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The New SWP Series MC Based Digital Controllers are advanced microprocessor-based instruments designed for high performance and user-friendly parameter settings. They support various standard input types, networking data communications, and offer features like automatic adjustment, memory protection, and multiple alarm settings. The instruments are versatile, reliable, and suitable for diverse applications, ensuring flexibility for users in managing parameters without manufacturer dependency.
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0% found this document useful (0 votes)
16 views17 pages

双路表

The New SWP Series MC Based Digital Controllers are advanced microprocessor-based instruments designed for high performance and user-friendly parameter settings. They support various standard input types, networking data communications, and offer features like automatic adjustment, memory protection, and multiple alarm settings. The instruments are versatile, reliable, and suitable for diverse applications, ensuring flexibility for users in managing parameters without manufacturer dependency.
Copyright
© © All Rights Reserved
We take content rights seriously. If you suspect this is your content, claim it here.
Available Formats
Download as PDF, TXT or read online on Scribd
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New SWP Series

MC Based Digital Controllers

Swp Series Measure-Display-Control

Instrument

·Microprocessor-based high performance auto-adjustment

·User-friendly fully accessible parameter setting

·Variety of standard universal input selection

·Ease-to use networking data communications

CHARM FAITH AUTO SYSTEM CO., Ltd. Hong Kong


NEW SWP Series MC Based Digital Controllers
New SWP series instruments are developed by our expertise of designing and manufacturing of instruments for years, which provided
with newest components and control algorithm. They will present the features of intelligent, standardization, as well as high reliability of
microprocessor-based instruments to our customers.
Based upon many customers are already familiar with our Wide plus instruments, New SWP series will bring up a new way to setting
the internal parameters(including input type, calculation, output parameter, communication protocol, etc.)of instruments. The feature of
instrument with several purposes will provide more flexibility for our customers to deal parameters without depending on the manufacturer.
New SWP series instruments support multiple units networking data communication, different kinds of standard, non-standard serial
bi-direction communication function. Many data communication protocols can be chosen, such as RS-232, RS-422, RS-485, etc. It is
possible for multiple units to communicate to a computer or programmer, baud rate is 300-9600bp/s.
We believe that our customers will obtain more advantages with using New SWP series instruments.

MAIN FEATURES:
. All new concept of digitized automatic adjustment
. Support multi-units data communications, user-programmable protocol
. Unique fully accessible user-programmable setting
. Setting of input signal . Setting of zero and range of measuring value
. Alarm setting . Setting of outputs
. Parameters saved in memory to against power failure and password protection
. Total digitized cold-junction compensation
.Variety of external dimensions
.AC/DC switching power supply
1. INPUT SIGNALS & TRANSDUCERS
1) Standard Temperature Sensors:
Type Resolution ℃ Sensor Range
B 1 Pt30 - Pt6Rh 400~1800 ℃
S 1 Pt10 - Pt 0~1600 ℃
K 1 NiCr - NiSi 0~1300 ℃
E 1 NiCr - 康铜 0~1000 ℃
Input
J 1 Fe - 康铜 0~1200 ℃
T 1 Cu - 康铜 -200~400 ℃
Signal
WRe 1 W3 – W25 0~2300 ℃
Pt100 1 Pt RTD R0=100Ω -199~650 ℃
Pt100 0.1 Pt RTD R0=100Ω -199.9~320.0℃
Cu50 0.1 Cu RTD R0=50Ω -50.0~150.0℃
2) Standard Transducers:
Signal Range Input Resistance Transducer Range
mV level ≥10MΩ Hall Transducer
0~10mA ≤500Ω DDZ -Ⅱ
To be set by user
Input 4~20mA ≤250 DDZ -Ⅱ
0~5V ≥250kΩ DDZ -Ⅱ
-1999~9999 digit
Signal 1~5V ≥250kΩ DDZ -Ⅱ
30~350Ω remote resistance
pressure detector
★Note: Please indicate special request in the order.
2. Technical Parameters
INPUT RTD: PT100, CU100, CU50, etc.
Thermocouple: B, S, K, E, J, T, W, etc.
Current: 0~10mA, 4~20mA, 0~20mA, etc. (Ri≤250Ω)
Voltage: 0~5V, 1~5V, etc. (Ri≥250Ω)
RANGE -1999—9999 digit
ACCURACY 0.2% of Full Scale ±1 digit or 0.5% of Full Scale ±1 digit
DISTINGUISH ABILITY ±1 digit
TEMPRATURE COMPENSATION 0—50℃

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NEW SWP Series MC Based Digital Controllers
DISPLAY -1999—9999 Measuring Value Display
-1999—9999 Set Point Value Display
Light Emitting Diode Status Display
Bright LED digital display
Selectable 0.28” LED display
Selectable 0.56” LED display
Selectable 0.8” LED display
CONTROL METHOD Three position ON/OFF with hysteresis
OUTPUT Relay contact output: 220V AC/3A; 24V DC/5A(resistive load)
Standard analog signal output: 0~10 mA(≤500ohm)
4~20 mA(≤250ohm)
0 ~ 5 V(≥250 K ohm)
1 ~ 5 V(≥250 K ohm)
Control output: SCR output 400V/0.5A
SSR output 6V/50mA
Power supply: DC24V/30mA
ALARM Selectable relay high/low alarm output, LED indication
ALARM SENSITIVITY ±1 digit
COMMUNICATIONS Different standard bi-directional serial data communication, i.e.
RS-485, RS422, RS232, etc.
Baud rate 300~9600 bps internal parameters are flexible.
The RING connections are used for the communications between multi-instruments
and main computer (PC, Programmer, Varity of computers, etc.)
SETTING Front Panel touch keypad digital setting
Data retention upon power failure via nonvolatile memory password protection for
parameter settings
PROTECTION Input loop break Alarm (Relay output, LED indication)
break Alarm(Relay output, LED indication)
Under-pressure automatic recovery
Unusual operation automatic recovery (watch dog)
OPERATING EVIROMENT Ambient Temperature 0~50℃
Relative Humidity ≤85RH
Avoid heavy corrodent gas
Power Supply Normal: AC220V+10-15% 50Hz±2Hz
Special: AC90V~260V---Switching Power Supply
DC24V±2V---Switching Power Supply
POWER CONSUMPTION ≤5W(AC220V Power Supply)
≤4W(AC90~265V---Switching Power Supply )
≤4W(DC24V---Switching Power Supply )
CONSTRUCTION Standard Inserting Type
WEIGHT 420g(AC220V Power Supply )
260g(Switching Power Supply)

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NEW SWP Series MC Based Digital Controllers
3. OPENRATION THEORY
1) Front Panel Layout:
SWP Digit Display Serial

First Input Unit


st
First Input 1 Alarm Indicator st
Second Input 1 Alarm Indicator
PV Display nd
Second Input 2 Alarm Indicator
nd
First Input 2 Alarm Indicator
SV Display
Second Input Unit

Parameter Setting Key Reset Key


Decrement Key

Increment Key

Name Description

. recording previous set value


. change parameters setting mode in turn
Parameter Setting Key . change display or parameters setting

Operation . used for increment the value when changing setting


Key Decrement Key . continuous depressing will decrement quickly

. used for decrement the value when changing setting


Increment Key . continuous depressing will increment quickly
Reset Key .Manual Reset (not shown on front panel)
PV Display .display channel1 measuring value
SV Display .display channel2 measuring value
Display
PV Light Bar Display .display percentage of measuring value
SV Light Bar Display .display percentage of measuring value
(1AL1)(Red) st
.lighted when first input 1 alarm is ON
First Input 1st Alarm Indicator
(1AL2)(Green) nd
nd .lighted when first input 2 alarm is ON
First Input 2 Alarm Indicator
Indicator
(2AL1)(Red) st
st .lighted when second input 1 alarm is ON
Second Input 1 Alarm Indicator
(2AL2)(Green) nd
nd .lighted when second input 2 alarm is ON
Second Input 2 Alarm Indicator

2) Operation:
Operation is based on SWP-D823, other models are similar.

① Wiring Correctly:
After inserting the unit into the control panel, please connect the inputs, outputs and power wires according to the wiring diagram,
and check if the connection is correct.
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NEW SWP Series MC Based Digital Controllers
② Power on
There is no power switch on the device, so the device will be started up as soon as power is connected.
③ Device ID and Version Display

Power On

Auto-switch

Self-test

Auto-switch

Display Input Analog Signal


Display Version

Channel1 Type
Channel2 Type

Channel1 Input Range

Channel2 Input Range

Display Measuring Value

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NEW SWP Series MC Based Digital Controllers
★NOTE:Type Number Display Parameter Table:
Display B S K E T J L C
Type B S K E T J WR Cu50
Display P P。 A 1 2 3 4
Type Pt100 Pt100.1 Special 0~10mA 4~20mA 0~5V 1~5V
3) Parameters Setting
① Unlock
Change parameter CLK to “00” or “132”. When CLK=00, only primary parameters can be set; when CLK=132, both primary
and secondary parameters can be set.
Press SET key, PV displays CLK, SV displays CLK value.
Press ▼ key, decrease CLK value.
Press ▲ key, increase CLK value.
Press SET key, finish CLK setting.
② Primary Parameters Setting
Please unlock firstly.
Press ▼ key, decrease current parameter’s value.
Press ▲ key, increase current parameter’s value.
Press SET key, finish current parameter setting and display next parameter’s value in SV display.
Repeat above steps to modify all the primary parameters.
After setting the last parameter it backs to the first.
③ Secondary Parameters Setting
When CLK=132, press both SET key and ▼ key for 5 seconds to enter secondary parameters setting.
Press ▼ key, decrease current parameter’s value.
Press ▲ key, increase current parameter’s value.
Press SET key, finish current parameter setting and display next parameter’s value in SV display.
Repeat above steps to modify all the primary parameters.
After setting the last parameter it backs to the first.
④ Return to Measuring Value Display Mode
Manual: in parameter setting mode, press SET key for 5 seconds to return to Measuring Value Display mode.
Auto-return: in parameter setting mode, not any operation in 30 seconds, the device will automatically return to Measuring Value
Display mode.
Reset: in any mode, press RESET key, the device will self-test and enter Measuring Value Display mode.
4. Instrument Parameters
1) Primary Parameters
Symbol Name Set range Notes Preset value
CLK=00 . Not locked ( parameter set value can be changed)
CLK Lock set parameter CLK≠00 or 132 . Locked (parameter set value cannot be changed) 00
CLK=132 . Into the second parameter setting
. Display set value of 1st alarm in the first input
1st alarm value 50
1AL1 - 1999~9999 . Others see the note for AL1 and AL2, and indicate
in the first input or 50.0
when ordering
. Display set value of 2nd alarm in the first input
2nd alarmvalue 50
1AL2 -1999~9999 . Others see the note for AL1 and AL2, and indicate
in the first input or 50.0
when ordering
1st alarm
back-difference
1AH1 0~9999 . Display 1st alarm back-difference value of first input 0
value
in the first input
2nd alarm
back-difference
1AH2 0~9999 . Display 2nd alarm back-difference value of first input 0
value
in the first input

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NEW SWP Series MC Based Digital Controllers
st . Display set value of 1st alarm in the second input
1 alarm value 50
2AL1 - 1999~9999 . Others see the note for AL1 and AL2, and indicate
in the second input or 50.0
when ordering
. Display set value of 2nd alarm in the second input
2nd alarm value 50
2AL2 -1999~9999 . Others see the note for AL1 and AL2, and indicate
in the second input or 50.0
when ordering
1st alarm
back-difference . Display 1st alarm back-difference value
2AH1 0~9999 0
value of second input
in the second input
2nd alarm
back-difference . Display 2nd alarm back-difference value
2AH2 0~9999 0
value of second input
in the second input
★NOTE:When setting parameters, PV displays current parameter’s symbol and SV displays its value.
2) Secondary Parameters
Warning: Following operations only for the professionals!
In primary parameters setting mode, modify CLK to “132”. When PV displays CLK set value (132), pressing SET key and ▲ key
simultaneously for 30 seconds will put device into secondary parameters setting mode. In this mode, parameter will switch over to next one
by every press of SET key (after the last one it will back to the first).
★NOTE:DE, BT only for those devices with communication ability.

Param Name Range(digit) Description


DE Device ID 0~250 .setting communication id of the device
BT=0 .Bode rate=300bps
BT=1 .Bode rate=600bps

Communication BT=2 .Bode rate=1200bps


BT Data Rate BT=3 .Bode rate=2400bps
BT=4 .Bode rate=4800bps
BT=5 .Bode rate=9600bps
1SL0 First Input Type Number 0~20 .first input type(see P24 Note 1)
1SL1=0 .none(display XXXX)
1SL1=1 .tens(display XXX.X)
1SL1 Radix Point
1SL1=2 .hundreds(display XX.XX)
1SL1=3 .thousands(display X.XXX)
First Input 1SL2=0 .no alarm
1SL2 1st alarm 1SL2=1 .lower limit
Type 1SL2=2 .upper limit

First Input 1SL3=0 .no alarm


1SL3 2nd alarm 1SL3=1 .lower limit
Type
1SL3=2 .upper limit
.internal cold-junction compensation,linear light
1SL4=0
bar
.external cold-junction compensation,linear light
First Input 1SL4=1
bar
1SL4 cold-junction compensation type
and light bar display model .internal cold-junction compensation,matrix light
1SL4=2
bar,
.internal cold-junction compensation,matrix light
1SL4=3
bar
1SL5=0 .no flickering alarm when out of scale
1SL5 First Input Flickering Alarm
1SL5=1 .flickering alarm when out of scale
.setting Filtering Coefficient to stabilize the
1SL6 First Input Filtering Coefficient 1~10
display (P25 Note 2)
1SL7 Reserved

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NEW SWP Series MC Based Digital Controllers
1Pb1 First Input Display Zero Offset Full scale .setting display zero offset(see P25 Note 3)
First Input Display Scale
1KK1 0~1.999 times . setting display scale proportion(see P25 Note 3)
Proportion
First Input Cold-junction . setting cold-junction compensation zero offset
1Pb2 Full scale
Compensation Zero Offset (see P26 Note 4)
First Input Cold-junction . setting cold-junction compensation proportion
1KK2 0~1.999 times
Compensation Proportion (see P26 Note 4)
First Transmit Output Zero .setting transmit output zero offset(see P26 Note
1Pb3 0~100%
Offset 5)
First Transmit Output .setting transmit output proportion(see P26 Note
1KK3 0~1.999 times
Proportion 5)
Lower Limit of First Transmit
1OUL Full scale .setting lower limit value of transmit output scale
Output Scale
Upper Limit of First Transmit
1OUH Full scale .setting upper limit value of transmit output scale
Output Scale
.setting lower limit value of flickering alarm
Lower Limit of
Full scale (measuring value flickers when it lower than this
First Input Flickering Alarm
1PVL set point, valid when 1SL5=1)
Lower Limit of .setting lower limit value of light bar display scale
Full scale
First Input Light Bar Display (only valid for light bar display)
.setting upper limit value of flickering alarm
Upper Limit of
Full scale (measuring value flickers when it upper than this
First Input Flickering Alarm
1PVH set point, valid when 1SL5=1)
Upper Limit of .setting upper limit value of light bar display scale
Full scale
First Input Light Bar Display (only valid for light bar display)
Lower Limit of First Input
1SLL Full scale .setting the lowest input that can be measured
Measuring Range
Upper Limit of First Input
1SLH Full scale .setting the highest input that can be measured
Measuring Range
.setting percentage of small signal
1SLU First Input Signal Cutting 0~100% cutting(displaying “0” when input signal less than
this set point)
2SL0 Second Input Type Number 0~20 .second input type(see P24 Note 1)
2SL1=0 .none(display XXXX)
2SL1=1 .tens(display XXX.X)
2SL1 Radix Point
2SL1=2 .hundreds(display XX.XX)
2SL1=3 .thousands(display X.XXX)
Second Input 2SL2=0 .no alarm
2SL2 1st alarm 2SL2=1 .lower limit
Type 2SL2=2 .upper limit

Second Input 2SL3=0 .no alarm


nd
2SL3 2 alarm 2SL3=1 .lower limit
Type
2SL3=2 .upper limit
.internal cold-junction compensation,linear light
2SL4=0
bar
.external cold-junction compensation,linear light
Second Input 2SL4=1
bar
2SL4 cold-junction compensation type and
.internal cold-junction compensation,matrix light
light bar display model 2SL4=2
bar,
.internal cold-junction compensation,matrix light
2SL4=3
bar
2SL5=0 .no flickering alarm when out of scale
2SL5 Second Input Flickering Alarm
2SL5=1 .flickering alarm when out of scale
.setting Filtering Coefficient to stabilize the
2SL6 Second Input Filtering Coefficient 1~10
display (P25 Note 2)

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NEW SWP Series MC Based Digital Controllers
2SL7 Reserved
Second Input Display Zero
2Pb1 Full scale .setting display zero offset(see P25 Note 3)
Offset
Second Input Display Scale
2KK1 0~1.999 times . setting display scale proportion(see P25 Note 3)
Proportion
Second Input Cold-junction . setting cold-junction compensation zero offset
2Pb2 Full scale
Compensation Zero Offset (see P26 Note 4)
Second Input Cold-junction . setting cold-junction compensation proportion
2KK2 0~1.999 times
Compensation Proportion (see P26 Note 4)
Second Transmit Output Zero .setting transmit output zero offset(see P26 Note
2Pb3 0~100%
Offset 5)
Second Transmit Output .setting transmit output proportion(see P26 Note
2KK3 0~1.999 times
Proportion 5)
Lower Limit of Second Transmit
2OUL Full scale .setting lower limit value of transmit output scale
Output Scale
Upper Limit of Second Transmit
2OUH Full scale .setting upper limit value of transmit output scale
Output Scale
.setting lower limit value of flickering alarm
Lower Limit of
Full scale (measuring value flickers when it lower than this
Second Input Flickering Alarm
2PVL set point, valid when 2SL5=1)
Lower Limit of .setting lower limit value of light bar display scale
Full scale
Second Input Light Bar Display (only valid for light bar display)
.setting upper limit value of flickering alarm
Upper Limit of
Full scale (measuring value flickers when it upper than this
Second Input Flickering Alarm
2PVH set point, valid when 2SL5=1)
Upper Limit of .setting upper limit value of light bar display scale
Full scale
Second Input Light Bar Display (only valid for light bar display)
Lower Limit of Second Input
2SLL Full scale .setting the lowest input that can be measured
Measuring Range
Upper Limit of Second Input
2SLH Full scale .setting the highest input that can be measured
Measuring Range
.setting percentage of small signal
2SLU Second Input Signal Cutting 0~100% cutting(displaying “0” when input signal less than
this set point)

★NOTE 1:Type Number Display Parameter Table:


Display B S K E T J L
Setting 0 1 2 3 4 5 6
Type Num B S K E T J WRe
Display C P P。 A 0 1 2
Setting 7 8 9 10 11 12 13
Type Num CU50 PT100 PT100.1 special 0~10mA 4~20mA 0~5V
Display 3 4 0. 1. 2. 3. 4.
Setting 14 15 16 17 18 19 20
Type Num 1~5V Reserved 0~10mA ex. 4~20mA ex. 0~5V ex. 1~5V ex. reserved
★NOTE 2:
Filtering Coefficient——sampling times, used to stabilize the display value.
Sampling Period——data acquisition time for frequency input. (0.5 second for analog input)
The relationship between PV display value, filtering coefficient and sampling period is shown below.
Example 1:
For frequency input, when filtering coefficient is 2, sampling period 10 seconds, the display value is the average of the samples
in last 20 seconds (10×2).
Example 2:
For analog input, when filtering coefficient is 6, the display value is the average of the samples in last 3 seconds (0.5×6).
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NEW SWP Series MC Based Digital Controllers
★NOTE 3:Display Offset and Proportion:
Formulae for computing Pb1 and KK1:
KK1=preset scale ÷ display scale × KK1(default)
Pb1=lower limit of preset scale-lower limit of display scale×KK1+Pb1(default)
Example:
A device with 4~20mA DC current input range, measuring scale -200~1000Kpa. During calibration the device displayed -202
with 4mA input and 1008 with 20mA input. (Pb1(default)=0,KK1(default)=1)
According to the above formulae:
KKK= preset scale ÷ display scale × KK1(default)
=[1000-(-200)] ÷[(1008)-(-202)] ×1=1200÷1210×1≈0.992
Pb1= lower limit of preset scale-lower limit of display scale × KK1+Pb1(default)
=200-(-202×0.992)+0=0.384
So parameters should be set as Pb1=0.384,KKK1=0.992
★NOTE 4:Cold-junction Compensation Offset and Proportion:
Adjusting Pb2 and KK2 can change the cold-junction compensation value. Formulae for computing Pb2 and KK2 are similar to
those for Pb1 and KK1.
★NOTE 4:Transmit Output Offset and Proportion:
Adjusting Pb3 and KK3 can change the transmit output value. Formulae for computing Pb3 and KK3 are similar to those for Pb1
and KK1.

5. Type of Transmit Output


The device has dual isolated current or voltage outputs, whose types can be defined by users.
★ Output rang can be modified by changing the secondary parameters.(see secondary parameters)
★ Output type can be modified by the jumpers J3(J4) – DC current or DC voltage output.
★ Following is setting of jumpers J3(J4) ( J3(J4) are on the transmit output sub-board):

Jumpers on D821 serial:


DC Current Output DC Voltage Output

J3(J4)

★Note : jumper’s state : -------- off -------- on

single output sub-board dual outputs sub-board


★Note:
1.Output type can be modified by the jumpers J3(J4) –DC current or DC voltage output;
2.DC current output when 1, 2 pins are on, DC voltage output when 2, 3 pins are on;
3.One the dual outputs sub-board J3 is for first output and J4 for second output.

9
NEW SWP Series MC Based Digital Controllers
6. DIP Setting of Input Sub-board

★Note:
1.There is a DIP switch on the right area of input sub-board, which can be used to define the types of input signals. Switch 1 and 2 are
corresponding to first and second input separately. Switch 3 and 4 are invalid.
2.Switch is “on” for current input.
3.Switch is “off” for voltage input.

DIP switch and jumper on D921serial:


The device is an all-switchable measure-display-control instrument. Its input channels can be switched with the DIP on the input
sub-board. Following is the detail:
1) D921 mainboard’s sketch map:

2) Input channels switching:

★Note:Please set the corresponding type number when switching the channel.
3) Jumper’s state for output:
Pin 7, 8 “on” for current output
Pin 8, 9 “on” for voltage output

10
NEW SWP Series MC Based Digital Controllers
DIP switch and jumper on D721serial:
The device is an all-switchable measure-display-control instrument. Its input channels can be switched with the DIP on the input
sub-board. Following is the detail:
1) D721 mainboard’s sketch map:

2) Input channels switching:

3) Jumper’s state for output:


Pin 5, 6 “on” for current output
Pin 6, 7 “on” for voltage output
★Note:Output means the first transmit output.
DIP switch and jumper on D421serial:
The device is an all-switchable measure-display-control instrument. Its input channels can be switched with the DIP on the input
sub-board. Following is the detail:
1) D421 mainboard’s sketch map:

11
NEW SWP Series MC Based Digital Controllers
2) Input channels switching:

★Note:Please set the corresponding type number when switching the channel.
3) Jumper’s state for output:
Pin 7, 8 “on” for current output
Pin 8, 9 “on” for voltage output

7. Installation and Application


The instrument uses standard insertion type structure for its enclosure, it can be directly mounted into the panel.
1) Panel Drill Dimension ( mm )

SWP - D82.T82 serial(horizontal) SWP - D42 serial(horizontal) SWP-D72 serial


+0.7
152 -0 +0.7
92 -0 68
+0.7
-0

+0.7
76 -0 +0.7
45 -0
+0.7
68 -0
30 30

30
SWP - S82. ST82serial(vertical) SWP - S42 serial(vertical) SWP - D92serial

+0.7
+0.7 +0.7 92 -0
76 -0 45 -0

+0.7 +0.7 +0.7


152 -0 92 -0 92 -0

30 30
30
2) How to Wire
Please refer to the “Wiring Diagram”.
3) Wire Connection
① Please keep input signal lines away from any power lines and load lines to avoid interference.
② Instrument’s power line should avoid interference from other power lines, if necessary dedicated filter can be used ( please
identify instrument’s power voltage firstly)
☆ please according its frequency respond to choose the power filter for better performance.
please shorten the pitch of instrument’s power line to reduce the interference.
the power filter must be installed on a well grounded panel, and the connection between its output and instrument’s power
input should be as short as possible.
adding in fuse on the power filter output will reduce its performance.
power source filter instrument’s power input
12
NEW SWP Series MC Based Digital Controllers

shorten pitch as short as possible power line


2
please use electrical specification compatible power line ( ground line’s cross section area should be about 1.25~2.0mm
and as short as possible).
③ There is 2~3 output preparation time after power on, so if output is a part of external loop please use time delay relay.
8. Maintenance
1) There is no need for special maintenance under normal condition.
2) Trouble Shooting:
Some situations are described below:
Please identify the device’s type and contact our technical support or distributors for further questions.
Phenomena Cause How to deal with
incorrect power wiring Please refer to “Wiring Diagram” for correct wiring
no display
Illegal power source Please refer to “Technical Parameters” for legal power source
Display
abnormal display Interfered with noise intensively Please refer to “Wire Connection” for noise elimination
flicker Input loop burn out Please send for repairing
Illegal sensor Please use acceptable sensor
Incorrect sensor wiring Please refer to “Wiring Diagram” for correct wiring
Sensor plugged not deeply enough Please check sensor and instrument’s contact then plug again
Control abnormal control
sensor plugged into wrong
Please plug sensor into correct position
position
Interfered with noise intensively Please refer to “Wire Connection” for noise elimination
Incorrect output wiring Please refer to “Wiring Diagram” for correct wiring
Incorrect parameter setting Please set parameters correctly
Control no output
Incorrect parameter setting
Please refer to “Operation Theory” for correct operation
operation
Operation invalid key Setting locked Please refer to “Operation Theory” to unlock setting

3) Exceptional Display:
Display Description Control Output How to deal with
Input loop burn out
OH Over scale Upper limit alarm relay ON Please check the input
PV over upper limit of display signal type, rang, sensor
Under - scale and its wiring
OL PV under lower limit of display
Lower limit alarm relay ON

4) Maintenance and checking: following the guide lines below will keep the device optimize.
Object Guide Line
. if relay contact output, please check whether there are burn our, worn out, bad contact, etc.
. check output relay. if worn out, please replace.
. if DC voltage output, please check output voltage level
Output Note: also check external executor
and load . if DC current output, please check output current level
loop Note: also check external executor
. please check for load not burn out
. please check for correct wiring
. please check for no bad contact
. please check for correct configuration
Sensor . please replace before worn out
. please check for no burn out or short circuit
. please check for correct parameters setting
Device . please check for working normally
. please check for correct operation

9. WIRING DIAGRAM
13
NEW SWP Series MC Based Digital Controllers
Symbol A:SWP-D821、D823(horizontal) B:SWP-S821、S823(vertical)
The second SV input The first PV input
RTD RTD

The first
PV input
Pv
2ALM1 NO NO 1ALM1
changed output
mA or V
RTD Alarm output II Alarm output I

2ALM2 NO NO 1ALM2
The second SV PV
SV input changed output changed output
RxD
Ground mA 或 V mA 或 V
SV
connection
Wiring changed output
mA or V
RS-232 TxD
electrical
Diagram RTD GND source
AC220V
RS-232 SV Alarm output
GND TxD RxD 2ALM2 2ALM1

Note: If there is difference between a special controller and


this one, please see the wiring diagram together with the
special one.

electrical Ground
source connection 1ALM2 1ALM1
AC220V PV Alarm output

Remark PV Input: TC or frequency SV Input:TC or frequency PV Input:mA or V SV Input:mA or V

Control output:DC24V Communication port:RS-485 Power supply:DC24V


T /R (A )

R S -4 8 5
T /R (B )

Symbol Swp-D921、D923
power

power
DC24V SV input 1st SV input 2nd PV input
AC220V NO
PV TC .mA/V or frequency
Feed out changed output
2ALM1
Guard NO RTD
Wiring DC24V mA or V connection
2ALM2 PV input
Diagram 1st PV input 1st SV input
RS-485 communication NO RS-232C
T/R(A) RxD
1ALM2 TxD RTD
T/R(B) mA or V
NO GND
1ALM1
Long-transmitted
pressure resistance
Symbol SWP-D421、D423
Changed Electrial
Electrial ALM1 ALM2 output source Control output
DC24V source mA or V AC220V
DC24V
RxD PV:long- transmitted
pressure resistance
TxD
Wiring GND
Diagram RS-232
PV SV:long- transmitted
input pressure resistance
TC.mA.V
frequency
SV SV input PV input Ground
connection
RTD RTD

★Note: The wiring diagram for the special model instruments, please refer to wiring diagram put on the instrument.

14
NEW SWP Series MC Based Digital Controllers
SWP Serial Dual Channels Light Bar Measure-Display-Control Instrument
Type Code Description
SWP - T □ □□-□□ □-□□/□□□-□/□ □-□-□-□
96×48mm(Horizontal)48×96mm(Vertical)
72×72mm
Dimension
8 160×80mm(Horizontal)80×160mm(Vertical)
9 96×96mm
21 Measure-Display
Control Method
23 Three-Position Control
Communication □ See “Communication” (P50)
First output type □ See “Transmit Output Type”(P51)
Second output type □ See “Transmit Output Type”(P51)
First input type □□ See “Input Type”(P50)
Second input type □□ See “Input Type”(P50)
st N No alarm(may not marked)
First input 1 alarm H Level upper limit control/alarm
type L Level lower limit control/alarm
nd N No alarm(may not marked)
First input 2 alarm H Level upper limit control/alarm
type L Level lower limit control/alarm
st N No alarm(may not marked)
Second input 1 alarm H Level upper limit control/alarm
type L Level lower limit control/alarm
nd L No alarm(may not marked)
Second input 2 alarm N Level upper limit control/alarm
type H Level lower limit control/alarm
P DC 24V feed output
Feed output
2P Dual DC 24V feed output
W DC 24V
Power supply
T AC 90~265V
X Horizontal light bar
Outline
S Vertical light bar

★Input Type:
Code Input type Measuring Range Code Input type Measuring Range
01 B 400~1800 ℃ 12 4~20 mA -1999~99999 d
02 S 0 ~1600 ℃ 13 0~10 mA -1999~99999 d
03 K 0 ~1300 ℃ 14 1~5 V -1999~99999 d
04 E 0 ~1000 ℃ 15 0~5 V -1999~99999 d
05 T -199.9~320.0 ℃ 16 0~20 mA -1999~99999 d
06 J 0 ~1200 ℃ 17 30~350Ω -1999~99999 d
07 WRe 0 ~2300 ℃ 18 Special type User define
08 Pt100 -200~650 ℃ 19 4~20 mA evolution -1999~99999 d
09 Pt100.1 -199.9~199.9℃ 20 0~10mA evolution -1999~99999 d
10 Cu50 -50.0~150.0 ℃ 21 1~ 5 V evolution -1999~99999 d
11 Cu100 -50.0~150.0 ℃ 22 0~5 V evolution -1999~99999 d

★Communication:
Code 0 2 4 8 9
Type None RS-232C RS-422 RS-485 Special type

★Control Output:

Code 0 1 2 3 4 5 6 7 8 9
4~ 0~ Special
Type None Relay 1~5V 0~5V SCR SSR SOT
20mA 10mA
SCR——Silicon Controlled Rectifier, SSR——Solid State Relay, SOT——Silicon Symmetrical Switch

15
NEW SWP Series MC Based Digital Controllers
★Transmit Output Type:
Code 0 2 3 4 5 8
Type None 4~20mA 0~10mA 1~5V 0~5V Special type

★Alarm Output Type:


Code N H L
Type None Upper limit control/alarm Lower limit control/alarm

★Input Type
Input Input
Code Code Code Input type Code Input type Code Input type
type type
1~ 5 V
01 B 05 T 09 Pt100.1 14 1~5 V 18
evolution
0~5 V
02 S 06 J 10 Cu50 15 0~5 V 19
evolution
4~20 mA
03 K 07 WR 12 4~20 mA 16
evolution
0~10mA
04 E 08 Pt100 13 0~10 mA 17
evolution
★Note:Input type can be switch only by setting secondary parameters
example:
SWP-D823-212-10/09-HL/HL-P-W
measure-display;
communication type is RS232;
first output type is relay output;
second output type is 4~20mA;
first input type is CU50;
second input type is Pt100.1;
dual inputs with upper and lower alarm;
DC 24V feed output;
DC 24V power supply.

10. Documents and Attachments


1) One main body of instrument
2) A copy of operating handbook
3) A copy of qualified certificate about product checking
4) Instrument manufacture number

16

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