CONTENTS

Ch.1 Features & specifications

1.1 Main feature ‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧

1.2 General specifications‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧
1.3 Analog specifications ‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧
1.4 Digital specifications‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧
1.5 Interface specifications‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧
1.6 Memory specifications ‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧

Ch.2 Panel description & Installation

2.1 Dimensions ‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧

2.2 Front panel description ‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧
2.3 Rear panel description‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧
2.4 Installation‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧

Ch.3 F-FUNCTION

3.1 F-FUNCTION listed‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧

3.2 F-FUNCTION setting ‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧
3.3 F-FUNCTION key Entering‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧

Ch.4 Application

4.1 Weighing data proceeding control‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧

4.2 Calibration ‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧
4.3 F46～F49&F66～F69 ‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧.‧‧
4.4 "PRINT" Function‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧
4.5 Data printout ‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧
4.6 Double weighing application ‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧
4.7 Animal weighing application ‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧
4.8 Counting scale application‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧
4.9 Data hold mode‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧
4.10 Data memorizing mode‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧
4.11 External control I/O ‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧
4.12 Centronics parallel interface ‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧
4.13 Serial communication interface‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧
APPENDIX A Message Summary
A.1 Indication message‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧ A-1
A.2 Function message‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧ A-1
A.3 Error message ‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧‧ A-3
 CONTENT
Thank you for your HB8212X1 loadcell indicator purchase. The HB8212X1 is the best choice for
weighing application requiring quality, perform ance and economy. Please read this operational
manual before operation to achieve the best performance of the HB8212X1 and to operate it correctly.
This operational manual is composed of 4 chapters and 1 appendix. The first chapter of this manual
provides the main features and specifications of the HB8212X1. Chapter 2 presents the outline, panel
descriptions and installation of the HB8212X1. In Chapter 3 the F-Functions of the HB8212X1 is
introduced. Chapter 4 is devoted to the very important topic of the HB8212X1 applications for the
various type of weighing. Finally, the display messages of the HB8212X1 are given inAppendix A.
 Ch.1 Feature & Specifications
1.1 main features:
◇ Power fail protect circuit design
◇ “watch dog” circuit design
◇ 8 function keys & the function-oriented 10-key realize easy operation
◇ Full digital function setting, calibration and adjustment
◇ Capable of driving up to 8 (350 Ω load cells (280mA)
◇ Set value is stored in the memory for each code number
Possible to store the set value for the FULL weight, PRE1 weight, PRE2 weight, FREE
FALL weight, OVER weight, UNDER weight, etc. in the memory under the code number.
◇ Access the set values by designating the code number through using
the keys on the front panel, using the BCD input signals of the
external control I/O signals or using the serial communication from
a computer or a sequencer.
◇ Serial communication is possible with the RS-232C (bidirectional)
◇ (standard) or the RS-422 (bidirectional)(option).
◇ The HB8212X1 offers various weighing modes for the platform scale,
checker scale and hopper scale such as simple comparison, charging or discharging control for
weighing.

─ 1-1 ─
1.2 General specification:
Power AC110V or AC220V ±10% 50/60 Hz
OP. temperature -10℃~+40℃ (+14℉~+104℉)
Max. Op. humidity 85% relative humidity or less (non-condensing)

Dimensions 202(W) X 105(H) X 155(D)

Weight 2.5 kg
1.3 Analog specifications:
Sensitivity 0.6μV/count
Zero Adj. Range 0~30 mV
Span Adj. Range 0.6μV/count~120μV/count
L.C. excitation DC12V±5%, 280mA
Max. load cells 8 350 Ω load cells in parallel
Temp. Coefficient Zero: 0.2μV/℃ RTI
Span: 15ppm/℃
A/D Conv. rate 20 times per second
Display resolution 300~10000
1.4 Display specifications:
Display 12mm, 7 digits fluorescent tube
Zero indication ▼zero: center of zero (0±0.25D)
Tare indication ▼tare: weight stored in memory
Gross indication ▼gross: gross mode
Net indication ▼net: net mode
Count indication ▼stab: weigher is stable
Stable indication ▼Func: F-function mode
Setting indication Red LED on for AC power is connected

─ 1-2 ─
1.5 Interface specifications:
1. serial communication interface (standard)
Method: half-duplex, asynchronous, Bi-directional
Frame format: Start bit: 1 bit
Data bit: 7,8 bit
Stop bit: 1,2 bit
Parity bit: none/odd/even parity
Baud rate: 1200/2400/4800 bps
Data I/O mode: stream/command/manual/printing mode
2. RS-232C driver/receiver card (standard)
Serial communication interface uses the RS-232C driver/receiver card for RS-232C data transmission
application.
Signal level: EIA RS-232C standard
Transmission distance: 15m
3. RS-422 driver/receiver card (optional OP-02)
Serial communication interface uses the RS-422 driver/receiver card for RS-422 data transmission
application.
Signal level: EIA RS-422 standard. It also meets the signal requirements of RS-485
Transmission distance: 1000m
4. External I/O interface (standard)
11 external output signals: open-collector output isolated with photocouplers.
16 External input signals: Contact input or open-collector input isolated with
photocouplers.

1.6 Memory specifications:

1. Setting data memory: NOV RAM
Memorizing capability 2048 bytes
Endurance: 10000 cycles/byte (min)
Data retention: 10 years (min)
2. Weighing data memory: NiCd rechargeable battery backup SRAM
Memorizing capability: 32 kBytes
Battery endurance: 60mAh
Battery recharging time: 24 hours(min)
Data retention during power OFF: 15 days (min)

─ 1-3 ─
Ch.2 Panel description & Installation
Dimensions

─ 2-1 ─
2.2 Front panel description:

1. Numerical display: <1>. Display weight or count data

<2>. Display setting value or message
2. Status annunciator: <1>. ▼ ZERO : turns on when the weight is the
center of zero (0±0.25D)
<2>. ▼ TARE : turns on when a tare weight has
been stored in memory
<3>. ▼ GROSS : turn on when the display is
showing the gross weight
<4>. ▼ NET : turns on when the display is
showing the net weight
<5>. ▼ COUNT : turns on when the display is
showing the count pieces
<6>. ▼ STAB : turns on when the weigher is
stable
<7>. ▼ FUNC : turns on when the controller is
in the F-function mode
3. Power LED: ● POWER: turns on when AC power is connected.
4. Operation Keys:
Used to return the display to the center of zero
ZERO when the weighing device is empt

TARE Used to set the tare weight

GR/NT Used to switch between gross weight display and net weight display

TARE Used to tare reset

RESET

CODE Used to select CODE

FUNC Used to proceed F- function setting operation

FULL Used to set FULL weight

1

PRE1 Used to set PRE1 or HiHi weight

2 Also used as numerical〝2〞in setting operation

PRE2 Used to set PRE2 or LoLo weight

3 Also used as numerical〝3〞in setting operation

F.F. Used to set Free Fall

4 Also used as numerical〝4〞in setting operation

OVER Used to set OVER weight or Hi limit

5 Also used as numerical〝5〞in setting operation

UNDER Used to set UNDER weight or Lo limit

6 Also used as numerical〝6〞in setting operation

TARE Used to set TARE weight

7 Also used as numerical〝7〞in setting operation

E.ACK Used to back normal display (Eorror Acknowledge)

8 Also used as numerical〝8〞in setting operation

9 Also used as numerical〝9〞in setting operation

0 Also used as numerical〝0〞in setting operation

─ 2-3 ─
 ESC Used to escap from setting operation

ENTER Used to enter set value

2.3 Rear panel description:

1. Slide=locks & screws for panel mounting.

2. Frame ground (FG)
3. AC power switch
4. AC power connector
5. Fuse holder: A fuse holder with a 1A midzet fuse is inserted into the AC power circuit
6. External I/O interface connector (1) :
port Describtion port Describtion
1 common 14 common
2 BCD Bit.0 15 DO near Zero
DI code 01
3 BCD Bit.1 16 DO SP1
DI code 02
4 BCD Bit.2 17 DO SP2
DI code 04
5 BCD Bit.3 18 DO SP3
DI code 08
6 BCD Bit.0 19 DO weighing complete
DI code 10
7 BCD Bit.1 20 DO Error
DI code 20
 8 BCD Bit.2 21 DO upper limlit
DI code 40
9 BCD Bit.3 22 DO lower limit
DI code 80
10 DI Run/Start 23 Common
11 DI Stop 24 DI Chargr/Dicharge
12 DI Tare 25 Common
13 common
7. CAL Switch
8. Sealing Screws
9.Loadcell Connector
Pin Signal
1 +EXC : + Excitation
2 +SEN : + Sense
3 -SEN : - Sense
4 -EXC : - Excitation
5 +SIG : + Signal
6 -SIG : - Signal
7 FG : Shield
10. Standard Serial Communication Interface Connector
Pin Signal
1 FG : Shield
2 RXD+ : RS-232C/422 RXD
3 TXD+ : RS-232/422 TXD
4 NC : Unused
5 SG : SIGNAL GROUND
6 NC : Unused
7 RXD- : RS-422 RXD-
8 TXD- : RS-422 TXD-
9 NC : Unused
11. External control I/O signals connector 2 :
Pin Signal
1 DI ZERO
2 DI TARE
3 DI GR/NT
4 DI TARE RESET
5 common
 6 DO OK (GO)
7 DO OVER (Hi)
8 DO UNDER (Lo)
9 COMMON

2.4 Installation:
To mount the HB8212 into a panel:

─ 2-6 ─
2.LOAD CELL CONNECTION:
4-WIRE CONNECTION:

‧6-WIRE connection :

3.General rules:

Earth the HB8212 to the FG screw located on the rear panel

Do not earth directly to other equipment

The HB8212 has been selected to use a 110VAC or a 220VAC ±10%

(50Hz/60Hz for each) power source before it leaves the factory

The power input is marked on the rear panel. Please ensure that the local AC electricity
power supply is fit for your HB8212

If the local AC electricity supply fluctuates by more than ±10% an AC regulator must be
used to stabilize the power supply

Do not install the HB8212 in direct sunshine

Avoid sudden temperature changes and excessive moisture

The best operation environment for HB8212 is about 20℃/68℉ at 50% relative humidity
─ 2-7─
Ch.3 F-functions
There are a number of HB8212X1 functions that are selectable by the user.These functions,
called F-Functions, control many of the capabilites of theHB8212X1. Please take a moment
to look through all the F-Functions on the following pages.
‧ F-Function 0 : F0X
F-Function Description Set Value
Setpoints
F00 NEAR ZERO ０００００.0
F01 FULL ０００００.0
F02 PRE1 HiNi ０００００.0
F03 PRE2 LoLo ０００００.0
F04 FREE FALL ０００００.0
F05 OVER Hi ０００００.0
F06 UNDER Lo ０００００.0
F07 Tare set ０００００.0
F08 UPER LIMIT ０００００.0
F09 LOWER LIMIT ０００００.0
CONTROL FUNCTION SETING
F10 WEIGHING MODE 0:HOPPER CHARGE MODE
1:HOPPERDISCHARGE MODE
2:HOPPER DI MODE
3:CHECK MODE
F11 CONTROL MODE 0:Simple comparison mode
Check pattern 0
1:SEQUENCE Control Mode
CHECK PATTERN 1
F12 CODE SELECTION 0:INPUTKEYS
1:KEYS&EXTERNAL DI
2:KEYS&SERIAL COMM
F13 NEAR ZERO COMPARISON 0:GROSS WEIGHT
1:NET WEIGHT
F14 OVER/UNDER(Hi/Lo) COMPARISON 0:GROSS WEIGHT
1:NET WEIGHT
F15 UPPER LIMIT COMPARISON 0:GROSS WEIGHT
1:NET WEIGHT

F16 LOWER LIMIT COMPARISON 0:GROSS WEIGHT

1:NET WEIGHT
F17 ZERO/TARE INPUT CONDITION 0:ALL THE TIME
1:WHEN STABLE
F18 TARING RANGE 0:± GROSS
1:± GROSS
F19 NEAR ZERO OUTPUT CONDITION 0:WEIGHTIN≦SETTING
1:WEIGHTIN≦SETTING
F20 OVER/UNDER (Hi/Lo) OUTPUT CONDITION 0:AT WEIGHT COMPLETE
1:ALL THE TIME
F21 AUTO TARE FUNCTION 0:OFF
1:ON
F22 SELECTION OF CONTROL OUTPUT 0:STANDARD
1:SIGNAL CHARGE
F23 WEIGHING COMPLETE OUTPUT 0:AFTER Pass the finish Timer
1:When the weighing valus is
stable after passing The finish
timer
F24 WEIGHING COMPLETE OUPUT 2.0
(JUDGMENT) TIME (0.0~ 9.9 Sec)
F25 INHIBITION TIME (0.0~ 9.9 Sec) 0.5
F26 FINISH TIME (0.0~ 9.9 Sec) 1.5
F27 UNUSED
F28 UNUSED
F29 UNUSED
GENERAL FUNCTION SETTING
F30 WEIGHT UNITS 0:kg
1:T
2:g
3:1b
F31 DISPLAY FREQUENCY 0:5.00 TIME/SEC
1:2.50 TIME/SEC
2:1.25 TIME/SEC
3:1.00 TIME/SEC
F32 POWER-ON ZERO 0:OFF
1:ON
F33 ZERO RANGE 0:2% CAPACITY
1:5% CAPACITY
2:25% CAPACITY
3:100% CAPACITY
F34 ZERO TRACKING 0:INHIBIT
1:0.5d/2sec
2:0.5d/1sec
3:1.0d/2sec
4:1.0d/1sec
5:2.0d/2sec
6:2.0d/1sec
7:3.0d/2sec
8:3.0d/1sec
9:4.0d/2sec
F35 Stable detecting 1:1d/1.0sec
2:2d/1.0sec
3:3d/1.0sec
4:1d/0.5sec
5:2d/0.5sec
6:3d/0.5sec
7:4d/0.5sec
8:5d/0.5sec
9:6d/0.5sec
F36 DIGITAL FILTER 0:INHIBIT
1:2 TIMES M. AVERAGE
2:4 TIMES M. AVERAGE
3:8 TIMES M. AVERAGE
4:16TIMES M. AVERAGE
5:32TIMES M. AVERAGE
F37 ZERO KEY INHIBITION 0:OFF
1:ON(inhibit)
F38 TARE KEY INHIBITION 0:OFF
1:ON(inhibit)
F39 GR/NT KEY INHIBITION 0:OFF
1:ON(inhibit)
F40 TARE RESET KEY INHIBITION 0:OFF
1:ON(inhibit)
F41 AUTO NET WEIGHT DISPLAY 0:OFF
1:ON(inhibit)
F42 READ ZERO COEFFICIENT
F43 READ SPAN COEFFICIENT
F44 READ ZERO PARAMETER
F45 READ SPAN PARAMETER
SERIAL INTERFACE SETTING
F46 FRAME FORMATE 0:n.8.1
1:n.8.2
2:o.7.1
3:o.7.2
4:e.7.1
5:e.7.2
F47 BAUD RATE 0:1200
1:2400
2:4800
F48 DATA OUTPUT MODE 0:STREAM MODE
1:COMMAND MODE
F49 DATA FOR THE STREAM MODE 0: DISPLAY WEIGHT
1: GROSS WEIGHT
2: NET WEIGHT
F50 DATA FORMAT FOR THE STREAM MODE 0:HB-8210 COMPATIBLE
1:AD-4231 COMPATIBLE
2:IQ-600H COMPATIBLE
3:UMC-2000COMPATIBLE
F51 RS-422 ID NUMBER SETTING 00
UNUSED FUNCTION
F52 UNUSED
F53
F54
F55
DATA MEMORY RESET FUNCTION
F56 DATA MEMORY RESET FUNCTION 0:OFF
1:ON (inhibit)
F57 RESET SETPOINTS MEMORY
F58 RESET FUNCTION PARAMETER
F59 RESET WEIGHING PARAMETER
ADJUSTMENT&CALIBRATION FUNCTION
F60 DECIMAL PLACE 0:XXXXXX
1:XXXXX.X
2:XXXX.XX
3:XXX.XXX
F61 Min DIVISION SETTING 01
02
05
10
20
50
F62 Max. CAPACITY SETTING 01000.0
F63 ZERO ADJUSTMENT
F64 SPAN CALIBRATION
F65 WEIGHINGCOEFFICIENT/PARAMETER 0:OFF(inhibit)
ENTERING FUNCTION 1:ON
F66 WRITE ZERO COEFFICIENT
F67 WRITE SPAN COEFFICIENT
F68 WRITE ZERO PARAMETER
F69 WRITE SPAN PARAMETER

3.2 F-FUNCTION SELECTING :

1.USE THE FUNCTION-PRIENTED KEYS TO SELECT.
FULL Used TO SET FULL WEIGHT
1

PRE1 Used TO SET PRE1 OR HiHi

2

PRE2 Used TO SET PRE2 OR LoLo

3

F.F. Used to set Free Fall

OVER Used to set OVER weight or Hi

5

UNDER Used to set UNDER weight or Lo

6

TARE Used to set TARE

7
<2>. Changing the settings:
After the Function has been selected( that is, one function key has been pressed), t
the function=oriented keys become the digit keys(0~9) which can be used
to change the setting by user.
<3>. Enter/Esc:

ENTER Used to enter the set value.

ESC Used to escap from setting operation.

<4>. Example: to set the tare weight to 120.0 kg

Start: display shows the gross weight to 500.0 kg
┌─┐┌─┐┌─┐┌─┐┌─┐┌─┐┌─┐
1. Display │ ││ ││ ││5 ││0 ││0.│ │0 │
└─┘└─┘└─┘└─┘└─┘└─┘└─┘
▽ ▽ ▽ ▼ ▼ ▽ ▽
ZERO TARE GROSS NET STAB CODE FUNC

2. Select tare weight setting: press TARE key

7
For F07 blinking for entering data position
┌─┐┌┼┐┌─┐┌─┐┌─┐┌─┐┌─┐
Display │7. │┼0 ┼│0 ││0 ││0 ││0.│ │0 │
└─┘└┼┘└─┘└─┘└─┘└─┘└─┘
▽ ▽ ▽ ▽ ▽ ▽ ▼
ZERO TARE GROSS NET STAB CODE FUNC
3. Changing the settings:
┌─┐┌─┐┌┼┐┌─┐┌─┐┌─┐┌─┐
Press[0]→ │7.││0 │┼0 ┼ │0 ││0 ││0.││0 │
└─┘└─┘└┼┘└─┘└─┘└─┘└─┘
▽ ▽ ▽ ▽ ▽ ▽ ▼
ZERO TARE GROSS NET STAB CODE FUNC
┌─┐┌─┐┌─┐┌┼┐┌─┐┌─┐┌─┐
Press[0]→ │7. │0 │ │0 │┼0 ┼│0 │ │0.│ │0 │
└─┘└─┘└─┘└┼┘└─┘└─┘└─┘
▽ ▽ ▽ ▽ ▽ ▽ ▼
ZERO TARE GROSS NET STAB CODE FUNC
 ┌─┐┌─┐┌─┐┌─┐┌┼┐┌─┐┌─┐
Press[1]→ │7.││0 ││0 ││0 │┼0 ┼ │0.││0 │
└─┘└─┘└─┘└─┘└┼┘└─┘└─┘
▽ ▽ ▽ ▽ ▽ ▽ ▼
ZERO TARE GROSS NET STAB CODE FUNC
┌─┐┌─┐┌─┐┌─┐┌─┐┌┼┐┌─┐
Press[2]→ │7.││0 ││0 ││0 ││0 │┼ 0.┼│0 │
└─┘└─┘└─┘└─┘└─┘└┼┘└─┘
▽ ▽ ▽ ▽ ▽ ▽ ▼
ZERO TARE GROSS NET STAB CODE FUNC
4. Enter the set value: press Enter keyDisplay shows the net weight is 380.0 kg
┌─┐┌─┐┌─┐┌─┐┌─┐┌─┐┌─┐
│ ││ ││ ││3 ││8 ││0. ││0 │
└─┘└─┘└─┘└─┘└─┘└─┘└─┘
▽ ▼ ▽ ▼ ▼ ▽ ▽
ZERO TARE GROSS NET STAB CODE FUNC
2. Function key Entering: :
(1) Function selecting:
press (FUNC) key to enter the F-function selecting operation.
Then enter 2 digits 00~69 for F00~69 selecting
(2) Changing the settings: Same as F00~09
(3) Enter/Esc: same as F00~09
(4) Example : Using F11 to set the control mode to "1 : Sequence
control mode"
(1) Start: display shows the gross weight is 500kg
┌─┐┌─┐┌─┐┌─┐┌─┐┌─┐┌─┐
Display │ ││ ││ ││5 ││0 ││0.│ │0 │
└─┘└─┘└─┘└─┘└─┘└─┘└─┘
▽ ▽ ▼ ▽ ▼ ▽ ▽
ZERO TARE GROSS NET STAB CODE FUNC

(2) To Enter the F-function selecting operation:

press FUNC key
┌─┐┌─┐┌─┐┌─┐┌─┐┌┼┐┌─┐
Display │F ││u ││n ││c ││- │┼0 ┼│0 │
└─┘└─┘└─┘└─┘└─┘└┼┘└─┘
▽ ▽ ▽ ▽ ▽ ▽ ▼
ZERO TARE GROSS NET STAB CODE FUNC
 (3) To Select F11 :
┌─┐┌─┐┌─┐┌─┐┌─┐┌─┐┌┼┐
Press[1]→ │F ││u ││n ││c ││- ││1 │┼0 ┼
└─┘└─┘└─┘└─┘└─┘└─┘└┼┘
▽ ▽ ▽ ▽ ▽ ▽ ▼
ZERO TARE GROSS NET STAB CODE FUNC
┌─┐┌─┐┌─┐┌─┐┌─┐┌┼┐┌─┐
Press[1]→ │F ││u ││n ││c ││- │┼1 ┼│1 │
└─┘└─┘└─┘└─┘└─┘└┼┘└─┘
▽ ▽ ▽ ▽ ▽ ▽ ▼
ZERO TARE GROSS NET STAB CODE FUNC

(4) Enter the F-function selected value

F11
┌─┐┌─┐┌─┐┌─┐┌─┐┌─┐┌┼┐
Display │1 ││1.│ │ ││ ││ ││ │┼0 ┼
└─┘└─┘└─┘└─┘└─┘└─┘└┼┘
▽ ▽ ▽ ▽ ▽ ▽ ▼
ZERO TARE GROSS NET STAB CODE FUNC

(5) Changing the settings :

┌─┐┌─┐┌─┐┌─┐┌─┐┌─┐┌┼┐
Press[1]→ │1 ││1.││ ││ ││ ││ │┼ 1 ┼
└─┘└─┘└─┘└─┘└─┘└─┘└┼┘
▽ ▽ ▽ ▽ ▽ ▽ ▼
ZERO TARE GROSS NET STAB CODE FUNC

(6) Enter the set value: press ENTER key

┌─┐┌─┐┌─┐┌─┐┌─┐┌┼┐┌─┐
DISPLAY │F ││u ││n ││c ││- │┼1 ┼ │2 │
└─┘└─┘└─┘└─┘└─┘└┼┘└─┘
▽ ▽ ▽ ▽ ▽ ▽ ▼
ZERO TARE GROSS NET STAB CODE FUNC
HB8212X1 returns to the F-Function Selecting Operation.The user can go to the step3 to select
another F-Function or the next step to finish the setting.

─ 3-8 ─
(7) Finish the setting:Press ESC Key returns to the weight display
┌─┐┌─┐┌─┐┌─┐┌─┐┌─┐┌─┐
Display │ ││ ││ ││5 ││0 ││0.│ │0 │
└─┘└─┘└─┘└─┘└─┘└─┘└─┘
▽ ▽ ▼ ▽ ▼ ▽ ▽
ZERO TARE GROSS NET STAB CODE FUNC
Ch.4 Application
4.1 Weighing Data Proceeding Control (F30~F41) :
F30 : Weight Unit
HB8212X1 can be set the weight unit in kg, t, g, or lb via F30
F31:Display rate
The display update rate of the HB8212X1 can be selected by the user via F31.
For examlpe,if the display frequency is set to "0:5.00 times/sec.",then HB8212X1
will display the data per four times A/D conversion.

1 2 3 4 5 6 7 8 9 10 11 12 13

Data Data Data

F32:Power-on zero:
The HB8212X1 will automatically zero the display once at the AC power is connected, if the
power-on zero function is valid, the user can select the power-on zero function to be valid or
inhibited via F32
F33: Zero range
The HB8212X1 allows the user to press the (ZERO) keys to return the display to the center of
zero when the weighing device is empty. This function works only if the offset value is within
the set limit, which is called zero range, of the weighing device full capacity. The user can
select a ZERO range via F33. The default value for the zero range is “0”: 2% capacity.
F34: Zero tracking
The zero tracking function automatically adjusts slow drifts of the zero point & slight shifting of the
zero point due to a small amount of material left in a scale
(1). Zero Tracking Method :
If there is a small deviation, beyond the zero point, within a set range and this state
continues for more than a set period, the HB8212X1 will automatically bring the display back
to zero.
<2>. Zero Tracking Settings :
The zero tracking range is denoted by the minimum scale division and the zero tracking period
is denoted by the time in seconds.The default value for the zero tracking range and the period
isx"5: 2.0 d/2 sec.".
F35: Stable detection:
(1)Stable detection method:
1. To compare the present A/D conversion data (DO) with several times A/D conversion
data (D1~DN) that in 1 second before.
2. If the differences which are generated by each comparison are all within a set range and
 this stated continues for more than a set period, the stable turns ON (▼STAB will be
turned ON)
3. If any one of the differences is above the set range, the stable signal turns OFF (▽STAB
will be turned OFF)
4. Stable detector of HB8212x1:
↓

copmrasion D0 D1 D2 ─ ─ ─ DN

│ ↑ ↑ ↑
│ ┌─┬ ─ ┬─┬ ─ ─ ─ ─ ─ ┬─┐
└─→│→│ → │→│ → → │→│→ Abandon
shift into └─┴ ─ ┴─┴ ─ ─ ─ ─ ─ ┴─┘
├─────── 1 Sec──────┤
A/D Data Moving Buffer
(2)Stable detection settings:
The HB8212X1 needs the user to select a stable range and a stable period via F35 to
perform the stable detection. The minimum scale division denotes the stable range and the
stable period is denoted by the time in seconds. The HB8212X1 will be easier to enter the
stable state if a larger stable range and a shorter stable period is selected, although the
display may be fluctuant. The default value for the stable range and the stable period is
“5”: 2D/0.5sec
F36:Digital filter
HB8212X1 is designed to use the double stages digital filter to reduce fluctuation of a weight
value. These digital filters are proceed by the moving average meth
D,F Inhibited stable signal OFF
┌───────┐┌───────┐
│ 1st stage ││ 2 stage │
load cell ┌──┐│ ┌────┐↓│ ┌────┐↓
───→│A／D├┴→│ D.F ├─┴→│ D.F ├─→ Weight data prceeding
Signal └──┘ └────┘ └────┘
2-32 times Stable signal ON 32 times fixed
 (1) Moving average method:
n Data Moving Buffer
1 2 3 4 ─ ─ n-2 n-1 n
New conversion┌─┬─┬─┬─┬ ─ ┬─┬─┬─┐
Data is shifted →│→│→│→│→│ → │→│→│→│→abandan
Into the moving └─┴─┴─┴─┴ ─ ┴─┴─┴─┘
buffer │ ┌─────┐ │
└────┤Average ├────┘
└──┬──┘
↓
To next step
(2) 1st stage digital filter:
The number of data to be average by the first stage digital more can be selected from 2 to 32 via
F36.The display will be more stable if the number of moving average times increases, but the
response will be worse instead.
(3) 2ndnd stage digital filter:
When the stable signal turns ON, HB8212X1 inserts the 2nd stage digital filter to restrain
fluctuations of the weight value.
F37~F40 : Function keys control
There are four function keys ([ZERO], [TARE], [GR/NT], [TARE RESET])
on the HB8212X1 front panel can be inhibited via F37~F40 to avoid
misoperation.
F41 : Auto Net Weight Display
When the "Auto Net Weight Display" function is set on, the HB8212X1
will switch to the net weight display automatically after a tare
weight has been set, and to the gross weight display after the tare
weight has been reset.
4.2 Calibration:
Your HB8212X1 should be calibration when first installed, or after a weighing system component
( load cell, A/D circuit board,….etc.) has been changed. All weighing systems should be
calibrated at least 30 every six months. Please allow a warm up (plugged in) for at least 30
minutes to achieve thermal stability before starting calibration. For best accuracy, calibrate with
as near to full span weight as possible.
Full Calibration Procedure :
Step 1: Open the CAL switch cover on the rear panel and slide the CAL switch ON
Step2:Setting Decimal place via (F60)
Step 3: Set the minimum division via F61
Minimum division can be set to1,2,5,10,20,or 50
 Step 4: Set the maximum division via F62
The maximum capacity is the full weight that you want your weighing device to handle. This
could be the rated capacity of the load cells, or some other limit you wish to set.
The maximum capacity also has a relationship to the display resolution. In general, the display
resolution of an indicator has the form of a ratio of the maximum capacity to the minimum
division, The display resolution of the HB8212X1 can be from 300 to 12000. Thus,
The maximum capacity
300≦ ≦12000
The minimum division
Step 5: Proceed zero calibration via F63
The zero calibration is a process to give the HB8212X1 a base reference point, “zero”, to
the weighing when it has no weight on it.
(1) Select F63 function
Guidance message
C A L - 0
(2) Make sure that there is no weight on the weigher and the weigher is stable(▼STAB lights
ON), then press the (ENTER) key
(3) If the input signal from the load cell is ok, the HB8212 will display (End- 0) message for 2
seconds and the zero calibration will be done/
Guidance message
E n d - 0
(4) (ErrF631):
If the input signal from the load cell is unstable, the HB8212X1 will display (ErrF631)
message for 2 seconds then back to display (CAL-0) message to wait you to press the
ENTER key for doing zero calibration again
(5) (ErrF632)
If (ErrF632) is displayed instead of (End- 0), the HB8212x1 is not able to achieve zero
calibration because of the input signal from the load cell is negative
Make sure that the load is not damaged the +SIG and –SIG are connected properly before
you to re-calibration
(6) (ErrF633)
If (ErrF633) is displayed instead of (End- 0), the HB8212 is not able to achieve zero
calibration because of the input signal from the load cell is too large(over 30mV)
Make sure whether the load output is within the zero adjusting of the HB8212x1
Step6:Proceed span calibration via F64
The span calibration function allows you to set a reference point between the empty point (zero)
and the end point (Maximum capacity) of your weighing device that will give the HB8212 an
algebraic difference of each digital increment (division). With span calibration, the HB8212 can
accurately calculate what the weights are on the weighing device
(1) Select F64 function:
Guidance message
C A L - S P n

Guidance message
L. X X X X X X
(2) Apply an actual load (balance weight) on the weigher
For the best accuracy and linearity of the weight reading, calibrate with as near to full span
weight as possible.
(3) Enter the balance weight value to the HB8212X1 and make sure that the▼STAB is ON, then
press the (ENTER) key to proceed span calculation
(4) If the input signal from the load cell is ok, the HB8212X1 will display (End-SPN) message
for 2 seconds and the span calibration will be done.
Guidance message
E n d - s p N
(5) (ErrF641)
If the input signal from the load cell is unstable, the HB8212X1 will display (ErrF641)
message for 2 seconds then back to display (LXXXXXX) message to wait you to press the
(ENTER) key for doing span calibration again.
If the load cell input signal is unstable while doing the calibration, then adjust the settings of
the Digital Filter (F36) and the settings of the Stable Detection (F35) before you to
re-calibrate will be very helpful.
(6) (ErrF642)
If (ErrF642) is displayed instead of (End-spn), the HB8212X1 is not able to achieve span
calibration because of the input signal is too small. (under 0.6μV/division)
1.Check weigher the load cell is properly loaded or check whether the load cell output is
high enough to reach the span adjustment range.
2.Adjust the minimum division and maximum capacity ratio- resolution. Make the
resolution smaller
(7) (ErrF643)
If (ErrF643) is displayed instead of (End-SPn), the HB8212X1 is
not able to achieve span calibration because of the input signal is too large(over 120μ
V/division)
Check whether the load cell is properly loaded or check whether the loadcell rated output
falls within the span adjustment range.
Adjust the Minimum Division and Maximum Capacity ratio
Resolution. Make the Resolution higher.
 (8) (ErrF654)
If (ErrF654) is displayed instead of (End-SPn), the HB8212 is
not able to achieve span calibration because of the balance weight value has been
mistakenly entered.
1. The balance weight must not be entered as a value equal to 0
2. The balance weight must not be entered as a value greater than the maximum capacity
3. The balance weight must be entered as a value which is a multiple of the minimum
division.
Step 7: Slide the CAL switch back to the OFF position and return the CAL switch cover to the rear
panel

4.3 F42~45 & F65~69:

1. Full digital calibration:
The full digital calibration function of HB8212X1 lets you precisely calibration any weighing
system. Values for zero and span weight can be entered digitally through the keyboard that
makes setting zero and span a breeze

○
(1 Weight reading calculation:

The weight reading is calculated by HB8212X1 in the form

Wt=(Cn(Wt)-Zp)/Sp
Where Wt is the weight reading value, Cn(Wt) is the original count from A/D converter at the
weight, Zp is the zero parameter, and Sp is the Span parameter
2 Full digital zero calibration
○
Full digital zero calibration is to set the zero parameter equal to the original count from A/D
converter at zero weight. Thus
Zp=Cn(Wt=0)
○
3 Full digital span calibration

Full digital span calibration is to set the span parameter equal to the original count from A/D
converter of each digital increment of weight. Thus
Sp= Cn(Wt=Wb)-Zp
Wb
Where Wb is the balance weight for calibration
2. Zero coefficient and Span coefficient:
In order to get the characteristic of the A/D conversion of each HB8212X1, we developed two factors
in HB8212X1. These are the zero & span coefficient. The original count from A/D converter is given
by
Cn(Wt=L)+L*Sc+Zc
 Where L is the loading weight, Sc is the span coefficient, and Zc is the zero coefficient.
3. Does not need re-calibration when HB8212X1 is replaced:
consider the two HB8212X1 indicator A and B
Indicator A Indicator B
The zero coefficient zca zcb
The span coefficient sca scb
The A/D conversion count cna(Wt) cnb(Wt)
The zero parameter Zpa Zpb
The span parameter Spa Spb
The loading weight La Lb
The weight reading Wta Wtb

Wta=(Can(Wt=La)-Zpa)/Spa
Wtb=(Can(Wt=Lb)-Zpb)/Spb
Cna(Wt=La)=La*Sca+Zca
Cnb(Wt=Lb)=Lb*Scb+Zcb
If we set La=Lb=L
Then. from equation(4.3-7) and (4.3-8)
Can(Wt=L-Zca Cnb(Wt=L)-Zcb
L= Sca = Scb

Can(Wt=L)=(Cnb(Wt=L)-Zcb) Sca/Scb+ Zca

If the indicator A has been calibrated, and we want to use the indicator B to replace Indicator A. The
HB8212 can allow us to read out zca, sca, zpa, and spa from the indicator A and set these factors to the
indicator B, Once theZc, Sc, Zp, and Sp are set to the HB8212, the weight reading calculation will be
changed by the HB8212X1 as

﹛﹝Cnb(Wt=L)-Zcb﹞Sca/Scb+Zca﹜-Zpa
Wtb=
Spa
= Can(Wt=L)-Zpa =Wta
Spa
Thus, we can get the same weight reading of same load without RE-calibration when HB8212 is replaced

4. Summary:
(1).The zero and span parameters represent the characteristic of the weighing device. The zero and span
parameters are set after the calibration functions have been proceeded
(2).The zero and span coefficients represent the characteristic of the indicator. The zero and span
coefficient will be set to the HB8212X1 by Holbright at the time of shipping.
(3).F42~45 allow you to read out the Zc, Sc, Zp and Sp f
(4).F66~69 allow you to set the Zc, Sc, Zp and Sp to HB8212X1
(5).After HB8212X1 has been calibrated, the weight reading will be
calculated by using the equation and the memory buffers will be cleared.
(6).Once the Zc, Sc, Zp, and Sp are set to the HB8212X1, the weight reading will be calculated by using
the equation
(1) F65 =0 (OFF)
4.4 Memory Reset (F56~59) :
F56~59 allows you to set all the F-Functions of the HB8212X1 back to
their initial settings.
1. F56 : Data Memory Reset Function
F56 is designed as a function switch to F57¡ãF59. F57, F58 and F59 will not be executed if
F56 is set to "0:OFF".An error message [ErrF560] will be displayed if any one of these
functions has been selected without setting the F56 to "1:ON". After any one of these
functions has been executed, the F56 will be set back to "0:OFF" automatically to avoid
misoperation.
2. F57 : Reset Setpoints Memory
All the setpoints for the FULL weight, PRE1 weight, PRE2 weight, FREE FALL weight,
OVER weight, UNDER weight, etc. in the memory under the each code number (00 to 99) can
be reset (or cleared) to 0 via F57.
3. F58 : Reset Function Parameters
The settings for F00, F08, F09, F10~F29, F30~F41 and F46~F55 are called the function
parameters of the HB8212X1. These parameters can be reset to their initial settings via F58.
4. F59 : Reset Weighing Parameters
The settings for F44, F45 and F60~F69 are called the weighing parameters of the HB8212X1.
These parameters can be reset to their initial settings via F59.
5. Memory Reset Procedure :
Step 1 : Open the "CAL Switch" cover on the rear panel and slide the
"CAL Switch" on.
Step 2 : Press FUNC
Step 3 : Select F56 and set F56 to "1 "
Setp 4: Select F57
Guidance Message
5 7. R E S E t
or, Select F58
Guidance Message
5 8. R E S E t
or, Select F59
Guidance Message
5 9. R E S E t

Step 5 : Press ENTER key, HB8212X1 will reset the memory.

Or, press ESC key to cancel operation.

Step 6 : Press ESC key to escap from setting operation.

 Step7 : Slide the "CAL Switch" back to the off position and return
the "CAL Switch" cover to the rear panel.

4.5 Control DI/DO (F00~F26) :

<1>. 25-pin Connector :
1 COMMON 14
2 Bit.0 15 DO NEAR ZERO
DI CODE 01
3 Bit.1 16 DO SP1 (HiHi)
DI CODE 02
4 Bit.2 17 DO SP2 (LoLo)
DI CODE 04
5 Bit.3 18 DO SP3
DI CODE 08
6 Bit.0 19 DO WEIGHING COMPLETE
DI CODE 10
7 Bit.1 20 DO ERROR
DI CODE 20
8 Bit.2 21 DO UPPER LIMIT
DI CODE 40
9 Bit.3 22 DO LOWER LIMI
DI CODE 80
10 DI RUN/START 23 COMMON
11 DI RUN/START 24 DI CHARGE/DISCHARGE
12 DI TARE 25 COMMON
13 COMMON

<2>. 9-pin Connector :

1 DI ZERO 6 DO OK
2 DI TARE 7 DO OVR (Hi)
3 DI GR/NT 8 DO UNDER (Lo)
4 DI TARE RESET 9 COMMON
5 COMMON
Note: The COMMON terminals (COMMON 5, 9pin) are connected inside.
2. I/O Equivalent Circuit :
<1>. Equivalent Circuit (Input) :
SWITCH DATA A.Don't apply external voltage to the
ON 0(L) signal input circuit.
OFF 1(H) B. Input signal pulse width should be
over 200mSec.

<2>. Equivalent Circuit (Output) :

TRANSISTOR DATA Output Tr. driving capability :12~24Vdc, 30mA(Max.)
ON 1(L) Connect a surge absorber or a spark killer to the relay circuit as
OFF 0(H) shown in the draft so that to reduce noise truble.

3. F-Function Setting
F00 : NEAR ZERO
The NEAR ZERO weight can be set via F00. When the weighed value
under the NEAR ZERO weight the DO NEAR ZERO turns on.
F01 : FULL
The FULL weight can be set via F01. In the hopper charge
weighing and the simple comparison control mode, the DO
SP3 turns on when the weighed value over the FULL weight minus the
FREE FALL weight.
F02 : PRE1 (HiHi)
The PRE1 (HiHi) weight can be set via F02. In the hopper
weighing mode (F10=0,1,2), the set value of F02 is called the
PRE1 weight. In the check weighing mode (F10=3), the set value
of F02 is called the HiHi weight.
F03 : PRE2 (LoLo)
The PRE2 (LoLo) weight can be set via F03. In the hopper
weighing mode (F10=0,1,2), the set value of F03 is called the
PRE2 weight. In the check weighing mode (F10=3), the set value
of F03 is called the LoLo weight.
F04 : FREE FALL
The FREE FALL weight can be set via F04. In the hopper charge
weighing and the simple comparison control mode, the DO SP3
turns on when the weighed value over the FULL weight minus the
FREE FALL weight.
F05 : OVER (Hi)
The OVER (Hi) weight can be set via F05. In the hopper weighing
mode (F10=0,1,2), the set value of F05 is called the OVER
weight. In the check weighing mode (F10=3), the set value of
F05 is called the Hi weight.
F06 : UNDER (Lo)
The UNDER (Lo) weight can be set via F06. In the hopper
weighing mode (F10=0,1,2), the set value of F06 is called the
UNDER weight. In the check weighing mode (F10=3), the set value
of F06 is called the Lo weight.
F07 : TARE
The TARE weight can be set via F07.
If F18=1 and a negative TARE weight has been set during the
weighing by the external DI TARE command, the F07 function will
be inhibited. The HB8212X1 will display that negative TARE
weight after the the function-oriented key [7] has been pressed
for the F07 function and will display [- tArE] message for F07
has been selected under the F-Function operation. If you want
to set a TARE weight value via F07, please press [TARE RESET]
key first to reset that negative TARE weight value.
F08 : UPPER LIMIT
The UPPER LIMIT weight can be set via F08. When the weighed
value over the UPPER LIMIT weight the DO UPPER LIMIT turns on.
F09 : LOWER LIMIT
The LOWER LIMIT weight canbe set via F09. When the weighed
value under the LOWER LIMIT weight the DO LOWER LIMIT turns on
F10 : Weighing Mode
F10=0 : Hopper charge weighing mode
 F10=1 : Hopper discharge weighing mode
F10=2 : Hopper DI weighing mode
F10=3 : Check weighing mode
F11 : Control Mode
F10=0, 1 or 2 for hopper weighing mode
F11=0 : Simple comparison control mode
F11=1 : Sequence control mode
F10=3 for check weighing mode
F11=0 : Check pattern 0 mode
F11=1 : Check pattern 1 mode
F12 : Code Selection
F12=0 : Input Keys
F12=1 : Keys and External DI
F12=2 : Keys and Serial Communication
F13 : NEAR ZERO comparison
F13=0 : NEAR ZERO comparison by Gross weight
F13=1 : NEAR ZERO comparison by Net weight
F14 : OVER/UNDER (Hi/Lo) comparison
F14=0 : OVER/UNDER comparison by Gross weight
F14=1 : OVER/UNDER comparison by Net weight
F10=3 for check weighing mode
F14=0 : Hi/Lo comparison by Gross weight
F14=1 : Hi/Lo comparison by Net weight
F15 : UPPER LIMIT comparison
F15=0 : UPPER LIMIT comparison by Gross weight
F15=1 : UPPER LIMIT comparison by Net weight
F16 : LOWER LIMIT comparison
F16=0 : LOWER LIMIT comparison by Gross weight
F16=1 : LOWER LIMIT comparison by Net weight
F17 : ZERO/TARE input condition
F17=0 : All the time
F17=1 : When stable
F18 : Taring Range
F18=0 : + Gross weight (positive Gross weight)
F18=1 : ± Gross weight (positive or negative Gross weight)
F19 : NEAR ZERO output condition
F19=0 : Weight ≦ Setting
F19=1 : |Weight| ≦ Setting
F20 : OVER/UNDER (Hi/Lo) output condition
F10=0, 1 or 2 for hopper weighing mode
F20=0 : At weighing complete
F20=1 : All the time
F10=3 for check weighing mode
F20=0 : At judgment
F20=1 : All the time
F21 : Auto Tare Function
In the sequence control mode, if F21=1 and the DI START has
been transited from off to on, the HB8212X1 will TARE the
weigher automatically.
F22 : Control Output Selection
F22=0 : Standard
F22=1 : Signal Change
After the F22 has been set to "1 : Signal Change", the pin20,
pin21 and pin22 of the 25-pin connector for the external
control I/O signals will be interchanged with the pin6, pin7
and pin8 of the 9-pin connector.
25-pin connector : 9-pin connector :
20 Do error 6 Do ok
21 Do upper limit 7 Do over
22 Do lower limit 8 Do under
F23 : Weighing Complete Output
F23=0 : After passing the Finish Timer
F23=1 : When the weighed value is stable after passing the
Finish Timer
F24 : Weighing Complete Output (Judgment) Time
F10=0, 1 or 2 for hopper weighing mode
F24 = Weighing Complete Output Time
F10=3 for check weighing mode
F24 = Judgment Time
F25 : Inhibition Time
F25 allows you to set a period to inhibit the weighing
comparison after the DO condition has been changed during the
simple comparison control weighing.
F26 : Finish Time
F26 allows you to set a period to wait for the weigher being
stable before the DO WEIGHING COMPLETE turns on.
4. Descriptions of Control DI :
<1>. DI CODE 80,40,20,10,08,04,02,01 : Level Input
By Inputting the CODE number into the CODE inputs (2 digits BCD)
the setpoints registered for the CODE number of 00 to 99 can be
called.These inputs are accepted when the F12=1 and the DI RUN/START
is given form off to on transition.
<2>. DI RUN/START : Pulse Input (pulse width should be over 200mSec.)
Input as a start signal for the sequence control mode.
<3>. DI STOP : Pulse Input (pulse width should be over 200mSec.)
Input as a stop signal for the sequence control mode.
After the DI STOP has been input during a weighing sequence, all
the DO signals will be set off except the DO ERROR will be set
on and the [SE.Err 2] message will be displayed. By Pressing
the [E.ACK] key on the front panel of the HB8212X1 will bring
the indicator back to normal.
<4>. DI TARE : Pulse Input (pulse width should be over 200mSec.)
Input as a tare signal to store the gross weight into memory and
zeros the net weight. HB8212X1 will take the net weight as the weighed value to
compare with all the set weights except those who can be selected by F-Function.
<5>. DI CHARGE/DISCHARGE : Level Input
This input is valid only when the HB8212X1 is in the hopper DI
weighing mode (F10=2).While the DI CHARGE/DISCHARGE is set off, the HB8212X1 is in
the CHARGE control mode. While the DI CHARGE/DISCHARGE is set on, the HB8212X1
is in the DISCHARGE control mode.During the hopper DISCHARGE control weighing, the
HB8212X1 will take the ¢xNET¢x weight as the weighed value to compare with all
the set weights except those who can be selected by F-Function.
<6>. DI ZERO : Pulse Input (pulse width should be over 200mSec.)
Input as a zero signal to zero the gross weight.
<7>. DI GR/NT : Pulse Input (pulse width should be over 200mSec.)
Input as a gross/net signal to switch between the gross weight
display and the net weight display alternately.
<8>. DI TARE RESET : Pulse Input (pulse width should be over 200mSec)
Input as a tare reset to cancel the tare weight.
5. Descriptions of Control DO :
<1>. DO NEAR ZERO :
The DO NEAR ZERO turns on when the weighed value under the NEAR
ZERO set value.
F00 : NEAR ZERO set value
F13 : NEAR ZERO comparison
F13=0 : NEAR ZERO comparison by Gross weight
F13=1 : NEAR ZERO comparison by Net weight
F19 : NEAR ZERO output condition
F19=0 :Weight ≦ Setting
F19=1 : |Weight|≦Setting
<2>. DO SP1 (DO HiHi), DO SP2 (DO LoLo), DO SP3 :
F01 : FULL set value
F02 : PRE1 (HiHi) set value
F03 : PRE2 (LoLo) set value
F04 : FREE FALL set value
a. Hopper charge weighing, Simple comparison control mode
Setting : F10=0 and F11=0 or,
F10=2, F11=0 and DI CHARGE/DISCHARGE=OFF
Comparison : DO SP1 ON : NET ≧PRE1
DO SP2 ON : NET ≧PRE2
DO SP3 ON : NET ≧(FULL - FREE FALL)

b. Hopper charge weighing, Sequence control mode Setting: F10=0 and F11=1 or,
F10=2, F11=1 and DI CHARGE/DISCHARGE=OFF
Comparison : DO SP1 ON : NET ＜ PRE1
DO SP2 ON : NET ＜ PRE2
DO SP3 ON : NET ＜ (FULL- FREE FALL)
c. Hopper discharge weighing, Simple comparison control mode
Setting: F10=1 and F11=0 or,F10=2, F11=0 and DI CHARGE/DISCHARGE=ON
Comparison : DO SP1 ON : |NET| ≧ PRE1
DO SP2 ON : |NET| ≧ PRE2
DO SP3 ON : |NET| ≧ (FULL ¡Ð FREE FALL)
d. Hopper discharge weighing, Sequence control mode
Setting: F10=1 and F11=1 or,F10=2, F11=1 and DI CHARGE/DISCHARGE=ON
Comparison : DO SP1 ON : |NET|＜ PRE1
DO SP2 ON : |NET|＜ PRE2
DO SP3 ON : |NET|＜ (FULL ¡Ð FREE FALL)
 e. Check weighing, Hi/Lo comparison by Gross weight
Setting : F10=3, F11=0 or 1, F14=0
Comparison : DO HiHi ON : GROSS ≧ HiHi
DO LoLo ON : GROSS ≧ LoLo

<3>. DO WEIGHING COMPLETE (DO JUDGMENT) :

DO WEIGHING COMPLETE turns on when weighing is complete.
F20 : OVER/UNDER (Hi/Lo) output condition
F24 : Weighing Complete Output (Judgment) Time
F26 : Finish Time
a. F10=0, 1 or 2, F11=0e

T1 : Weighing Complete Output Time (F24)

T3 : Finish Time (F26)
b. F10=0, 1 or 2, F11=1

T1 : Weighing Complete Output Time (F24)

T3 : Finish Time (F26)
c. F10=3, F20=0:

T1 : Judgment Time (F24)

T3 : Finish Time (F26)
<4>. DO ERROR :
The DO ERROR turns on when any error such as the weigher is over
load, the weigher is under load, a sequence weighing is stopped by the
DI STOP, etc. occurs. By Pressing the [E.ACK] key on the front panel
of the HB8212X1 will bring the indicator back to normal.
<5>. DO UPPER LIMIT :
The DO UPPER LIMIT turns on when the weighed value over the
UPPER LIMIT set value.
F08 : UPPER LIMIT set value
F15 : UPPER LIMIT comparison

<6>. DO LOWER LIMIT :

The DO LOWER LIMIT turns on when the weighed value under the
LOWER LIMIT set value.
F09 : LOWER LIMIT set value
F16 : LOWER LIMIT comparison
<7>. DO OK, DO OVER, DO UNDER :
F05 : OVER set value
F06 : UNDER set value
F14 : OVER/UNDER comparison
F14=0 : OVER/UNDER comparison by Gross weight
F14=1 : OVER/UNDER comparison by Net weight
F20 : OVER/UNDER output condition
F20=0 : At weighing complete
F20=1 : All the time
a. F10=0, 1 or 2 , F14=0
Comparison : DO OVER ON : OVER ≦ GROSS
DO OK ON : UNDER ＜ GROSS ＜ OVER
DO UNDER ON : GROSS ≦ UNDER
b. F10=0, 1 or 2 , F14=1
Comparison : DO OVER ON : OVER ≦ NET
DO OK ON : UNDER ＜ NET＜ OVER
DO UNDER ON : NET ≦ UNDER
<8>. DO GO, DO Hi, DO Lo :
F05 : Hi set value
F06 : Lo set value
F14 : Hi/Lo comparison
F14=0 : Hi/Lo comparison by Gross weight
F14=1 : Hi/Lo comparison by Net weight
F20 : Hi/Lo output condition
F20=0 : At judgment
F20=1 : All the time
 a. F10=3 , F11=0 (Check pattern 0)
Comparison : DO Hi ON : Hi ≦ WEIGHT
DO GO ON : Lo ＜ WEIGHT＜ Hi
DO Lo ON : WEIGHT≦ Lo
b. F10=3 , F11=1 (Check pattern 1)
Comparison : DO Hi ON : Hi ≦ WEIGHT ＜ HiHi
DO GO ON : Lo ＜ WEIGHT ＜ Hi
DO Lo ON : LoLo＜ WEIGHT ≦ Lo

4.6 Check Weighing Mode

1. F-Function Setting :
F10 : F10=3 : Check weighing mode
F11 : F11=0 : Check pattern 0 control mode
F11=1 : Check pattern 1 control mode
F14 : F14=0 : Hi/Lo comparison by Gross weight
F14=1 : Hi/Lo comparison by Net weight
F20 : F20=0 : Hi/Lo output at judgment
F20=1 : Hi/Lo output all the time

2. F11=0 : Check pattern 0

Setpoints
LoLo Lo Hi HiHi
WEIGHT
DO HiHi ON
DO Hi ON
DO GO ON
DO Lo ON
DO LoLo ON

Comparison : DO HiHi ON : HiHi ≦ WEIGHT

DO Hi ON : Hi ≦ WEIGHT
DO GO ON : Lo ＜ WEIGHT ＜ Hi
DO Lo ON : WEIGHT≦ Lo
DO LoLo ON : WEIGHT≦LoLo
3. F11=1 : Check pattern 1
Setpoints
LoLo Lo Hi HiHi
WEIGHT
DO HiHi ON
DO Hi ON
DO GO ON
DO Lo ON
DO LoLo ON

Comparison : DO HiHi ON : HiHi ≦WEIGHT

DO Hi ON : Hi ≦ WEIGHT ＜ HiHi
DO GO ON : Lo ＜ WEIGHT＜ Hi
DO Lo ON : LoLo ＜ WEIGHT≦ Lo
DO LoLo ON : WEIGHT ≦ LoLo

4. F20=0 : Hi/Lo output at judgment

T0 : 200mSec. or More,
T1 : Judgment Time (F24)
T3 : Finish Time (F26)

4.7 Hopper Charge Weighing Mode :

1. F-Function Setting :
F10=0 : Hopper charge weighing mode
F10=2 : Hopper DI weighing mode
DI CHARGE/DISCHARGE=OFF
 F11=0 : Simple comparison control mode
F11=1 : Sequence control mode
F13=0 : NEAR ZERO comparison by Gross weight
F13=1 : NEAR ZERO comparison by Net weight
F19=0 : DO NEAR ZERO ON for Weight ≦ Setting
F19=1 : DO NEAR ZERO ON for |Weight|≦ Setting

2. Hopper charge weighing, Simple comparison control mode

Setting : F10=0 and F11=0 or,
F10=2, F11=0 and DI CHARGE/DISCHARGE=OFF
Comparison : DO SP1 ON : NET≧ PRE1
DO SP2 ON : NET≧ PRE2
DO SP3 ON : NET≧ (FULL ¡Ð FREE FALL)

3. Hopper charge weighing, Sequence control mode

Setting: F10=0 and F11=1 or,
F10=2, F11=1 and DI CHARGE/DISCHARGE=OFF
Comparison : DO SP1 ON : NET＜ PRE1
DO SP2 ON : NET ＜ PRE2
DO SP3 ON : NET ＜ (FULL ¡Ð FREE FALL)
4. Timing of hopper charge weighing, simple comparison control mode

T0 : DI Pulse Time = 200mSec. or More

T1 : Weighing Complete Output Time (F24)
T2 : Inhibition Time (F25)
T3 : Finish Time (F26)
5. Timing of hopper charge weighing, sequence control mode

T0 : DI Pulse Time = 200mSec. or More

T1 : Weighing Complete Output Time (F24)
T3 : Finish Time (F26)
4.8 Hopper Discharge Weighing Mode :
1. F-Function Setting :
1.F10=1 : Hopper discharge weighing mode
2.F10=2 : Hopper DI weighing mode
DI CHARGE/DISCHARGE=ON
3.F11=0 : Simple comparison control mode
F11=1 : Sequence control mode
4.F00 : NEAR ZERO set value
F13=0 : NEAR ZERO comparison by Gross weight
F13=1 : NEAR ZERO comparison by Net weight
F19=0 : DO NEAR ZERO ON for Weight ≦ Setting
F19=1 : DO NEAR ZERO ON for |Weight| ≦ Setting e
5.F08 : UPPER LIMIT set value
F15=0 : UPPER LIMIT comparison by Gross weight
F15=1 : UPPER LIMIT comparison by Net weight
6.F09 : LOWER LIMIT set value
F16=0 : LOWER LIMIT comparison by Gross weight
F16=1 : LOWER LIMIT comparison by Net weight

2. Hopper discharge weighing, Simple comparison control mode

1.F-function : F10=1 and F11=0 or,
F10=2, F11=0 and DI CHARGE/DISCHARGE=ON
2.Comparison : DO SP1 ON : |NET| ≧ PRE1
DO SP2 ON : |NET| ≧ PRE2
DO SP3 ON : |NET| ≧ (FULL - FREE FALL)

3. Hopper discharge weighing, Sequence control mode

F-function : F10=1 and F11=1 or,
F10=2, F11=1 and DI CHARGE/DISCHARGE=ON
Comparison : DO SP1 ON : |NET| ＜ PRE1
DO SP2 ON : |NET| ＜ PRE2
DO SP3 ON : |NET| ＜ (FULL- FREE FALL)
4. Timing of hopper discharge weighing, simple comparison control mode

T0 : DI Pulse Time = 200mSec. or More

T1 : Weighing Complete Output Time (F24)
T2 : Inhibition Time (F25)
T3 : Finish Time (F26)
5. Timing of hopper discharge weighing, sequence control mode

T0 : DI Pulse Time = 200mSec. or More

T1 : Weighing Complete Output Time (F24)
T3 : Finish Time (F26)
4.9 Serial Communication (F46~F51) :
1. F-Function Setting :
F46 : Frame Format
F46=0 : None Parity, 8 Data Bits, 1 Stop Bit
F46=1 : None Parity, 8 Data Bits, 2 Stop Bits
F46=2 : Odd Parity, 7 Data Bits, 1 Stop Bit
F46=3 : Odd Parity, 7 Data Bits, 2 Stop Bits
F46=4 : Even Parity, 7 Data Bits, 1 Stop Bit
F46=5 : Even Parity, 7 Data Bits, 2 Stop Bits

F47 : Baud Rate

F47=0 : 1200 bps
F47=1 : 2400 bps
F47=2 : 4800 bps

F48 : Data Output Mode

F48=0 : Stream Mode
F48=1 : Command Mode

F49 : Data for the Stream Mode

F49=0 : Display weight
F49=1 : Gross weight
F49=2 : Net weight

F50 : Data Format for the Stream Mode

F50=0 : HB-8210 Compatible
F50=1 : HB-4321 Compatible
F50=2 : IQ-600HB Compatible
F50=3 : UMC-2000 Compatible

F51 : RS-422 ID Number

A two digits RS-422 ID Number (01~99) should be set to each
HB8212X1 via F51 for one to multi connection.
2. Descriptions of Serial Communication :
<1>. Frame Format (F46) :
The Frame Format can be set via F46.
Start Bit : 1 bit
Data Bit : 7 or 8 bits
Stop Bit : 1 or 2 bits
Parity Bit : None, Odd or Even Parity
<2>. Baud Rate (F47) :
The HB8212X1 allows you to set the Baud Rate to 4800, 2400 or
1200 bps via F47.
<3>. Data I/O Mode (F48) :
Stream Mode :
In this mode weight data will be transmitted by the HB8212X1
whenever new data becomes available.
Weight Data
HB8212X1 Computer
Command Mode :
When the Command Mode is selected, a command should be sent
by the host computer or sequencer to the HB8212X1. The
HB8212X1 will send back a reply to the host device according
to the command.
Command
HB8212X1 Computer
Reply
HB8212X1 Computer

<4>. Data for the Stream Mode (F49) :

After the Stream Mode has been selected, the following types of
data can be selected to be transmitted :
F49=0 : Display weight
F49=1 : Gross weight
F49=2 : Net weight
<5>. Data Format for the Stream Mode (F50) :
After the Stream Mode has been selected then the following data
formats can be selected to be transmitted:
1. HB-8210 Compatible :
┌──┬─┬┬┬┬┬┬┬┬─┬┬┬─┬┬┬──┬─┬─┐
│STX │PL│ D7~D1 │SP│UN│SP│TP│STUS│CR│LF│
└──┴─┴┴┴┴┴┴┴┴─┴┴┴─┴┴┴──┴─┴─┘
18 Bytes
2. AD-4321 Compatible :
┌┬┬─┬┬┬─┬─┬┬┬┬┬┬┬┬┬┬─┬─┐
│H1│, │H2│, │PL│ D7~D1 │UN│CR│LF│
└┴┴─┴┴┴─┴─┴┴┴┴┴┴┴┴┴┴─┴─┘
18 Bytes
3. IQ-600HB Compatible :
┌──┬─┬┬┬┬┬┬┬┬─┬─┬──┬─┬─┐
│STX │PL│ D7~D1 │U │T │STUS│CR│LF│
└──┴─┴┴┴┴┴┴┴┴─┴─┴──┴─┴─┘
14 Bytes
4.UMC-2000 Compatible :
┌──┬─┬┬┬┬┬┬┬┬─┬┬┬─┬┬┬─┬─┬─┐
│STX │PL│ D7~D1 │SP│UN│SP│TP│SP│CR│LF│
└──┴─┴┴┴┴┴┴┴┴─┴┴┴─┴┴┴─┴─┴─┘
17 Bytes
Data Description :
STX : 1 byte "Start of Text" character (ASCII 02H).
PL : 1 byte polarity sign.
" " (ASCII 20H) : for positive data.
"-" (ASCII 2DH) : for negative data.
DATA7 : 7 bytes weight or count data including decimal point.
Leading zero supersenssion with the leading zeros
transmitted by "Space" characters. For expample,
"00200.0" will be transmitted by " 200.0".
SP : 1 byte "Space" character (ASCII 20H).
UN : 2 bytes data unit.
"kg" : kilogram "t " : ton
" g" : gram "lb" : libra

CR : 1 byte "Carriage Return" character (ASCII 0DH).

LF : 1 byte "Line Feed" (ASCII 0AH).
U : 1 byte data unit.
"K" : Kilogram "t" : ton
 "g" : gram "L" : Libra
TP : 2 bytes data identification.
"GR" : Gross weight "NT" : Net weight
T : 1 byte data identification.
"G" : Gross weight "N" : Net weight
H2 : 2 bytes data identification.
"GS" : Gross weight "NT" : Net weight
STUS : 1 byte status indication.
"M" (ASCII 4DH) : Motion
"O" (ASCII 4FH) : Overload
" " (ASCII 20H) : Normal
H1 : 2 bytes status indication.
"ST" : Stable
"OL" : OverLoad
"US" : Unstable

3. RS-422 One to Multi Connection :

HB8212X1 HB8212X1 HB8212X1
┌───────┐┌───────┐┌───────┐
│ TXD RXD ││ TXD RXD ││ TXD RXD │
│+ - + - ││+ - + - ││+ - + - │
└┼─┼─┼─┼┘└┼─┼─┼─┼┘└┼─┼─┼─┼┘
HOST │ │ │ │ │ │ │ │ │ │ ├─┼┐
┌───┐ │ │ │ │ │ │ │ │ │ │ │ │ R
│ TXD+ ┼──┼─┼─┴─┼──┼─┼─┴─┼──┼─┼─┘ │ T
│ │ │ │ │ │ │ │ │ │ ├┘
│ TXD- ┼──┼─┼───┴──┼─┼───┴──┼─┼───┘
│ │ │ │ │ │ │ │
│ RXD+ ┼┬─┴─┼──────┴─┼──────┘ │ TWISTED-PAIR CABLE

│ ││ │ │ │
│ RXD- ┼┼──┬┴────────┴────────┘
└───┘│ │
└ RT ┘ TWISTED-PAIR CABLE
120 Ω
Figure 4.9-1
 <1>. Figure 4.9-1 shows a typical RS-422 network of one to multi
connection of the HB8212X1. A twisted-pair cable should be used
and the signal ground (SG) should be connected to reduce the
noise trouble and a terminal resistor of 120Ω[ might need to be
used to reduce the distortion of the signal waveforms.
<2>. A two digits RS-422 ID Number (01~99) should be set to each
HB8212X1 via F51.
<3>. The Data Output Mode should be set to the "Command Mode" to each
HB8212X1 via F48.
<4>. Stand-by State :
When the AC power is connected, the HB8212X1 will be in the
Stand-by State. When the HB8212X1 is in the Stand-by State, the
RS-422 receiver is set ON and the RS-422 driver is set OFF. That
is, the command can be received by the HB8212X1 but the reply
will not be answered.
<5>. Enabled State :
After the "RS-422 Enabled Command" has been transmitted by the
Host, the identified HB8212X1 will go to the Eanbled State and
the others will stand in the Stand-by State.
If the RS-422 ID Number has been set to 00, then the HB8212X1 is
Always in the Enabled State which can be used for one to one
connection.
When the HB8212X1 is in the Enabled State, both the RS-422
receiver and driver are set ON. That is, the command can be
received by the HB8212X1 and a reply according to the command
can also be sent to the host equipment.

4. Communication Format (For Command Mode) :

<1>. "SA" Command :
"SA0" Command : ZERO Command

S A 0 CR → HB8212X1
S A 0 CR
Computer ←
 "SA1" Command : TARE Command

S A 1 CR → HB8212X1
S A 1 CR
Computer ←

"SA2" Command : GROSS Command

S A 2 CR → HB8212X1
S A 2 CR
Computer ←
"SA3" Command : NET Command
S A 3 CR → HB8212X1
S A 3 CR
Computer ←

"SA4" Command : TARE RESET Command

S A 4 CR → HB8212X1
S A 4 CR
Computer ←

<2>. "SB" Command :

"SB0" Command : RS-422 Enabled Command
S B 0 ID CR
S B 0 ID CR
Computer ←
ID : 2 Digits RS-422 ID Number

"SB1" Command : CODE Number Setting Command

S B 1 XX CR
S B 1 XX CR
Computer ←
XX : 2 Digits CODE Number (00¡ã99)
<3>. "SC" Command :
"SC0" Command : Set ZERO Coefficient Command
S C 0 CR → HB8212X1
S C 0 CR
Computer ←
 "SC1" Command : Set SPAN Coefficient Command
S C 1 CR → HB8212X1
S C 1 CR
Computer ←
The [SC0] and [SC1] commands are used by HOLBRIGHT to calibrate the
Zero and Span Coefficients of the HB8212X1 indicator. The user must
not attempt to use these 2 functions; otherwise the data calculation
will be out of order.

<4>. "RA" Command :

"RA0" Command : Read out the Gross Weight Command
R A 0 CR → HB8212X1
R A 0 PL D7~D1 CR
Computer ←
PL : 1 byte polarity sign. " " (ASCII 20H) : for positive data.
"-" (ASCII 2DH) : for negative data.
D1~D7 : 7 digits data including decimal point. The leading zeros
will be transmitted by "Space" characters.
"RA1" Command : Read out the Tare Weight
R A 1 CR → HB8212X1
R A 1 SP D7~D1 CR
Computer ←

"RA2" Command : Read out the Net Weight

R A 2 CR → HB8212X1
R A 2 PL D7~D1 CR
Computer ←

"RA3" Command : Read out the NEAR ZERO WEIGHT

R A 3 CR → HB8212X1
R A 3 SP D7~D1 CR
Computer ←
"RA4" Command : Read out the UPPER LIMIT WEIGHT
R A 4 CR → HB8212X1
R A 4 SP D7~D1 CR
Computer ←
 "RA5" Command : Read out the LOWER LIMIT WEIGHT
R A 5 CR → HB8212X1
R A 5 SP D7~D1 CR
Computer ←

"RA6" Command : Read out the DI CODE Inputs Command

R A 6 CR → HB8212X1
R A 6 SP H4~H1 L4~L1 CR
Computer ←
"1":ON, "0":OFF
H4 : DI CODE 80 (Bit.3) L4 : DI CODE 08 (Bit.3)
H3 : DI CODE 40 (Bit.2) L3 : DI CODE 04 (Bit.2)
H2 : DI CODE 20 (Bit.1) L2 : DI CODE 02 (Bit.1)
H1 : DI CODE 10 (Bit.0) L1 : DI CODE 01 (Bit.0)

"RA7" Command : Read out Control DI Command

R A 3 CR → HB8212X1
R A 3 SP DI8~DI1 CR
Computer ←
"1":ON, "0":OFF
DI8 : DI TARE RESET ( 9-pin Connector, pin 4)
DI7 : DI GR/NT ( 9-pin Connector, pin 3)
DI6 : DI TARE ( 9-pin Connector, pin 2)
DI5 : DI ZERO ( 9-pin Connector, pin 1)
DI4 : DI CHARGE/DISCHARGE (25-pin Connector, pin24)
DI3 : DI TARE (25-pin Connector, pin12)
DI2 : DI STOP (25-pin Connector, pin11)
DI1 : DI START (25-pin Connector, pin10)

"RA8" Command : Read out Control DO Command

R A 8 CR → HB8212X1
R A 8 DO8~DO1 CR
Computer ←
"1":ON, "0":OFF
DO8 : DO LOWER LIMIT / DO UNDER (Lo) (25-pin Connector, pin22)
DO7 : DO UPPER LIMIT / DO OVER (Hi) (25-pin Connector, pin21)
DO6 : DO ERROR / DO OK (GO) (25-pin Connector, pin20)
DO5 : DO WEIGHING COMPLETE (25-pin Connector, pin19)
 DO4 : DO SP3 (25-pin Connector, pin18)
DO3 : DO SP2(LoLo) (25-pin Connector, pin17)
DO2 : DO SP1(HiHi) (25-pin Connector, pin16)
DO1 : DO NEAR ZERO (25-pin Connector, pin15)

"RA9" Command : Read out the Weighing Status Command

R A 9 CR → HB8212X1
R A 9 DS8~DS1 CR
Computer
"1":YES , "0":NO
DS8 : Error
DS7 : Sequence Control Mode Started
DS6 : Display Net Weight
DS5 : Tare Entered
DS4 : Weigher Stable
DS3 : Under Load
DS2 : Over Load
DS1 : Center of Zero

<5>. "RB" Command :

"RB0" Command : Read out the FULL set value of CODE XX

R B 0 XX CR → HB8212X1
R B 0 XX SP D7~D1 CR
Computer
XX : 2 Digits CODE Number (00¡ã99)
D1~D7 : 7 digits data including decimal point. The leading zeros
will be transmitted by "Space" characters.
"RB1" Command : Read out the PRE1 set value of CODE XX
R B 1 XX CR → HB8212X1
R B 1 XX SP D7~D1 CR
Computer

"RB2" Command : Read out the PRE2 set value of CODE XX

R B 3 XX CR → HB8212X1
R B 3 XX SP D7~D1 CR
Computer
 "RB3" Command : Read out the FREE FALL set value of CODE XX
R B 3 XX CR → HB8212X1
R B 3 XX SP D7~D1 CR
Computer

"RB4" Command : Read out the OVER set value of CODE XX

R B 4 XX CR → HB8212X1
R B 4 XX SP D7~D1 CR
Computer

"RB5" Command : Read out the UNDER set value of CODE XX

R B 5 XX CR → HB8212X1
R B 5 XX SP D7~D1 CR
Computer

<6>. "WA" Command :

"WA1" Command : Write the Tare Weight

W A 1 SP D7~D1 CR → HB8212X1
W A 1 SP D7~D1 CR
Computer

"WA3" Command : Write the NEAR ZERO set value

W A 3 SP D7~D1 CR → HB8212X1
W A 3 SP D7~D1 CR
Computer

"WA4" Command : Write the UPPER LIMIT set value

W A 4 SP D7~D1 CR → HB8212X1
W A 4 SP D7~D1 CR
Computer

"WA5" Command : Write the LOWER LIMIT set value

W A 5 SP D7~D1 CR → HB8212X1
W A 5 SP D7~D1 CR
Computer
<7>. "WB" Command :

"WB0" Command : Write the FULL set value of CODE XX

W B 0 XX SP D7~D1 CR → HB8212X1
W B 0 XX SP D7~D1 CR
Computer

"WB1" Command : Write the PRE1 set value of CODE XX

W B 1 XX SP D7~D1 CR → HB8212X1
W B 1 XX SP D7~D1 CR
Computer

"WB2" Command : Write the PRE2 set value of CODE XX

W B 2 XX SP D7~D1 CR → HB8212X1
W B 2 XX SP D7~D1 CR
Computer

"WB3" Command : Write the FREE FALL set value of CODE XX

W B 3 XX SP D7~D1 CR → HB8212X1
W B 3 XX SP D7~D1 CR
Computer

"WB4" Command : Write the OVER set value of CODE XX

W B 4 XX SP D7~D1 CR → HB8212X1
W B 4 XX SP D7~D1 CR
Computer

¡P"WB5" Command : Write the UNDER set value of CODE XX

W B 5 XX SP D7~D1 CR → HB8212X1
W B 5 XX SP D7~D1 CR
Computer
APPENDIX:A Message Summary
A.1 Indication Message :
〔-------〕 : Over Weight
The gross weight is greater than 110% of the maximum capacity or
an input signal from the loadcell is greater than 36mV.
〔ooooooo〕 : Under Weight
The loadcell is not connected or an input signal from the loadcell
is smaller than -36mV.
A.2 Functional Message :
〔C o d E - X X〕 : HB8212X1 is waiting you to set the CODE Number.
〔E n t C o d E〕 : The CODE Number has been entered.
〔F u n c - X X〕 : HB8212X1 is waiting you to select the F-Function.
〔0.X X X X X X〕 : F00 - for setting the NEAR ZERO set value.
〔1.X X X X X X〕 : F01 - for setting the FULL set value.
〔2.X X X X X X〕 : F02 - for setting the PRE1 set value.
〔3.X X X X X X〕 : F03 - for setting the PRE2 set value.
〔4.X X X X X X〕 : F04 - for setting the FREE FALL set value.
〔5.X X X X X X〕 : F05 - for setting the OVER set value.
〔6.X X X X X X〕 : F06 - for setting the UNDER set value.
〔7.X X X X X X〕 : F07 - for setting the TARE weight.
〔8.X X X X X X〕 : F08 - for setting the UPPER LIMIT set value.
〔9.X X X X X X〕 : F09 - for setting the LOWER LIMIT set value.
〔 1 0. X〕: F10 - for setting the Weighing Mode
〔1 1. X〕: F11 - for setting the Control Mode
〔1 2. X〕: F12 - for setting the CODE Selection
〔1 3. X〕: F13 - for setting the NEAR ZERO comparison
〔1 4. X〕: F14 - for setting the OVER/UNDER (Hi/Lo) comparison
〔1 5. X〕: F15 - for setting the UPPER LIMIT comparison
〔1 6. X〕: F16 - for setting the LOWER LIMIT comparison
〔1 7. X〕: F17 - for setting the ZERO/TARE input condition
〔1 8. X〕: F18 - for setting the Taring Range
〔1 9. X〕: F19 - for setting the NEAR ZERO output condition
〔2 0. X〕: F20 - for setting the OVER/UNDER output condition
〔2 1. X〕: F21 - for setting the Auto Tare Function
〔2 2. X〕: F22 - for setting the Control Output Selection
〔2 3. X〕: F23 - for setting the Weighing Complete Output
〔2 4. X.X〕: F24 - for setting the Weighing Complete Output Time
〔2 5. X.X〕: F25 - for setting the Inhibition Time
〔2 6. X.X〕 : F26 - for setting the Finish Time
〔3 0. X〕 : F30 - for setting the Weight Unit
〔3 1. X〕 : F31 - for setting the Display Frequency
〔3 2. X〕 : F32 - for setting the Power-ON Zero
〔3 3. X〕 : F33 - for setting the Zero Range
〔3 4. X〕 : F34 - for setting the Zero Tracking
〔3 5. X〕 : F35 - for setting the Stable Detection
〔3 6. X〕 : F36 - for setting the Digital Filter
〔3 7. X〕 : F37 - for setting the [ZERO] key inhibition
〔3 8. X〕 : F38 - for setting the [TARE] key inhibition
〔3 9. X〕 : F39 - for setting the [GR/NT] key inhibition
〔4 0. X〕 : F40 - for setting the [TARE RESET] key inhibition
〔4 1. X〕 : F41 - for setting the Auto Net Weight Display
〔F 4 2 r E A d〕 : F42 - for reading out the ZERO coefficient
〔F 4 3 r E A d〕 : F43 - for reading out the SPAN coefficient
〔F 4 4 r E A d〕 : F44 - for reading out the ZERO parameter
〔F 4 5 r E A d〕 : F45 - for reading out the SPAN parameter
〔4 6. X〕 : F46 - for setting the Frame Format
〔4 7. X〕 : F47 - for setting the Baud Rate
〔4 8. X〕 : F48 - for setting the Data Output Mode
〔4 9. X〕 : F49 - for setting the Data for the Stream Mode
〔5 0. X〕 : F50 - for setting the Data Format for the Stream Mode
〔5 1. X〕 : F51 - for setting the RS-422 ID Number
〔5 6. X〕 : F56 - for setting the Data Memory Reset Function
〔5 7.r E S E t〕 : F57 - to Reset the Setpoints Memory
〔5 8.r E S E t〕 : F58 - to Reset the Function Parameters
〔5 9.r E S E t〕 : F59 - to Reset the Weighing Parameters
〔6 0. X〕 : F60 - for setting the Decimal Place
〔6 1. X X〕 : F61 - for setting the Min. Division
〔c.X X X X X X〕 : F62 - for setting the Max. Capacity
〔C A L - 0〕 : F63 - Zero Calibration
〔E n d - 0〕 , : F63 - End of Zero Calibration
〔C A L - S P n〕 : F64 - Span Calibration
〔L.X X X X X X〕 : F64 - entering the Balance Weight value
〔E n d - S P n〕 : F64 - End of Span Calibration
〔6 5. X〕 : F65 - for setting the Weighing Coefficient and
Parameter Entering Function
〔F 6 6 E n t 0〕 : F66 - writing the ZERO Coefficient
 〔F 6 7 E n t S〕 : F67 - writing the SPAN Coefficient
〔F 6 8 E n t 0〕 : F68 - writing the ZERO Parameter.
〔F 6 9 E n t S〕 : F69 - writing the SPAN Parameter.
A.3 Error Message :
〔E r r o r 0 0〕 : The zero offset is out of the setting range.
〔C O d E.E r r〕: The CODE Number is selected error.
〔E r r F u n c〕 : The F-FUNCTION is selected error.
〔- t A r E〕 : a negative TARE weight has been set.
(Refer to P.4-15)
〔E r r F C A L〕: The CAL Switch is not slid ON.
〔E r r F 5 6 0〕 : F56 is set to "0:OFF". (Refer to P.4-11)
〔E r r F 6 1 1〕 : The Minimum Devision is set error.
〔E r r F 6 2 1〕 : The Maximum Capacity is set error.
The Maximum Capacity should be a multiple of the
Division.
〔E r r F 6 2 2〕 : The Maximum Capacity is set error.
The Resolution should be over or equal to 300.
〔E r r F 6 2 3〕 : The Maximum Capacity is set error.
The Resolution should be under or equal to 12000.
〔E r r F 6 3 1〕 : The HB8212X1 isn't able to achieve zero calibration
because of the input signal is unstable.
〔E r r F 6 3 2〕 : The HB8212X1 isn't able to achieve zero calibration
because of the input signal is negative.
〔E r r F 6 3 3〕 : The HB8212X1 isn't able to achieve zero calibration
because of the input signal is over 30mV.
〔E r r F 6 4 1〕 : The HB8212X1 isn't able to achieve span calibration
because of the input signal is unstable.
〔E r r F 6 4 2〕 : The HB8212X1 isn't able to achieve span calibration
because of the input signal is less than 0.6£gV/D.
〔E r r F 6 4 3〕 : The HB8212X1 isn't able to achieve span calibration
because of the input signal is over 120£gV/D.
〔E r r F 6 4 4〕 : The balance weight setting error.
The balance weight must not be entered as a value equal to 0. The balance
weight must not be entered as a value greater than the Maximum Capacity.The
balance weight must be entered as a value which is a multiple of the Minimum
Division.

〔F n.O F F 1〕 : The function key has been set to inhibit.

〔F n.O F F 2〕 : The key function is inhibited during the Sequence Control Weighing is
proceeding.
〔S E.E r r 1〕 : The DI START is set on while the DI STOP still at on condition.
〔S E.E r r 2〕 : A Sequence Control Weighing proceeding is stopped by the DI STOP
input.
〔S E.E r r 3〕 : Setpoints are set error.
The FULL set value must be greater than zero.The FULL set value must be
greater than the FREE FALL set value.The FULL set value must be greater
than the PRE1 & the PRE2 set value. The PRE2 set value must be greater
than the PRE1 set value.