power supply, protective
structure,
cooling system, approximate mass Same for FR-E800, FR-E800-E, and FR-E800-SCE
Outline dimension / Installation
dimension
R, S, T, U, V, W, P, PR, N, P1, earth (ground)
Main circuit terminal
(Same for FR-E800, FR-E800-E, and FR-E800-SCE)
7 terminals: 2 terminals:
Contact input
STF, STR, RH, RM, RL, MRS, RES, SD, PC DI0, DI1, SD, PC
Analog input 2 terminals: 2, 4, 10, 5 (same for FR-E800, FR-E800-E)
Relay output 1 terminal: A, B, C (same for FR-E800, FR-E800-E)
Control circuit
terminal Open collector 2 terminals: RUN, FU, SE N/A
Output
Pulse output 1 terminal: FM type only N/A
Analog output 1 terminal: AM type only N/A
Safety I/O signal 1 terminal: S1, S2, SO, SOC
Available, two ports
Ethernet N/A CC-Link TSN, CC-Link IE Field Network Basic
EtherNet/IP, PROFINET, MODBUS/TCP, BACnet/IP
Safety
communication N/A
Communication Available, one port
RS-485 Mitsubishi inverter protocol N/A
MODBUS RTU
USB Available, mini B connector, USB bus power available
1 slot
Option unit
CC-Link

12
Compatibility

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MEMO

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MEMO

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Warranty

When using this product, make sure to understand the warranty described below.

1. Warranty period and coverage

We will repair any failure or defect (hereinafter referred to as "failure") in our FA equipment (hereinafter referred to as the "Product")
arisen during warranty period at no charge due to causes for which we are responsible through the distributor from which you
purchased the Product or our service provider. However, we will charge the actual cost of dispatching our engineer for an on-site repair
work on request by customer in Japan or overseas countries. We are not responsible for any on-site readjustment and/or trial run that
may be required after a defective unit are repaired or replaced.

[Term]
The term of warranty for Product is twelve months after your purchase or delivery of the Product to a place designated by you or
eighteen months from the date of manufacture whichever comes first ("Warranty Period"). Warranty period for repaired Product cannot
exceed beyond the original warranty period before any repair work.

[Limitations]
(1) You are requested to conduct an initial failure diagnosis by yourself, as a general rule. It can also be carried out by us or our
service company upon your request and the actual cost will be charged.
However, it will not be charged if we are responsible for the cause of the failure.
(2) This limited warranty applies only when the condition, method, environment, etc. of use are in compliance with the terms and
conditions and instructions that are set forth in the instruction manual and user manual for the Product and the caution label affixed
to the Product.
(3) Even during the term of warranty, the repair cost will be charged on you in the following cases;
1) a failure caused by your improper storing or handling, carelessness or negligence, etc., and a failure caused by your hardware
or software problem
2) a failure caused by any alteration, etc. to the Product made on your side without our approval
3) a failure which may be regarded as avoidable, if your equipment in which the Product is incorporated is equipped with a safety
device required by applicable laws and has any function or structure considered to be indispensable according to a common
sense in the industry
4) a failure which may be regarded as avoidable if consumable parts designated in the instruction manual, etc. are duly
maintained and replaced
5) any replacement of consumable parts (condenser, cooling fan, etc.)
6) a failure caused by external factors such as inevitable accidents, including without limitation fire and abnormal fluctuation of
voltage, and acts of God, including without limitation earthquake, lightning and natural disasters
7) a failure generated by an unforeseeable cause with a scientific technology that was not available at the time of the shipment of
the Product from our company
8) any other failures which we are not responsible for or which you acknowledge we are not responsible for

2. Term of warranty after the stop of production

(1) We may accept the repair at charge for another seven (7) years after the production of the product is discontinued. The
announcement of the stop of production for each model can be seen in our Sales and Service, etc.
(2) Please note that the Product (including its spare parts) cannot be ordered after its stop of production.

3. Service in overseas
Our regional FA Center in overseas countries will accept the repair work of the Product; however, the terms and conditions of the repair
work may differ depending on each FA Center. Please ask your local FA center for details.

4. Exclusion of loss in opportunity and secondary loss from warranty liability

Regardless of the gratis warranty term, Mitsubishi shall not be liable for compensation to:
(1) Damages caused by any cause found not to be the responsibility of Mitsubishi.
(2) Loss in opportunity, lost profits incurred to the user by Failures of Mitsubishi products.
(3) Special damages and secondary damages whether foreseeable or not, compensation for accidents, and compensation for
damages to products other than Mitsubishi products.
(4) Replacement by the user, maintenance of on-site equipment, start-up test run and other tasks.

5. Change of Product specifications

Specifications listed in our catalogs, manuals or technical documents may be changed without notice.
13
Warranty

6. Application and use of the Product

(1) For the use of our product, its applications should be those that may not result in a serious damage even if any failure or
malfunction occurs in product, and a backup or fail-safe function should operate on an external system to product when any failure
or malfunction occurs.

(2) Our product is designed and manufactured as a general purpose product for use at general industries.
Therefore, applications substantially influential on the public interest for such as atomic power plants and other power plants of
electric power companies, and also which require a special quality assurance system, including applications for railway companies
and government or public offices are not recommended, and we assume no responsibility for any failure caused by these
applications when used.
In addition, applications which may be substantially influential to human lives or properties for such as airlines, medical treatments,
railway service, incineration and fuel systems, man-operated material handling equipment, entertainment machines, safety
machines, etc. are not recommended, and we assume no responsibility for any failure caused by these applications when used.
We will review the acceptability of the abovementioned applications, if you agree not to require a specific quality for a specific
application. Please contact us for consultation.

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 India Coimbatore FA Center
MITSUBISHI ELECTRIC INDIA PVT. LTD.
Coimbatore Branch

Production bases Under the lead of Nagoya Works, we form a powerful network to optimize our manufacturing processes.

Domestic bases Production bases overseas

Nagoya Works MDI Mitsubishi Electric Dalian Industrial Products Co., Ltd. MEI Mitsubishi Electric India Pvt.

Shinshiro Factory MEAMC Mitsubishi Electric Automation Manufacturing (Changshu) Co., Ltd.
Kani Factory
MEATH Mitsubishi Electric Automation (Thailand) Co., Ltd.

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113
 This solution solves customers' issues and concerns by
enabling visualization and analysis that lead to improvements
and increase availability at production sites.
Utilizing our FA and IT technologies and collaborating with e-F@ctory Alliance partners, we reduce the total cost across the entire
supply chain and engineeringchain, and support the improvement initiatives and one-step-ahead manufacturing of our customers.

Procurement Sale, logistics,

Supply chain and service
Production
and
manufacturing
FA integrated solutions Engineering
Product
design
Process
design Operation/Maintenance

reduce total cost chain

iQ-Works/EZSocket iQ Care
(prevention, predictive maintenance,
(CAD/simulation linkage) remote maintenance service)

Overall production information is captured in addition to energy information, enabling the realization of efficient production and energy use (energy savings).

•Trademarks
PROFIBUS, PROFINET, and PROFIsafe are either trademarks or Ethernet is a registered trademark of Fuji Xerox Corporation in Japan.
registered trademarks of PROFIBUS & PROFINET International.
DeviceNet, EtherNet/IP, and CIP safety are either trademarks or
CC-Link IE TSN and CC-Link IE Field Network Basic are registered
trademarks of CC-Link Partner Association.
Safety Warning
registered trademarks of ODVA. QR Code registered trademark of DENSO WAVE INCORPORATED. To ensure proper use of the products listed
EtherCAT is a trademark of Beckhoff Automation GmbH. App Store is a service mark of Apple Inc.
Safety over EtherCAT is a trademark of Beckhoff Automation GmbH. Google Play and the Google Play logo are trademarks of Google LLC. in this catalog, please be sure to read the
MODBUS is a registered trademark of SCHNEIDER ELECTRIC USA, INC. Other company and product names herein are the trademarks and instruction manual prior to use.
BACnet is a registered trademark of the American Society of Heating, registered trademarks of their respective owners.
Refrigerating and Air-Conditioning Engineers (ASHRAE).

114
 Automation solutions

YOUR SOLUTION PARTNER

Low voltage: MCCB, MCB, ACB

Medium voltage: VCB, VCC

Power monitoring, energy management

Mitsubishi Electric offers a wide range of automation equipment from PLCs and HMIs to
CNC and EDM machines.

Compact and Modular Controllers

A NAME TO TRUST This is why you can rely on

Mitsubishi Electric automation Inverters, Servos and Motors
Since its beginnings in 1870, some
45 companies use the Mitsubishi solution - because we know first
name, covering a spectrum of hand about the need for reliable,
finance, commerce and industry. efficient, easy-to-use automation and
control in our own factories.
Visualisation: HMIs
The Mitsubishi brand name is
recognized around the world as a As one of the world’s leading
symbol of premium quality. companies with a global turnover of
over 4 trillion Yen (over $40 billion),
Mitsubishi Electric Corporation is employing over 100,000 people,
Mitsubishi Electric has the resource Numerical Control (NC)
active in space development,
transportation, semi-conductors, and the commitment to deliver the
energy systems, communications ultimate in service and support as
and information processing, audio well as the best products.
visual equipment and home
Robots: SCARA, Articulated arm
electronics, building and energy
management and automation
systems, and has 237 factories and
laboratories worldwide in over 121
countries.
Processing machines: EDM, Lasers, IDS

Transformers, Air conditioning, Photovoltaic systems

* Not all products are available in all countries.

115
 Mitsubishi Electric Corporation Nagoya Works is a factory certified for ISO14001 (standards for
environmental management systems)and ISO9001(standards for quality assurance management systems)

HEAD OFFICE: TOKYO BLDG., 2-7-3, MARUNOUCHI, CHIYODA-KU, TOKYO 100-8310, JAPAN

L(NA)06131ENG-A (1912) MEE