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X K 3 1 9 0 C 602
XK3190-C602
Weighing Indicator
U s s s e e r r r M a a n u a a l l l
X K 3 1 9 0 C 602
Content
Preface
Chapter 1 General……………………………………………………
Chapter 2 Main Parameters……………………………………………
Chapter 3 Installation, Interface & Communication Format…………
Chapter 4 Parameters Setting and Calibration…………………………
Chapter 5 Operating Instruction of Quantitative Scale…………………
Chapter 6 Control Process of Quantitative Scale ………………………
Chapter 7 Operating Instruction of Catchweigher……………………………
Chapter 8 Application Examples of Catchweigher……………………………
Annex A Error Prompt Message……………………………………………
Annex B Schematic Diagram of Relay Board………………………………
Annex C Scoreboard Data Waveform Graph and Format………………
Annex D Data Format of Communication Port (1)…………………………
Annex E Data Format of Command-Response Mode of Communication Port (2)………………
Annex F Explanation on Print Format……………………………………
Annex G Troubleshooting of General Problems…………………………
Annex H Safety Instructions………………………………………………
X K 3 1 9 0 C 602
Preface
Instruction for use of manual
This manual is for reference by the operators and installers of XK3190-C602 indicator during their operation or installation and testing. Chapter 1 and chapter 2 of this manual introduce the technological features and parameters of the indicator in a general manner. Chapter 3 and chapter
4 describe the installation, parameter setting and calibration methods which can be referred to by installers and repairmen as well as by on-site operators who need to adjust the working modes and parameters of the indicator. Chapter 5 gives out the details of on-site operation methods when the indicator is used to control quantitative scale. Chapter 6 explains the ways and working procedures of the indicator when it is used to control quantitative scale, which can assist installers and operators in understanding the setting of each parameter. Chapter 7 covers the on-site operation methods of indicator when it is used to control catchweigher. Chapter 8 focuses on the ways and working procedures of the indicator when it is used to control catchweigher, which can help installers and operators understand the setting of each parameter. The annexes provide information for error prompt message, communication format, and general problems.
During use of this manual, you may browse it first, and then select the contents related to your current task while omitting the part not concerned. After you have got a general understanding of the indicator, you can read it once again carefully.
The following glossaries are used in the manual:
Parameters are short for configuration parameters. The configuration parameters of quantitative scale include the data setting of timing constant, batching value, and lead, while that of catchweigher includes the data setting of timing constant and catch weight limit. Configuration parameter 2 stands for the second set of parameters. Please note that only
嫐SET 2嬪parameter can be separately configured as 5 sets, while
嫐SET 1嬪can only have 1 set.
Lead During the feeding of quantitative scale, the weight of material on the load carrier is less than the weight of material delivered by the feeder since part of the delivered material is still in the
X K 3 1 9 0 C 602 air and has not reached to the load carrier. To obtain the predetermined material weight, it is necessary to turn off the feeder in advance. The weight involved in the leading is called a lead. For
C602, “self-correction of lead” function can be activated to ensure the accuracy of final weight.
Gradual feed When the feeding to quantitative scale is finished, the material weight is less than the predetermined weight and the difference is beyond the tolerance, the indicator can start slow feeding repeatedly and shortly to make the loaded weight approach to the predetermined value.
Add signal is short for “adding input signal is allowed”. Only when the add signal is valid can the
C602 output feeding control signal.
Discharge signal is short for “discharge input signal is allowed”. Only when discharge signal is valid can C602 output discharge control signal.
Zero zone is the weight limit in additive scale which is used to judge whether the material in hopper is completely discharged.
1. During discharging, it is deemed completed when the indicator shows the gross weight is below zero zone.
2. The indicator can print and totalize only when the material weight is above zero zone.
For catchweigher, the self-control catchweigher can start weighing process only when the weight signal is above zero zone and can print and sum when the calculation result of material weight is above zero zone.
Additive scale is the quantitative scale used for batching control of added material weight in load carrier (like hopper etc), for example, the hopper-type quantitative packing scale.
Subtracting scale is the quantitative scale used for batching control of subtracted material in the load carrier (like hopper). It is also called weight loss scale.
Negative scale is the indicator to measure the weight removed from the load carrier. Subtracting scale works as negative scale during feeding.
Channel is the range of object weight. C602 indicator can be divided into 5 weight ranges, also called 5 channels. Each channel has 1 corresponding switch output signal.
Out-of-tolerance treatment When it is valid and the materials fed by quantitative scale is less than the lower limit of batching value (subtracting tolerance of batching value), while there is no gradual feed function, or when the fed material is more than the upper limit of set value (additive tolerance of batching value), the quantitative scale will stop running, waiting for manual treatment.
When the weight meets the tolerance requirement, the quantitative scale will resume the interrupted work.
Peak holding When the catchweigher captures an object weight, it will be displayed until the weight of next object is captured. The main display or auxiliary display can be selected to show
X K 3 1 9 0 C 602 the captured object weight.
Initial zero-setting is the first zero-setting operation after startup. It can be set as automatic zero-setting upon startup (initial) or manual zero-setting. If zero-setting upon startup is prohibited, the indicator maintains the zero point at shutdown. The initial zero-setting range can be selected and generally ±10%Max is set. If the variation of zero point of scale exceeds the initial zero-setting range, initial zero-setting cannot be carried out. The zero-setting range
(generally ±2%Max) is based on the zero point determined during initial zero-setting.
Main display The 6-digit 0.56 LED digital tube in upper part of display window and the indicators on both sides are main display of C602 indicator, which is used to display major contents such as weight and set value etc..
Auxiliary display The 6-digit 0.4 LED digital tube in lower part of display window is auxiliary display of C602 indicator, which is used to display accumulative value, summation, date, time, operation procedure etc.. Parameters are prompted during parameter setting and error signal is displayed in case of error prompt.
X K 3 1 9 0 C 602
Chapter 1 General
The XK3190-C602 weighing indicator adopts Cortex M3 32-bit processor and high-precision
1 - A/D convertor to carry out conversion display for weight signal. The maximum conversion speed can reach up to 200/s. The display can be easily connected with resistance strain gauge transducer to form batching scale and quantitative packing scale etc., suitable for various applications where high-speed and high-precision weighing control are required.
Major functions and features of XK3190—C602 weighing indicator:
(1) Four optional working procedures of additive scale, subtracting scale, self-control catchweigher and external control catchweigher. The catchweigher can be set as general catchweigher and peak holding scale, with excellent versatility. As quantitative scale and catchweigher, it can store 5 sets of parameters.
(2) AD speed can be set, and digital filtering intensity can also be set.
(3) Save, check, and delete weighing record, with power-off data protection function.
(4) Accurate clock, calendar, automatic leap year and leap month display, not affected by power-off.
(5) Self-control function and various operation error messages.
(6) The standard configuration includes 8 optical isolation switch input, of which 2 channels are used as high speed counting input, encoder input or interrupt (i.e. quick response) input; 8 optical isolation switch output (with external relay box optional). The standard program of indicator can carry out batching value control for two materials.
(7) Expansion is possible for switch value input and output. With the connection of one external IO expansion box, 8 additional switch input and 8 switch output can be provided. 4 IO expansion boxes can be connected in series as a max..
(8) Two independent asynchronous serial communication interfaces, with interface 1 of
RS232 and interface 2 of RS232/RS422/RS485 optional. Two communication modes are available: continuous send and command response.
(9) Parallel/serial print interface, available for connection with various printers.
(10) Chinese and English weighing record, accumulative value, parameters or calibration parameters can be printed.
(11) Optical isolation 20mA current loop scoreboard display interface.
(12) 1 optical isolation 4 ~ 20mA/0 ~ 5V/0 ~ 10V analog output (optional).
X K 3 1 9 0 C 602
Chapter 2 Main Parameters
Indicator model
Precision degree
XK3190—C602 weighing indicator
Level 3
Max. verification scale n ind
=3000 interval
Min. input signal voltage
of e verification scale 12V interval
Input signal range 3mV 15mV
Bridge power of weighing DC 5V 80mA load cell
Connecting type of 6-wire system, automatic compensation weighing load cell
Max. cable length of of long wire
100m / 0.5mm
2 weighing load cell
Display
Material: copper
Main display has 6-digit LED digital tube, with character height of 0.56 in.
Auxiliary display has 6-digit LED digital
Display scale interval tube, with character height of 0.4"
23 status indicating lamps
1/2/5/10/20/50 optional
0 ~ 3 decimal digits
Clock
Keyboard
Yes. To show time and date
Soft push switch is adopted, including 6
Max. data memory 8064 weight data or 4032 groups of time capacity
Scoreboard display buttons.
+ weight data
Serial output is adopted. 20mA current interface loop signal can be connected to various sizes of scoreboard display
Communication interface 2 serial RS232C, one of which can be set as RS422/RS485
Baud rate 600 ~ 57600bps optional.
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Print interface Parallel output port: to be connected with
Switch output micro printer, LT800, KX-P1121 or
LQ1600K line printers.
Serial interface: to be connected with serial interface printer
8 optical isolation and open collector switch output with max. control voltage
3 30V DC, current 3100mA, total current of 8 channels 3200mA
Relay output (with relay Number of relay: 8 box) Contact capacity: 220VAC / 28V DC
0.5A
Switch input 8 optical isolation input, input signal +12
~ +24V DC, the pulse width shall be above 0.2s
I0 and I1 can be configured as one of four input modes: common input, 2 high-speed counting input , 1 decoder input or 2 interrupt input, the maximum counting frequency of high-speed counting and coder input mode is input and output
10KHz.
Expansion of Switch Each expansion module has 8 optical isolation input with input signal +12 ~
+24V DC
8 optical isolation relay output with contact capacity 220V AC/28V DC
0.5A
The expansion module shall be provided with stable external 12V power supply, with maximum working current of
300mA
C602 indicator can be connected to 4
Analog output switch expansion modules as max..
Optical isolation output. It can be set as one of three modes 4-20mA / 0-5V /
X K 3 1 9 0 C 602
0-10V.
Precision degree 30.2%FS
Load capacity:
4-20mA max. load resistor 2504
0-5V / 0-10V output impedance 3 14
Working power supply 110 230V AC 50/60 Hz
Temperature and humidity of working
0 40 3 90 RH environment
Temperature and -20 50 3 90 RH humidity transportation storage
External dimension of and
Housing: 150 * 75 * 105 (mm) (width * height * depth)
Weight
Panel: 172 * 93 * 3 (mm) (width * height* thickness)
Dimension of installation hole: 152 * 77
(mm)
About 0.8kg
Indicating lamp for operating status
X K 3 1 9 0 C 602
Chapter 3 Installation, Interface & Communication Format
I. Schematic diagram of front panel and back panel of indicator
Indicator lamp for output
Display window Indicator lamp for weighing status
Keyboard Indicator lamp for input signal
Figure 3 1 Schematic Diagram of Front Panel
X K 3 1 9 0 C 602
Connecting terminal of power
Calibration switch
Connecting terminal of switch output
Connection terminal of switch
Connecting terminal of
Interface of parallel printer
Figure 3 2 Schematic Diagram of Back Panel
Connection terminal of analogue output
Connection terminal of weighing load cell
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II. Schematic diagram of main panel and power panel
IO expansion socket
ISP jumper or toggle switch
Expansion socket
RS232/RS485 optional jumper
Socket of AD module
JTAG interface
Inter-panel connector
Figure 3-3 Schematic Diagram of Main Panel
analogue output
X K 3 1 9 0 C 602
Inter-panel connector
Setting jumper of
High voltage area in power panel
Figure 3-4 Schematic Diagram of Power Panel
X K 3 1 9 0 C 602
Attention: the indicator shall have sound and reliable earthing protection so as to ensure the operation stability and safety of operator.
Installation method of indicator
Unscrew two M4 fastening screws on both sides at back of the indicator, remove the binding, insert the indicator into the installation hole, insert the binding again and fasten it with M4 screws.
Disassembly and assembly of indicator
When changing analogue output mode or RS422/RS485 upper and lower resistance or the terminating resistance, the indicator should be opened to adjust the position of corresponding jumper at the main board or power panel. Please carry out the disassembly and assembly of the indicator according to following method to avoid any damage.
Attention: many elements in the indicator are sensitive to static electricity. Please get rid of charge in human body before disassembling the indicator by touching wall or other earthed object so as to protect the indicator against damage by static electricity.
Disassembly method: remove all screws in back panel of indicator, remove the back panel, carefully draw out the upper power panel and the lower main board to adjust corresponding jumper.
Assembly method: carefully insert the main board and power panel into the slots in the housing. When it is about to be fully inserted, and encounters significant resistance, as if blocked by something, at this time, do not insert it forcedly, instead, shake the circuit board and carefully insert it. If fails, check whether the contact pin of connector is deformed and whether there is any abnormity in double socket in the display panel. When circuit board is inserted to its place, mount the back panel and fasten all screws. Please note that the screws in the four corners are self-tapping screws and the rest are M3 * 6 SL screws.
X K 3 1 9 0 C 602
III. Connection between load cell and indicator
1. 7-pin electrical male plug are adopted for connection of load cell. Figure 3-5 shows the meanings of each pin.
2. When junction box is used to connect several load cells or extend the cable of load cell, six-wire connecting method must be adopted. When 1 load cell is used and the cable is not extended, four-wire system can be adopted. Under this condition, it is necessary to short connect the EX+ and SEN+ with EX- and SEN- respectively.
3. The load cell and indicator should be reliably connected and the shielded line of load cell should be reliably connected with GND terminal. The connecting line can not be plugged in and out when the indicator is powered on in order to prevent any damage to the indicator or load cell by static electricity
4. The load cell and indicator are both static sensitive equipments, so anti-static measures must be taken during the use. It is strictly forbidden to carry out welding operation or other operations with high current on the weighing platform. In the stormy season, lightening prevention measures must be taken reliably to prevent any damage to load cell and indicator caused by lightening stroke, and to guarantee the personal security of operators and safe running of weighing devices and relative equipments.
In the figure: EX+, EX-: excitation power supply; SEN+, SEN-: excitation feedback; SIG+, SIG-: load cell output signal; GND: shield
Figure 3-5 Connection Diagram of Load cell
X K 3 1 9 0 C 602
IV. Printer interface
1. Parallel printer interface adopts the standard 25-pin D type jack socket. Figure 3-6 shows the meaning of each pin. The indicator can be connected to printer by standard parallel interface printer cable. The 13th pin is +5V output which can be used to connect micro printer with peak current below 2A.
+5V
BUSY D7 D6 D5 D4 D3 D2 D1 D0 ST
13
25
12
Signal ground
24
11
23
10
22
9
21
8
20
7
19
6
18
5
17
4
16
3
15
2
14
1
Figure 3-6 Printer Interface
2. Serial printer interface uses the communication interface RS-232 (1). See RS-232 (1) in
(Fig. 3-7) for the meaning of each pin. Busy means the printer is busy.
Setting of printer
Correctly set the parameters 7, 8, and 9 (see table 4-3 in chapter four) of SET 1 according to the printer model and printing language (Chinese or English). If the printer not listed in the table is to be used, try to select the model with similar printing command format with those listed in the table.
Selection of micro printer
It is suggested to adopt the mirco printer with Chinese library, available for printing at least 16
English charanters in 1 line. When micro printer without Chinese character database is used, only
English printing mode is available for selection.
The micro printer shall support the following commands:
Switch to Chinese printing: ESC 8 n (0x1b, 0x38, n)
Reverse printing: ESC C n (0x1b, 0x63, n)
Our company can select the micro printer for customers, which has been verified in the C602.
X K 3 1 9 0 C 602
V. Scoreboard display interface
The scoreboard display interface is the 20mA current loop interface which is capable of driving various scoreboards.
Please refer to appendix C for the data format and oscillograph of scoreboard display interface.
In the figure, DP+ and DP- are the 20mA current loop interface of scoreboard.
Figure 3 7 Serial Communication and Scoreboard Display Interface
VI. Serial communication interface (1)
Serial communication interface (1) is RS232C interface which is capable of transmitting AD switch code or weight data to the PC at high speed, the data rate is equal to AD switching speed.
The function of serial interface (1) can be set by SET 1 parameter 6A and its baud rate can be set by SET 1 parameter 5A. Refer to appendix D for data format.
Serial interface (1) can also be used as the drive interface to connect the serial interface printer. The XOFF/XON flow control protocol can be adopted and Busy signal can be used to control the transmission of printing data.
VII. Serial communication interface (2)
Serial communication interface (2) can transmit data to PC as well as receive control command issued by the PC and set parameter. Serial communication (2) can communicate with
PC by selecting continuous send or command response. The function of serial interface (2) can be set by SET 1 parameter 6B and its baud rate can be set by parameter 5B.
The factory setting of serial communication interface (2) is RS232C, and it can be automatically set as RS422/485 interface. The jumper JP4 chooses different positions based on the selection of RS232 or RS422/484. See figure 3-5 for the connection of communication interface,
X K 3 1 9 0 C 602 in which the right RxD and TxD are RS-232 (2) interface while the TXD0, TXD1, XD0, and
RXD1 are RS422/485 interface. Only one of the two can be selected in operation. If terminating resistance and pull-up resistance or pull-down resistance needs to be connected, open the housing, draw out main panel, and short jumper JP3 in main panel. When 1-2 are shorted, the pull-down resistance is valid, when the 3-4 are shorted, terminating resistance is valid, and when 5-6 are shorted, the pull-up resistance is valid. If RS485 communication mode is used, please short TXD0 and RXD0, TXD1 and RXD1 terminals respectively. Parameter SET 1 6B must select 2. At this time, the communication interface is working in command response mode to prevent the conflict of bus. The range of common-mode voltage of RS422/RS485 mode is 3±7V.
1. Continuous send mode
When SET 1 parameter 6B is set as 1, continuous send mode is active. See table 3-1 for data format. All data are ASCII code, each byte is made up of ten bits, with the first bit as the start bit and the tenth bit as the stop bit, the bits in between are data bits, no check bit is available.
The transmitted data are the current weight value (gross weight or net weight) measured by the indicator, each frame has 9 bytes. See table 3-1 for format.
Table 3-1 Communication Format of Continuous Send Mode of Serial Interface (2)
Byte
1
2
3
4
5
6
7
8
9
10
11
Content
G or N
Explanation
G stands for gross weight while N for net weight.
Weighing data
Start bit
Most significant bit, non-significant zero is represented by space, the same with the following
Weighing data Data or symbol
Weighing data Data or symbol
Weighing data Data or symbol
If there are three bits of decimal, this
Weighing data byte is “.”.
Weighing data
If there are two bits of decimal, this byte is “.”.
Weighing data
Weighing data
0x0D
If there is one bit of decimal, this byte is “.”.
Least significant bit, it is a space if there is no decimal.
Carriage return
X K 3 1 9 0 C 602
12 0x0A Linefeed sign
For instance, if the indicator measures a gross weight of 50.00 (kg), it will send data as follows:
“G 50.00”;
If the indicator measures a net weight of 0.040 (kg), it will send data as follows:
“N 0.040”.
2. Command response mode
When SET 1 parameter 6B is set as 0 or 2, the serial interface 2 works in command response mode. If serial interface 2 works in continuous send mode, when the PC sends correct command to the indicator in command response mode, the indicator will automatically switch to command response mode. If the PC does not send read in EEPROM command, C602 will still work in continuous send mode after next startup. With regard to response mode, the PC sends
“setting the communication mode into continuous send mode”, the indicator will switch to continuous send mode.
Please refer to appendix E for the communication format of command response mode.
X K 3 1 9 0 C 602
VIII. Control interface and indicating lamp
See figure 3-8 for optical isolation switching value interface. O0 ~ O7 are the switch output signal terminals for the 8 open collectors, with each terminal absorbs current 100mA at maximum and the total current shall not exceed 200mA. I0 ~ I7 are the 8 Switch input signal terminals. 0V and +12V are the connecting terminals for 12V external isolation power supply, with maximum capacity of power supply of 200mA. The output terminal can be directly connected with the cable terminal of relay box which is supplied with the C602 indicator to transform the output mode of C602 into relay output. The signal input terminal of indicator can connect with +12 ~ +24V voltage as compared with 0V terminal, it can also be shorted with
+12V to be effective signal. Attention: the 0V terminal on back panel is isolated from the indicator housing and weighing load cell interface GND terminal. The input and output status indicating lamps on the indicator panel display the actual status of input and output terminals.
Terminal mark +12V O7 O6 O5 O4 O3 O2 O1 O0 I7
Definition of quantitative
12Vpo wer
O u q u f e l
S Q u l
S Q u
Z e t
S
I6
D is
I5
A d
I4
D is
I3
F e
I2 st o
I1
Oper a
I0 0V
Standby 12Vpower supply negative scale terminal supply positiv e l to ft o e r a n c e a li fi e d i e d n g o w f e e d
2 i c k f e e d
2 o w f e e d
1 i c k f e e d
1 r o p o si ti o n a n d b y n a l c h a r g e g si g n a g si l i d n c h a i e d r g e n g p t ion
Definition of catch- weigher terminal
Corresponding indicating lamp on panel a n d
S t b y a n d
S t b el y 5 a n n h
C
X K 3 1 9 0 C 602
C C C C O S S S S E S Oper Standby h h h h p ta t ta t x t ation e l
4 a n n a n n el
3 e l
2 a n n a n n e r a n d b a n d n d b a n d el
1 ti o n y b y y b y al c o n tr te r n o p o l
O7 O6 O5 O4 O3 O2 O1 O0 I7 I6 I5 I4 I3 I2 I1 I0
Figure 3-8 Switch input and Output Interfaces
Attention: among the input and output terminals, it is prohibited to short 0V terminal and +12V terminal. Or else, severe damage will be done to the indicator.
IX. Analog output
C602 indicator can choose from three Analog output modes: 0 ~ 5V, 0 ~ 10V voltage signal output and 4 ~ 20mA current signal output. The current loop is provided by internal power supply and the current signal can be adjusted to 0 ~ 20mA. The selection of output mode can be done in the jumper JP1 ~ JP3 in power panel, see figure 3-9 for details. In the figure, the jumper position is in conformity with these in power panel and X stands for the position of short circuit ring. The factory setting of current loop is 4-20mA. The output value can be gross weight or net weight by setting SET 1 parameter 1F. The analog output switch is controlled by SET 1 parameter 1E.
Analog output
4—20mA
(factory setting)
0—5V
0—10V
Jumper selection
JP3 JP2 JP1
X
X
X
X
X
X
X X
X
X K 3 1 9 0 C 602
Figure 3-9 Setting of Analog Output
Calibration method of Analog output
The zero point value and full range value of analog quantity are proportional to the corresponding DA code (see table 4-3, explanation for SET 1 parameter 11 and 12). Calculation and calibration of parameter 11 and 12 can be done by using the tolerance of Analog output.
Attention: in voltage output mode, short circuit of Analog output terminal is strictly prohibited, so does the connection of load of 4-20mA current output. Or else, damage will be caused to the Analog output circuit.
X. Detection of input and output hardware
When the main display is in the display internal code mode (select 1 for parameter A of
[ AB] in SET 0 ), the detection can be done to check the condition of input and output
[DISP ] terminals. When I0 input terminal signal is effective, the corresponding O0 will have control signal output. For the same reason, the I1 corresponds to O1……I7 corresponds to O7.
Attention: when external equipment is connected, try to avoid using this method to detect input and output circuit so as to prevent any accident.
Under the displaying status of internal code, the indicating lamp for net weight reflects the working status of ARM single-chip computer oscillator in main panel. When the indicating lamp is on, it means that the external quartz resonator is operating normally while the off status of indicating lamp means that the internal RC oscillator within single-chip computer is working.
X K 3 1 9 0 C 602
Chapter 4 Parameters Setting and Calibration
I. Parameters setting
The indicator has 5 groups of parameters setting condition, which are as follows:
SET 0 : inquiry parameters;
SET 1 :general parameters;
SET 2 : control parameters;
SET 3 : calibration;
SET 4 : calibration parameters.
Press setting button to enter , press 5 or 6 to select the parameter group,
[SEt ] then press input button to enter the setting of relevant parameter.
Some setting can go into effect after re-startup and power on.
Attention: when it is necessary to modify the calibrated parameters, the calibration switch shall be turned on. Or else, the modification cannot be carried out and warning
“Error 7” will be prompted.
The contents of parameter table SET 0 and SET 2 depend on the parameter
13 A in parameter table SET 1 .
Initialization of parameters
During the calibration process of ( SET 3 ), input “123456” (ignore the decimal) while inputting the loaded weight, press input button, the indicator will carry out initialization of parameters, all calibration parameters and working parameters will go back to the factory
setting. Under normal situation, special attention should be paid when using this function.
Explanation of button in parameters setting
7 or 8 change the currently flickering digit;
5 or 6 modify the value (parameter) of the currently flickering digit; esc do not save the current modified parameter, go back to the weighing status. input if a parameter is modified, pressing this button will save the parameter and enter the
next parameter.
X K 3 1 9 0 C 602
In the following parameters, the italic letters “ABCDEF” in “indicator display” represent that the indicator displays the values of parameters A, B, C, D, E, and F at the same time. “*”, “**”,
“******”, and “**.**.**” represent that it only displays the value of one parameter. The lower line in the indicator display shows the DOS prompt. In the DOS prompt, letter M is displayed as
“ ”, and letter W is displayed as “ “. “ SET 1 parameter 13A” is the parameter A in parameter number 13 in table 4-3.
Following is the introduction of parameter according to the group of parameters setting.
SET 0 inquiry parameters
Refer to table 4-3 or 4-4 respectively according to the different SET 1 parameters 13 A :
Table 4-1 SET 0 Parameter Table of Quantitative scale
(when SET 1 parameter 13A is set as 0 or 1 in table 4-3)
Parameter
Indicator display
1
2
3
[**.**.**]
[dAtE ]
[**.**.**]
[tIME ]
Parameter explanation
Current date setting
Current time setting
Remarks
If time or date is modified, it still shows current parameter after pressing input button, or else, it will go to the next parameter.
Accumulated times data in memory)
Not to be modified, only for inquiry.
A—printing option When A selects 1 or 2,
[******]
[n A]
(0: no printing, 1: printing press input button to accumulative data, 2: printing all start printing, press stop printing. button to stop
4
5
6
7
X K 3 1 9 0 C 602
The same as the above
Display of accumulative weight: when the effective value is above 6 digits, the
Accumulated weight
A—printing option
[******]
[A A]
(0: no printing, 1: printing accumulative data, 2: printing all data in memory) digits of decimal will automatically reduce.
When the integer is above 6 digits, it can only display 6 digits; the number of left decimal points which are lit on represents the number of digits not displayed.
[ A]
Delete accumulative data and weighing records
[dEL ]
(0: no deleting; 1: deleting)
[ A]
Brightness of display (0-7)
[Light ]
[ AB]
Displayed content
A—content in main display
A 0 1 2
Parameter A returns to
“0” upon each startup.
Display of accumulative weight: when the
Displayed content
Weight
Internal code
AD code
B—content in auxiliary display
B 0 1 2 3 4 5 effective value is above
6 digits, the digits of decimal will automatically reduce.
[dISP ] When the integer is above 6 digits, it can
Note
Displayed accum ulated content accum ulated times weight
Worki
Date Time ng step note1
1
Note
2 only display 6 digits; the number of left decimal points which are lit on represents the number of digits not displayed.
Note 1: it displays time in non-operation status.
Note 2: it displays batching value in operation status.
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Table 4-1 SET 0 Parameter Table of Catchweigher
(When SET 1 parameter 13A selects 2 or 3 in table 4-3)
Para mete r
1
2
3
4
5
6
7
8
Indicator display
Parameter explanation Remarks
[**.**.**]
[dAtE ]
[**.**.**]
[tIME ]
Current date setting
Current time setting
If time or date is modified, it still stops in current parameter after pressing input button, or else, it will go to the next parameter.
[ ****]
[n A]
Total accumulative times
A—printing option (the same below)
(0: no print, 1: print accumulative data, 2: print all data in memory)
[******]
[A A]
[ ****]
[n1 A]
[******]
[A1 A]
[ ****]
[n2 A]
[******]
[A2 A]
Total accumulated weight
Accumulated times of channel
Not to be modified, only
1 for inquiry.
Accumulated weight of press stop button to channel 1 stop printing.
Accumulated times of channel
2
Press input to enter
Accumulated weight of setting of next parameter channel 2
13
14
15
16
17
[ ****]
[n5 A]
[******]
[A5 A]
[ A]
[dEL ]
[ A]
[Light ]
[ AB]
[dISP ]
Accumulated times of channel
5
Accumulated weight of channel 5
Delete accumulative data and
weighing records
(0: no deleting, 1: deleting)
After pressing input , it will go to setting of next parameter,
Brightness of display (0-7)
Displayed content
A—content in main display
A 0 1 2
Parameter A returns to
“0” upon each startup.
Pressing esc button
X K 3 1 9 0 C 602
Displayed content
Weight
Internal code can also return to “0”
AD code status.
Display of accumulative
B—content in auxiliary display
B 0 1 2 3 4 5 weight: when the effective value is above
6 digits, the decimal digits will automatically
Displa yed conte nt accum accum ulated weigh times ulated t
Date Time
Worki ng step note 1
Note
1
Note
2 reduce. When the integer is above 6 digits, it can only display 6 digits; the number of left decimal points which are lit on represents the number of digits not displayed.
Note 1: it displays time in non-operation status.
Note 2: it displays the weight of the previous object in operation status.
X K 3 1 9 0 C 602
SET 1 general parameters
Table 4-3 Table for Setting of General Parameters
Param eter
Indicator display
1
2
[ABCDEF]
[COMM ]
[ ABCD]
[0 Set ]
Parameter explanation
Hardware selection
A communication (1)
(0: communication (1) OFF, 1: communication (1) ON)
B communication (2)
(0: communication (2) OFF, 1: communication (2) ON)
C scoreboard
(0: scoreboard 1 OFF: scoreboard ON )
D printer
(0: printer OFF, 1: printer ON)
E analog quantity (0: Analog output
OFF, 1: Analog output ON)
F display of analog quantity
(0: net weight, 1: gross weight)
Relevant parameters of zero
A zero-setting upon startup (0: off, 1: on)
B manual zero-setting range (0 ~ 5)
C zero-setting range upon startup (0 ~ 5)
B, C 0
Max% 0
1
2
2
4
3 4 5
10 20 100
D zero tracking range ( 0 8 )
3
Remarks
[ ABCD]
[FLt ]
D 0 1 2 3 4 5 6 7 8
(e) 0 0.5 1 1.5 2 2.5 3 3.5 4
AD relevant parameters
A filtering algorithm
The larger the value of B is, the faster the AD sampling
(0: sliding window filter 1: first-order and the lower the stability low-pass filter)
B
C AD filtering strength (0 ~ 4)
D
AD sampling speed (0 ~ 4) stable judgment (0 ~ 4) will be. The larger the value of C is, the greater the stability will be, but leading to greater delay. The smaller
Chara Meani cter ng
0 1 2 3 4
B Rate 25 50 60 100 200 the value of D is, the stricter the stability judgment will be, that’s to say, it is more
4
5
6
7
X K 3 1 9 0 C 602 difficult for the stability indicating lamp to light on when the weight is less
C Filter Weak
A little Mediu weak m stable. When the stability
A little strong
Strong indicating lamp is not on, zero-setting, tare and printing operation cannot be carried out. User can adjust relevant parameter according to actual need.
[ **]
[Addr ]
[ AB]
[bAud ]
Indicator communication address (01 ~
26)
When several indicators communicate with PC through the RS422/485 bus, communication addresses can be used to distinguish them.
Communication baud rate (0 ~7)
A-communication interface
B-communication interface (2)
(1),
A,B 0 1 2 3
BPS 600 1200 2400 4800
A,B 4 5 6 —
BPS 9600 19.2k 57.6k —
[ AB]
[t Mode ]
Communication mode
A-communication interface
B-communication interface (2)
(1),
The times of sending data per second by communication interface (1) equal to the AD
A
B
Communicati on mode
0
0
Command response mode
1
Communicati on mode
Continuously
Continuously send send weight
AD code
2
Used as printing conversion rate.
The sending rate of communication interface (2) interface in continuous send mode is
2 about 10 times per second.
1
RS485 mode can only be
Continuous send mode
RS485mode used in command response mode.
[ A]
[Prn ]
Printer model (0 ~ 4)
A
Printer model
0 1 2 3 4
The listed printer model is the typical one. Printer with
Panasoni
LT800
No Micro printer printer
(9 needle) c
KX-P
1121
EPSON compatible communication
1600K protocol can be used.
8
9
10
11
12
13
14
X K 3 1 9 0 C 602
[ AB]
A—selection of printing language
(0: English; 1: Chinese)
Parameter B is only effective for micro printer. As for panel-installed micro printer,
[PL ]
[ AB]
[Auto P]
[******]
[Aout_W]
B—printing direction selecting reverse printing is
(0: no reverse printing, 1: reverse printing) easy for checking printing result.
If parameter A is set as 1, the
A—automatic printing
(0: no print, 1: automatic print)
B—automatic data saving quantitative scale will automatically print the actual discharge quantity each time
(0: no saving, 1: saving weight, 2: saving and the catchweigher will time and weight) see note 1 print the weight of material measured each time.
This value can be larger than the max. weighing value, but
The corresponding weight at full the max. output value is the corresponding value at max. range of analog output
When this weight is reached, the indicator weighing. When this value is smaller than the max. will output analog value at full range. weighing value, the full range of analog output will remain unchanged.
[******]
[Aout_0]
[******]
[Aout_F]
[ ABC]
[type ]
[ A]
[Print?]
DA internal code (0-20000) at zero point
The zero point of calibration of analog output analog output of this
(output 4-20mA signal about 12520; parameter can be modified.
Output 0-5V/0-10V is 0)
DA internal code (10000-65535) at full The full range value of range of analog output
(4-20mA output about 62590; calibration analog output of this parameter can be
0-5V/0-10V output about 65200) modified.
External control
A working mode of the indicator
(0: additive scale, 1: subtracting scale, 2: indicator will only measure weight upon being activated self-control catchweigher, 3: external catchweigher mode: the by external control signal; control catchweigher)
Self-control catchweigher:
B parameters number (0-4) the indicator automatically
C weight unit starts weighing when the
(0: mg, 1: g, 2: kg, 3: t) weight is larger than zero zone value.
A-whether to print parameter setting
(0: No: 1: Yes)
X K 3 1 9 0 C 602
Note 1: if parameter 9 B is set as 1, while meeting the condition for automatic printing, it will save weight data, with 8064 weighing times as maximum. If 2 is selected, while meeting the condition for automatic printing, it will also save the current time and weight data, with 4032 weighing times and weight data as maximum. If the memory is full, the new data will overlap the earliest ones. When summation is deleted, the recorded data is also deleted.
When the setting of parameter 9B is changed, the original accumulative data and saved content shall be deleted, or else, error may occur to the weighing record. Weighing record can be either printed or read from communication interface (2).
X K 3 1 9 0 C 602
SET 2 control parameters
Refer to table 4-4 and 4-5 according to different value of SET 1 parameter 13A.
Table 4-4 Parameter 2 of Quantitative Scale
(when 0 or 1 is selected for parameter 13A in SET 1 in table 4-3)
Param eter
1
2
3
4
5
6
7
8
9
10
Indicator display
Parameter explanation Remarks
[******]
[A1 ]
[******]
[b1 ]
[******]
[C1 ]
[******]
[d1 ]
[******]
[A2 ]
[ ABC]
[CtrL ]
[ *****]
[Pt ]
Batching control parameters
A selection of self-correction of lead
(0: no correction, 1: correction)
B selection of out-of-tolerance treatment
(0: no treatment, continue operation;
1: wait for treatment until it is qualified)
C gradual feed for material shortage
(0: no gradual feed, 1: gradual feed for material shortage)
Set the cycle index (0 ~ 65535, 0
Cycle index means indefinite) in the full process from feed to discharge
Batching of material 1
Quick feed lead of material 1
Slow feed lead of material 1
Material 1 allowance.
[******]
[b2 ]
[******]
[C2 ]
[******]
[d2 ]
Additive scale: batching of material 2 If material 2 is not needed, please
Subtracting scale: weight of feed
Additive scale: quick feed lead of set this batching value as zero. material 2
Subtracting scale: minimum weight of material in hopper
Slow feed lead of material 2
Material 2 allowance
This parameter is useless for subtracting scale
This parameter is useless for subtracting scale
11
12
13
14
15
16
17
18
19
20
[ ***]
[t1 ]
[ ***]
[t2 ]
[ ***]
[t3 ]
[ ***]
[t4 ]
[ ***]
[t5 ]
[ ***]
[t6 ]
[ ***]
[t7 ]
X K 3 1 9 0 C 602
[******]
1. The discharge is deemed over when the indicator shows the gross weight is below zero zone.
Zero zone
[0_Zone] 2. The indicator can print and sum only when the gross weight is
[ ***]
[t0 ] above zero zone.
Feed measuring delay (0.0 ~ 25.5
Avoid misjudgment of weight caused by the weight impact at seconds) startup
Measurement delay of quick feed When t1 = 0, quick feed and slow
over (0.0 ~ 25.5 seconds) quick are activated at same time.
Measurement delay of slow feed over
(0.0 ~ 25.5 seconds)
Gradual feed output time (0.0 ~ 25.5 seconds)
Interval time of gradual feed (0.0 ~
25.5 seconds)
Qualified output time (0.0 ~ 25.5 seconds)
Discharge over delay (0.0 ~ 25.5 seconds)
Re-feed delay (0.0 ~ 25.5 seconds)
[ A]
[Print?]
A—whether to print parameter setting
(0: no printing: 1: printing)
X K 3 1 9 0 C 602
Table 4-5 Parameter 2 of Catchweigher
(when SET 1 parameter 13A is set as 2 or 3 in table 4-3)
Para mete r
Indicator display
1
Parameter explanation
[ A]
A—catchweighing mode
(0: non-peak hold, 1: peak
[CtrL ] hold)
2
3
4
Remarks
[******]
[A ]
Upper limit of channel 1:
If “zero zone” 3X A, the indicator outputs signal of for meaning of X. Same for below. channel 1 at t3.
Refer to note of parameter 8
Upper limit of channel 2:
[******]
[b ]
If A3X b, the indicator outputs signal of channel 2 at t3.
Upper limit of channel 3:
[******]
[C ]
If b 3X C, the indicator outputs signal of channel 3 at t3.
5
6
Upper limit of channel 4:
If C3X d, the indicator
[******] outputs signal of channel 4 at t3.
[d ]
If X 9d, the indicator will output signal of channel 5 at t3.
Zero zone:
1. After sending catchweighing signal, it will not enter the next cycle until the weight measured by indicator is below this value;
[******]
[0_Zone]
2. Under self-control mode, it will not enter t1 until the weight measured by indicator is above this value.
3. If X is below zero zone, the indicator will not output channel signal at t3.
7
X K 3 1 9 0 C 602
Judgment delay (0 ~ 25.5) seconds:
Under external control mode,
[ ***]
[t0 ] when it is activated, data calculation is started after
Please refer to parameter 6 for the definition of “zero t0;
Under self-control mode, data zone”. calculation is started after t0 when weight is out of zero zone.
8
Time for calculation of average weight
(0 ~ 25.5) seconds:
[ ***]
[t1 ]
After t0, the indicator will sum the weight values and
Assume that the obtained value is X. figure out the average during time t1. The obtained value serves catchweighing basis. as
9
10
11
Calculation delay (0 ~ 25.5) seconds:
[ ***] After t1 calculation is over, This setting can meet more
[t2 ] the indicator remains inactive during t2 time, waiting with control site requirements. delay.
Time for sending signal
[ ***]
(0 ~ 25.5) seconds:
After t2, the indicator sends
[t3 ]
Please refer to the catchweighing signal with explanation of parameter 2
~ parameter 5. length of t3
[ A]
A—whether to print parameter setting
[Print?]
(0: No: 1: Yes)
II. Calibration
Message: The calibration switch should be opened when the calibration is started, otherwise the calibration status cannot be entered. Before exit by pressing the button [enter], the calibration switch should be closed after completion of calibration; otherwise the auxiliary display will show the message [CALEnd]; It can be quitted by pressing [exit] and
X K 3 1 9 0 C 602 the calibration is valid.
Toggle the switch to ‘ON’, press the button Setting and press 5 or 6 repeatedly until
[ ]
[CALIb ]
[ 3]
is shown. Press Input and the indicator will show , which means it is
[SEt ] the calibration status. Press Input again to start the calibration process. Please see the following table for the calibration instruction and operation method (* is the original setting value).
Step
1
2
3
4
5
6
7
Table 4-6 Calibration Setting
Parameter
Display
[ *]
[dC ]
Parameter Instruction
Decimal Digits 0-3
Operation Instruction
Press Input after modifying the parameter
Press Input after
[ *]
Division 1/2/5/10/20/50 If the decimal digit is not
[e ] modifying the parameter zero, 10, 20, 50 cannot be selected.
[******]
[F ]
Max. Weighing
Press Input after modifying the parameter
A—Save the original zero
[ A]
[CAL 0?]
point
0 Should reconfirm the
Choose 0 to go to step 5;
Choose 1 to skip step 5 and current zero point; go to step 6.
1 Skip the confirmation of current zero point
[******]
The confirmation of zero Confirm that the current point weighing platform has no
[noLoAd] The upper part shows AD load and light is stable ON, code of the indicator then press Input
Load weight
Press Input after the load
[******]
[AdLoAd] The upper part shows AD is finished and the light is stable ON code of the indicator
[******]
[LoAd ]
Input the current load
Press changing it to current
weight
Input after weight value
8
X K 3 1 9 0 C 602
The calibration is done and
[******]
Display current load quitted.
[CALEnd the calibration status is
weight
Toggle the calibration switch to OFF
] and press Input to go back to normal weighing status.
III. Checking of calibration data
Prompt: The calibration switch should be opened when the calibration data is modified, otherwise it cannot be saved.
[ 4]
Press Setting and 6 to show . Press Input , the indicator will enter the data checking status, please see table 4-7.
Table 4-7 Calibration Data Checking
Parameter
Parameter
Display
1
2
Parameter Instruction
Operation Instruction
[ *]
[dC ]
Decimal Digits 0-3
Press Input after modifying the parameter
Press Input after modifying the
[ **]
[e ]
Division 1/2/5/10/20/50 parameter
If the decimal digit is not zero, 10, 20, 50 can not be selected.
3
4
5
6
7
[******]
[F ]
Max. Weighing
Press Input after modifying the parameter
After modifying the max. weighing
[******]
[0_Ad ]
Zero AD code
Press Input after modifying the parameter
[******]
[bL ]
CAL Coefficient
Press Input after modifying the parameter
[******]
Nonlinear
Value Note 1
[noLine]
Correction Press Input after
(-1 +1) Unit %Max modifying parameter the
[ *]
[PZL ]
Tare
Cannot be modified
8
9
X K 3 1 9 0 C 602
[******]
[0Point]
Current Zero
(Relative to calibration
This parameter reflects the zero stability of zero)
Cannot be modified. weighing load cell.
[ A]
A—Whether to print each parameter
[Print?]
0 No 1 Yes
Note 1: Nonlinear correction uses the parabola calculation method. The correction value is 1/2 max. weighing position, that is, the correction amount at the top of the correction curve. Nonlinear correction value equals to the negative value of the nonlinear tolerance of 1/2 max. weighing position. The unit of the nonlinear correction value is 1% of the max. weighing value. For example, for the scale whose Max=10kg, if 5kg is added to it and the weight shows 5006g, then the tolerance is +6g, that is , +0.06%Max and the nonlinear correction value is -0.06.
X K 3 1 9 0 C 602
Chapter 5 Operating Instruction of Quantitative Scale
I. Startup and zero setting upon startup
1.
After power is connected, the screen will full display for 10 seconds and show the indicator type and software version, then finally enter the weighing status. If the button Exit is pressed halfway, then automatic checking will be ended in advance.
2.
If the setting of ‘zero setting upon startup’ is valid, the empty scale weight deviates from zero and is still in zero setting scope after startup, the screen will perform zero setting upon startup automatically; If it is not in the zero setting scope, the screen will show the weight based on zero point upon shutting down. Please see the setting of parameter C in parameter 2 of Chapter
[ ABCD]
Parameter Setting for zero setting scope upon startup.
[0 SEt ]
3.
If the ‘zero setting upon startup’ switch is set OFF, the screen will show the weight after startup based on zero point upon shutting down. The operation of Zero setting button for the first time will be regarded as the initial zero setting.
II. Manual Zero Setting
If the display value deviates from zero and is still in the manual zero setting scope while the light is stable ON, press Zero setting button to get the display value back to zero and zero point
[0 SEt ]
1] of parameter setting for manual zero setting scope.
If it is in net weight status now, press Zero setting button to change to gross weight display status and press button Zero setting again to perform zero setting operation.
III. Tare
Under the weighing status, when the display weight is positive and is stable, press button
[Tare] to deduct the display weight, which serves as the tare weight. Then the current display net weight will be 0 and the display light for net weight will be ON.
The following operations are mentioned in the chapter of parameter setting, it will be described repeatedly in push-button order, which can help to memorize it.
IV. Setting of Date and Time
Setting 8 Input date setting 8 Input time setting 8 Input
X K 3 1 9 0 C 602
V. Print
Print Print the current weight under non operating, non setting status .
Remark: Please confirm the parameter setting of the printer type before printing to avoid printing mistake.
VI.
Data Query and Removal
Method to Save Weighing Data
[ AB]
Set Parameter B in Parameter 9 of SET 1 as 1, the quantitative scale will
[Auto P] automatically save the actual weight of each quantitative cycle. If it is set to 2, then the quantitative scale will automatically save the finishing time and actual weight of each quantitative cycle. The accumulation can’t be performed manually.
Inquiry Method
Press Setting 8 Input 8 Input 8 Input inquire the total accumulated times
8 Input inquiry the total accumulated weight . Press button 6 or 5 during the query.
If the option at right side of lower line shows ’1’, press button Input to print the accumulated times and accumulated weight. If the option shows ‘2’, press button Input to print all weighing records. Press button Exit to end printing weighing record halfway.
The communication port 2 of PC can also be used to read the weighing record.
Accumulated Value Removal
Press button Input after the accumulated value is displayed and the indicator will
[ 0] indicate , which means whether to remove the accumulated data. Press button 5
[dEL ]
8 Input to clear and press Input directly not to clear.
The communication port 2 of PC can also be used to clear the weighing record.
VII. Operation /Stop
Press the button Operation on the indicator panel to start the cycle.
If the button Stop is pressed, the indicator will enter the status of ‘pre-stop’ and the light of
‘stop’ and ‘operation’ will be ON at same time. It will be stopped after the cycle is completed. If the button Stop is pressed once again under the status of ‘pre-stop’, it will enter the ‘pause’ status.
Then the indicator will stop action, all outputs will be shut down and the signal lamp ‘function’ and ‘stop’ will all be OFF. If the button Operation is pressed again, the indicator will be restored
X K 3 1 9 0 C 602 to the running status and continue its work. If the button Stop is pressed repeatedly, the indicator will be switched over between ‘pre-stop’ and ‘pause’; Press button Setting under
‘pause’ status to enter the status of stop, and the status before ‘pause’ will not be saved.
The valid signal (i.e. add voltage of 12V~24V or short connected to ‘+12V’) are input to terminal ‘function’ I1 ,’stop’ I2 on the rear panel, which has same function as button
Operation or Stop .The signal ‘function’ and ‘stop’ will only work at the moment when connected.
Attention: The button Stop , input signal ‘stop’ and its function cannot be used as ‘emergent stop’ of the system.
VIII. One Time Operation
Input the valid signal (i.e. add voltage of 12V~24V or short connected to ‘+12V’) to the terminal ‘material feed’ on the rear panel temporarily. The indicator will start to run after the step of material feeding, and material feeding is started after the signal is valid. The indicator will stop running until the material feeding is finished and it will wait for ‘discharge’ terminal to input the valid signal. After the signal ‘material discharging’ is valid, the indicator will continue to run. The output control signal O5 will be valid after the discharge signal is activated. The discharging action will be finished after the .hopper weight is back to zero zone and the indicator will wait for the new ‘material feeding’ signal. The indicator at these two signal input terminals can be used to realize the synchronized operation with the exterior device or the manually controlled function of the device.
IX. Running after Power Down
If the power is lost during the operation of
quantitative scale
, C602 will memorize the status of program step before the power loss. The indicator will enter the status of pause after the power supply is back. Press button Operation , the indicator will continue the same work before the power loss (but there will be errors in the weight printing data and weighing record in this cycle). If the work before the power loss needs to be ended, the button Setting should be pressed.
X. Buffer Area of Key Command
There is a buffer area of key command with length of 4 in C602. When the key command
X K 3 1 9 0 C 602 with long duration is executed (for example, print the weighing record), the button pressed during the command execution period will be stored in the buffer area of key command. The new key command will be responded only when the current key command is executed.
X K 3 1 9 0 C 602
Chapter 6 Control Process of
Quantitative Scale
I. Additive Scale
Please refer to Fig 6-1 for the function and meaning of setting parameters during the process and the sequence order for controlling the input and output:
Figure 6-1 Working Sequence Drawing of Additive Quantitative Scale
The parameters instruction in the Figure t0 Measurement delay of material feed t1 quick feed over delay t2 Slow feed over delay (The indicator during the three periods will not judge the weight d1: Quantitative value of material 1 q1 Quick feed lead of material 1 a1 Slow feed lead of material o1 Allowance of material 1 L Zero zone
Notes to working process of additive quantitative scale:
1. The Add Signal is needed before material feeding;
2. The Discharge Signal is needed during material discharging;
3. The condition that the weight should be less than zero value should be satisfied during the process of closing the material discharging.
X K 3 1 9 0 C 602
4. If the Add Signal and Discharge Signal are always valid, the indicator will automatically execute the procedure repeatedly.
Table 6-2 describes the working process of
quantitative scale subtraction by program step.
Display method of program step
Set Parameter 7B of SET 0 to 4; under running status, the auxiliary display of the indicator will show the current program step number in forms of
‘Step**’.
Table 6-1 Description of Program Step of Additive Quantitative Scale
Program step
1
Description
Wait for stable display light to be ON and Add Signal to be valid; tare is automatically performed, the timer will be T0 and go to program step 2
2 Start quick feed of material 1. If T1 is 0 start the slow feed of material 1 at same time. When T0 is over, weight inspection is started.
If the loaded value reaches to batching value of material 1 minus quick feed lead of material 1, turn off quick feed of material
1.The timer will be T1 and go to program step 3.
Timing is over, go to program step 4 and the timer is T0 3
4
5
Start slow feed of material 1, timing is over and weight inspection is started. If the loaded value reaches to batching value of material
1 minus slow feed lead of material 1, turn off slow feed of material
1.Timer will be T2 and go to program step 5
The timing is over. If the lead correction is allowed, modify the slow feed lead of material 1, and go to program step 6.
6 If the material 1 weight is qualified, the qualified signal will be output and it will go to program step 9, the timer will be T5. If it is out of the tolerance, output the out-of-tolerance signal. If the weight is less than the batching value of material 1 minus tolerance
7
8
9
10
11
12
13
14
15
X K 3 1 9 0 C 602 of material 1 and the gradual feed is allowed, go to program step 7 and the timer will be T3; If the gradual feed is not allowed and the weight is more than the batching value plus tolerance, out-of
-tolerance treatment will stop at this step and wait for qualified out-of-tolerance treatment. If the out-of-tolerance treatment is not done, then go to program step 9, the timer will be T5.
Start the slow feed of material 1. When timing is over, the slow feed will be closed and timer will be T4, then go to program step 8.
Treatment is same as the program step 6
If timing is over, the qualified or out-of-tolerance signal will be shut down. If the batching value of material 2 is less than the scale interval, go to program step 19, otherwise, go to program step 10.
Wait for the stable display light to be ON and tare to be automatically done, timer will be T0 and go to program step 11.
Start the quick feed of material 2. If T0 is 0, start the slow feed of material 2 at same time. When the timing of T0 is over, weight inspection is started. If the loaded value reaches batching value of material 2 minus quick feed lead of material 1, turn off quick feed of material 2. The time will be T1 and go to program step 12.
Timing is over, go to program step 13 and the timer is T0.
Start the slow feed. The timing is over and weight inspection is started. If the loaded value reaches to batching value of material 1 minus slow feed lead of material 2, turn off slow feed of material
2..Timer will be T2 and go to program step 14.
The timing is over. If the lead is allowed to correct, correct the slow feed lead of material2, Go to program step 15.
If the material 2 weight is qualified, the qualified signal will be output and it will go to program step 18, the timer will be T5. If it is out of tolerance, output the out-of-tolerance signal. If the weight
X K 3 1 9 0 C 602 is less than the batching value of material 1 minus tolerance of material 1 and the gradual feed is allowed, go to program step 16 and the timer will be T3; If the gradual feed is not allowed and the weight is more than the batching value plus tolerance, out-of-tolerance treatment will stop at this step and wait for
16
17
18
19
20
21
22
23
24 qualified tolerance treatment. If the out-of-tolerance treatment is not done, go to program step 18, the timer will be T5.
Start the slow feed of material 2, timing is over, the slow feed will be closed and timer will be T4, go to program step 17.
Gradual feed. The disqualification treatment is as same as the program step 6. If it is qualified, go to step 18.
Timing is over, close the qualified or out-of-tolerance signal. If material feeding action is started manually, then stop the action; If it is under the status of automatic cycle, then go to program step
19.
Perform the automatic print and automatic storage operation according to the setting and go to the program step 20.
If there is an Add Signal, go to program step 21.
Material discharging. If the weight is back to Zero Zone, go to program step 22 and the timer will be T6.
Timing is over and material discharging should be stopped. If the material discharging is started manually, stop the action, otherwise, go to program step 23.
Go to program step 24 and the timer will be T7.
Timing is over. If the cycle time set is not reached, stop the action.
Otherwise go to program step 1 to continue the cycle and the surplus cycle time should be -1.
II. Subtracting scale
X K 3 1 9 0 C 602
Subtracting scale is to control the material (i.e. the material feed) weight discharged by the control hopper. Please refer to Fig 6-2 for the function and the meaning of setting parameters during the process and the sequence order for controlling the input and output:
Figure 6-2 Working Sequence Drawing of Subtracting Quantitative Scale
The parameter instruction in the Figure t0 Measurement delay of material feed t1 Quick feed over delay t2 Slow feed over delay The instrument during the three periods will not judge the weight d1 Quantitative value of feed q1 Quick feed lead of material 1; a1 Slow feed lead of material o1 Allowance of material b2:Min. remaining weight of material; A2:Charging weight of material
Note to working process of subtracting quantitative scale:
1. The Add Signal is needed before material feeding;
2. The Discharge Signal is needed during material discharging;
3. If the Add Signal and Discharge Signal are always valid, the indicator will automatically
X K 3 1 9 0 C 602 execute the procedure repeatedly.
4. If the remaining material weight is less than the min. weight (i.e.d1+d2) of one time material feeding weight plus material in the hopper, the instrument will be stopped to do the material feeding and wait for the Add Signal (it means material charging is allowed, that is, feed material to the hopper); The output control signal of material discharging of the instrument will be valid after there is an Add Signal and it will start to judge the weight. If the material weight in the hopper is added to the weight confirmed by the parameter A2, the material discharging will be stopped and the material feeding cycle which is just stopped will continue.
For example: the batching value of material 1 is 50 kg, the batching value of material 2 is
150kg and the min. remaining weight b2 is 20kg. If the remaining weight in the hopper is less than
70 kg when the cycle is started, the material should be added to the hopper up to over150kg to start the material feeding.
Table 6-2 describes the working process of the quantitative scale subtraction by program step.
Display method of program step
Set Parameter 7B SET 0 to 4; under the running status, the auxiliary display of the instrument will show current program step number in the forms of
‘Step**’.
Table 6-2 Description of Program Step of Subtracting Quantitative Scale
Program step
1
Description
If the hopper weight is less than the min. material weight plus batching value, go to program step 13.
Wait for the stable display light to be ON and the Add Signal to be valid, it will enter the status of negative scale, the timer will be T0 and go to program step 2.
2 Start the quick feed. If T1 is 0, start the slow feed at same time.
The timing T0 is over and weight inspection is started. If the loaded value reaches to batching value minus quick feed lead, turn
8
9
3
4
5
6
7
10
11
12
X K 3 1 9 0 C 602 off quick feed. The timer will be T1 and go to program step 3.
The timing is over, go to program step 4 and the timer will be T0.
Start the slow feed; timing is over and weight inspection is started.
If the loaded value reaches to batching value minus slow feed lead, turn off slow feed. Timer will be T2 and go to program step 5.
The timing is over. If the lead correction is allowed, modify the slow feed lead and go to program step 6.
If the weight is qualified, the qualified signal will be output and it will go to program step 9, the timer will be T5. If it is out of the tolerance, output the out-of-tolerance signal. If the weight is less than the batching value minus tolerance and the gradual feed is allowed, go to program step 7 and the timer will be T3; If the gradual feed is not allowed and the weight is more than the batching value plus tolerance, out-of-tolerance treatment will stop at this step and wait for qualified out-of-tolerance treatment. If the out-of-tolerance treatment is not done, then go to program step 9, the timer will be T5.
Start the slow feed, timing is over, the slow feed will be closed and timer will be T4. Go to program step 8.
Treatment is same as program step 6
Timing is over, close the qualified or out-of-tolerance signal. If material feeding action is started manually, then stop the action; If it is under the status of automatic cycle, then go to program step
10.
Perform the automatic print and automatic storage operation according to the setting and go to the program step 11.
Exit the status of negative scale, go to program step 12 and the timer will be T7.
The timing is over. If the cycle time is not reached, go back to
13
14
15
16
X K 3 1 9 0 C 602 program step 1. Otherwise stop the action.
If there is an Add Signal, go to program step 14.
Start the material discharging, add material to the hopper until the allowed weight is reached and go to program step 15.
If the material discharging is started manually, then stop the action.
Otherwise go to program step 16 and the timer will be T6.
Timing is over, go to program step 1 to continue the cycle
X K 3 1 9 0 C 602
Chapter 7 Operation Instruction of Batching scale
I. Power on and Zero Setting upon Start up
1. After power is on, the screen will full display 10 seconds and show the instrument type and software version, then finally enter the weighing status. If the button Exit is pressed during automatic checking, it will be ended in advance.
2. If the setting of ‘zero setting upon startup’ is valid, the empty scale weight deviates from zero and is still in the zero setting scope after startup, the screen will execute zero setting upon startup automatically; If it is not in the zero setting scope, the screen will show the weight based on the zero point upon shutting down. Please see the setting of parameter C in parameter 2
[ ABCD] of Chapter [SET 1] parameter setting for zero setting scope upon startup.
[0 SEt ]
3. If the ‘zero setting upon startup’ switch is set OFF, the screen will show the weight based on the zero point upon shutting down after startup. The operation of Zero setting button for the first time will be regarded as the initial zero setting.
II. Manual Zero Setting
If the display value deviates from zero point and is still in the manual zero setting scope while the light is stable ON, press the button Zero setting to get the display value back to zero
[0 SEt ] of Chapter [SET 1] parameter setting for manual zero setting scope.
If it is the net weight status now, press the button Zero setting to change to gross weight display status and press button Zero setting again to execute zero setting operation.
III. Tare
Under the weighing status, when the display weight is positive and stable, press button [Tare] to deduct the display weight, which serves as tare weight. Then the current display net weight will be 0 and the display light for net weight will be ON.
The following operations are mentioned in the chapter parameter setting, it will be described repeatedly in push-button order, which can help to memorize it.
IV. Setting of Date and Time
X K 3 1 9 0 C 602
Setting 8 Input date setting 8 Input time setting
V. Printing
Print Print the current weight in non-operating, non-setting status .
Remark: Please confirm the type of printer before printing to avoid printing mistake.
VI.
Data Query and Removal
Method to Save Weighing Data
[ AB]
Set Parameter B in Parameter 9 of SET 1 to 1, the
batching scale
will automatically save the actual result of each w
eighing.
If it is set to 2, the
batching scale
will automatically save every weighing time and actual weight, which cannot be accumulated manually.
Searching Method
Setting 8 Input 8 Input 8 Input search the total accumulated times 8 Input search the total accumulated weight 8 Input search the accumulated times of Channel 1
8 Input search the accumulated weight of Channel 1 8 Input search the accumulated times of Channel 2 8 Input search the accumulated weight of Channel 2 ……. Press button 6 or 5 during the query. If the option at right side of the lower line shows ’1’, press button Input to print the accumulated times and accumulated weights. If the option shows ‘2’, press button
Input to print all the weighing record.
The serial port 2 of PC can also be used to read the weighing record.
Accumulated Value Removal
Press button Input after the accumulated value is displayed and the instrument will
[ 0] indicate , which means whether to remove the accumulate data. Press button 5 8
[dEL ]
Input to clear press Input directly not to clear. The communication port 2 of PC can also be used to clear the weighing record.
VII. Operation /Stop
Press the button Operation or Sop on the keyboard, the instrument will enter running
X K 3 1 9 0 C 602 status or exit running status. After it is started, O0 will output the running signal to control the function of devices such as conveyer belt.
When the functioning status is entered, any other buttons will not respond except the button
Stop .
Add the voltage 12V~24V to the input terminal ‘operation’ I1 , ‘stop’ I2 on the rear panel or short connect them to the voltage ‘+12V’, which has the same function as the button
Operation or Stop . The signal ‘operation’ and ‘stop’ will only work at the valid moment on the rising edge.
Attention: The button Stop , input signal ‘stop’ and its function can not be used as the ‘emergent stop’ of the system.
VIII, Buffer Area of Key Command
There is a buffer area of key command with length of 4 in C602. When the key command with long duration is executed (For example, print the weighing record), the button pressed during the command execution period will be stored in the buffer area of key command. The new key command will be responded only when the current key command is executed.
X K 3 1 9 0 C 602
Chapter 8 Application Examples of Batching scale
I. Self Control Mode
If belt weighing scale is provided at the control site, the user has to choose three different cargoes of different weights through the belt. The weights of these three cargos are respectively
5kg, 10kg and 15kg and it will be delivered through the belt every 10 seconds. The interval for the cargo to be on and off the weighing platform is about 2 seconds and cargo will be remained at the weighing platform for about 4 seconds. We can set the parameter in SET 2 as follows (suppose that it is 2 decimal digits during calibration)
Table 8-1 Parameter Setting Example of batching scale in Self Control Mode
Set the parameter 13A of SET 1 to 3. The parameter setting of SET 2 is as follows:
Parameter Setting
[ 0]
1
[CtrL ]
2
[ 20]
[t0 ]
3
4
[ 40]
[t1 ]
[ 20]
[t2 ]
5
6
[ 20]
[t3 ]
[000400]
[L ]
7
8
9
10
[000750]
[A ]
[001250]
[b ]
[001750]
[C ]
[999999]
[d ]
Instruction
Choose the non-peak holding mode.
The time to load the weighing platform is about 2 seconds.
The time for remaining on weighing platform is about
4 seconds.
The time for cargo to be unloaded from weighing platform is about 2 seconds.
Send the channel signal with interval of 2 seconds
Other interference can be removed if the zero zone is big
It is easier to choose if the intermediate value of the two cargos is set.
It is easier to choose if the intermediate value of the two cargos is set.
Ensure the third cargo loads on this scope.
It is suggested to set the unused channel to max. value.
Please refer to Fig 8-1 for the control sequence order:
X K 3 1 9 0 C 602
Fig 8-1 Time Sequence of Catchweigher in Self-control Mode
Brief introduction of control procedure of batching scale in self-control mode (Please refer to the sequence order figure):
(1) The instrument starts to run and it will judge whether the weight is higher than zero zone. If it is higher, then enter t0 delay to wait for the cargo to be completely loaded to the weighing platform;
(2) Time t0 is over and the instrument will start to calculate the average weight of cargo with time interval of t1. The value calculated will be the reference for batching scale signal;
(3) Time t1 is over and the instrument will enter the t2 delay to wait for the cargo to leave the weighing platform;
(4) Time t2 is over and the instrument will send the sorted channel signal to make the cargo enter the corresponding channel;
(5) Sending signal is finished and the instrument will judge whether the weight is back to the zero zone again. Only when the zero zone is entered, would the next cycle be started.
Table 6-2 describes the working process of batching scale in self-control mode in forms of the program step.
Display method of program step
Set parameter 17B of SET 0 to 4. Under running status,
X K 3 1 9 0 C 602 the auxiliary display of the instrument will show the current program step number in forms of
‘Step**’.
Table 8-2 Description of Program Steps of Self-control Mode
Program
Step
Description
1
2
3
4
5
If the net weight value is more than upper limit of zero zone, go to program step 2 and timer will be T0.
Timing T0 is over. Start to calculate the average weight and go to program step 2, timer will be T1.
Record the weight data. Timing of T1 is over. Calculate the average weight at the time interval T1 and go to program step 4 and timer will be T2.
Timing T2 is over. Save the weight data and sort it by the weight.
Output the batching signal by channel and timer will be T3.
Timing T3 is over. Close the batching signal. If the weight is back to zero zone, go to program step 1.
X K 3 1 9 0 C 602
II.
External Control mode
Suppose high speed batching scale is provided at site: Industrial control PLC will combine with the instrument to sort out the cargos quickly. PLC will control the cargo to the weighing platform. A signal will be triggered to the instrument after the cargo is loaded to make the weighing platform calculate the weight. The weight scope of the users’ qualified product is 9.90kg
~ 10.10kg and the channel signal, which can be controlled by PLC to deliver to different channels, will be sent according to the weight scope. The time for one cycle is about 3~5 seconds. The instrument should be used together with PLC. We can set the parameter in SET 2 according to table 8-3 (suppose that there are 2 decimal digits during calibration):
Table 8-3 Parameter Setting Example of Batching scale in External Control Mode
Set parameter 13A in SET 1 to 3. Set parameter in SET 2 as follows:
Parameter Setting
1
2
3
4
5
6
7
8
9
10
[ 1]
[CtrL ]
[ 02]
[t0 ]
[ 10]
[t1 ]
[ 00]
[t2 ]
[ 10]
[t3 ]
Instruction
Choose the peak holding mode.
The cargo is already on the weighing platform when the triggering signal is received. Long time delay is not required
It is enough to take 1 second to calculate the weight.
Inform PLC to move the cargo immediately after calculation is finished. Long time delay is not required.
Send the channel signal with interval of
1 second and ensure it is received by
PLC.
Set zero zone, which should be totally different form the qualified lower limit.
[000400]
[L ]
[000990]
[A ]
Qualified lower limit
[001010]
[b ]
[999999]
[C ]
Qualified upper limit
It is suggested to set the unused channel to the max. value.
[999999] It is suggested to set the unused channel
X K 3 1 9 0 C 602
[d ] to the max. value.
Please refer to Fig 8-2 for the control sequence order of batching scale in external mode.
Fig 8-2 Control Sequence Diagram of batching scale in External Control Mode
Brief description of control procedure of the batching scale in external control mode (Please refer to sequence order Fig 8-2):
(1) The instrument is operating and waiting for triggering signal;
(2) The triggering signal arrives; t0 is delayed and waits for the cargo to be stable;
(3) Time t0 is over and the instrument starts to calculate the average weight of the cargos with time interval of t1, which will serve as reference for batching signal;
(4) Time t1 is over. Send the signal to PLC immediately and PLC will remove the cargos according to the signal.
(5) Signal sending is finished and the instrument will judge whether the weight is back to zero zone again. Only when the zero zone is entered, would the next circulation be started.
(6) Table 6-2 describes the functioning process of batching scale in external control mode in forms of program step.
X K 3 1 9 0 C 602
Display method of program step
Set Parameter 17B of SET 0 to 4. Under running status, the auxiliary display of the instrument will show the current program step number in forms of
‘Step**’.
Table 8-4 Description of Program Step in External Control Mode
Program
Step
Description
1
2
3
4
5
If the external signal I3 is valid, go to program step 2 and the timer will be T0.
Timing T0 is over. Start to calculate the average weight, go to program step 2 and the timer will be T1.
Record the weight record. Timing T1 is over; calculate the average weight during the time interval T1, go to program step 4 and the timer will be T2.
Timing T2 is over. Save the weight data and sort it by the weight.
Output the batching signal by the channel and timer will be T3.
Timing T3 is over. Close the batching signal. If the weight is back to zero zone, go to program step 1.
X K 3 1 9 0 C 602
Annex A Error Prompt Message
Table A-1 Error Prompt Message Explanation
Error
Prompt
Message
[Error ]
[ 1]
[Error ]
[ 2]
[Error ]
[ 3]
[Error ]
[ 4]
[Error ]
[ 5]
Explanation
Tare requirement is not met.
Handling method
Tare after getting stable.
[Error ]
[ 6]
Requirement of zero-setting is not met.
Input parameter exceeds allowed range.
EEPROM Hardware is damaged
Calibration data is wrong, and the parameter is initialized.
Printer wire is not connected or printer is faulty. Skip by pressing any key.
Set zero after getting stable.
Input correctly. the parameter
Replace U15, U16 on main board
Recalibrate and reset all parameters.
Check printer setting or connection condition
[Error ]
[ 7]
[Error ]
[ 8]
[Error ]
[ 9]
[Error ]
[ 10]
[Error ]
[ 11]
[Error ]
[ 12]
Calibration switch is not turned on during parameter calibration or calibration parameter modification
Turn on calibration switch before recalibration calibration or parameter modification
Weight loaded should be more than 1/5 of max. The loaded weight is too small or loading weight parameter is input wrong during calibration weighing limit; the weight around weighing limit is
Batching value is too small, startup fails.
Upper limit sequence batching scale is wrong of better.
Set quantitative scale parameter correctly
Set upper limit sequence of batching scale correctly
Zero-setting scope is exceeded, zero-setting fails
Zero-setting scope is exceeded, zero-setting fails
Check conditions of load carrier and transducer, or make recalibration
Check conditions of load carrier and transducer, or make recalibration
[Error ]
[ 20]
Real time oscillator stopping vibration
Check, replace crystal Y1, capacity C21, C22, resistance R31
[Error ] X=2~9 EEPROM writing is Check and replace U15 or
X K 3 1 9 0 C 602
[ 10X] wrong U16 on main board
[Error ]
[ 110]
[------]
[XXXXXX]
U15, U16 hardware is damaged or not installed
Error occurs during weighing record saving.
Calibration parameter is not appropriate, causing weight indication value exceeding indication scope of indicator
Ditto
Recalibrate correctly, and set appropriate parameters.
[--Lo--]
[XXXXXX]
[--Hi--]
[XXXXXX]
Gross weight is less than -20e
Gross weight is more than max. weighing value +9e
Execute zero-setting or restart zero-setting)
(initialize
Reduce the load of load carrier
X K 3 1 9 0 C 602
Annex B Schematic Diagram of Relay Board
Output
Quantitative scale
O0
Zero point
Catchweigher Operation
O1
Fast 1
O2
Slow
1
Channel Channel
1 2
O3
Fast 2
Channel
3
O4
Slow
2
Channel
4
O5
Feed
Channel
5
O6
Eligible
Stand-by
O7
Out-of-tolerance
Stand-by
Figure B-1 Definition of Output Function of XK3190-C602 Relay Box
During installation, connect the cable coupled with relay J1 terminal to output terminal block of C602 instrument, i.e. change output signal of C602 instrument transistor to output signal of relay.
The relay is connected with AC powered inductive load, such as AC contactor coil, electromagnetic valve etc., and parallel connected with RC absorption loop on output terminal or load so as to reduce interference, and prolong service life of relay contactor. Thin-film capacitor can be used for the capacitor, electric capacity is about 0.5 time of load current (Ampere), with unit 2F, voltage resistance should be more than 3 times of effective value of power supply voltage; resistance value is about 2 times of power supply voltage (V), with unit 4; the power can be selected with more than two times of calculated power. When the relay is connected with DC powered inductive load, free wheel diode should be parallel connected to the load.
X K 3 1 9 0 C 602
Annex C Large Screen Data Waveform Graph and Format
1. C602 instrument can be connected with all kinds of large screen display.
2. Large screen display interface is provided with 15 core connector assembly, (sharing a socket with serial communication interface), the definition of its pin can be seen in description of pin 9, 10 in Figure 3-4.
3. Scoreboard signal is current loop signal of 20mA constant current, serial output in binary code, with baud rate of 600. Each frame of data has 11 bits, among which there are 1 initial bit (0), 8 data bits (low bit ahead), 1 sign bit, and 1 stop bit (1).
4. C602 transmits a group of data every 100ms, which includes 3 frames of data. Please refer to Figure C-1. The meanings are as follows:
First frame of data: sign bit is 0
X: d0, d1, d2 are positions of decimal point (0 3);
Y: d3 is the symbol of weight (1- negative; 0 – positive);
d4 is gross/net weight (1 – net weight; 0- gross weight);
G18, G17, G16: binary data;
Second frame of data: sign bit is 0;
G15 ~ G8: binary data;
Third frame of data: sign bit is 1;
G7 ~ G0: binary data;
G0 ~ G18: form 19-bit binary code from the lowest to the highest
X K 3 1 9 0 C 602
Figure C Signal Format of Scoreboard Display Interface
X K 3 1 9 0 C 602
Annex D Data Format of Communication Port (1)
During work mode selection of communication port 1 (setting 1, step parameter), it transmits data to PC once after each time of AD sampling.
Mode 0: transmit AD code continuously
Baud rate of communication should be more than “AD conversion rate * 60”, or otherwise unrecognized characters or data loss may occur.
Length
Hexadecimal code
Field Start signal
Table D-1 Data Format of AD code
End signal
1 byte
02H
Binary AD code
(with low bytes ahead)
3 bytes
******
1 byte
03H
Code 1: continuous transmission of weight signal
Baud rate of communication should be more than “AD conversion rate * 120”, or otherwise unrecognized characters or data loss may occur.
Table D-2 Weight Data Format
Field
Length
Hexadecimal code
Start signal
1byte
02H
Weight data
(with high bytes ahead)
6bytes
ASC
New line
2bytes
0DH,0AH
Note: decimal point is omitted during transmission of weight data.
Mode 2 Transmit data to the printer as LPT.
End signal
1byte
03H
The format is relative to printer type and the format of printing data.
X K 3 1 9 0 C 602
Annex E Data Format of Command-Response Mode of Communication Port (2)
Data format for communication of response mode:
Table E-1 Data Format of Communication
Field Start signal
Address
Command
NN
(optional)
******
(optional)
Check sum
End signal
Length
(byte)
Indication form
Content
1 hexadecimal system
02H
1
ASCII character
A~Z
Note: 1
1~2
ASCII character
See table
D-2
2
ASCII character
Note: 2
1~12
ASCII character
Note 3
2
ASCII character
Note 4
1 hexadecimal system
03H
Note 1 Address of instrument setting is 1~26, the address relative to communication is indicated by A~Z.
Note 2: 2 bytes - parameter codes to be written/read, refer to Note 2~Note 4, Note 8~ Note 11 of table E-2.
Note 3: The length and the format of different parameter value are different. When PC is transmitting numeral character string of parameter, a space can be added to the two ends of it as separating character; numeral character string may include decimal point.
Note 4: The hexadecimal value of XOR check sum from address field to the last byte of parameter 2 indicated by ASCII characters, with higher digits ahead.
It is recommended to use PC software matching to this instrument, which allows very convenient and direct realization of all items of configuration operation.
Please refer to Table E-2 for meanings and communication formats of all orders for communication command, among which address represents the address represented by character
A~Z; XH, XL are respectively 4 high bits and four low bits of hexadecimal digits for check sum represented by A~F. In example column, 02H and 03H are respectively start signal and end signal represented in hexadecimal system, the bits between them are ASCII character string, with the last two bits being check sum.
XK3190-C602 communication (2) has eight groups of (non-byte) communication command buffer areas; if all buffer areas are full, later commands may be lost, so continuous command transmission speed of PC should not be too fast.
A
Command
Send by
PC
Table E-2 Communication Command of Order Mode
Meaning Format Example (Note 1)
02H Addr A XH XL 03H 02H AA00 03H
Handshake
F
I
J
B
C
D
E
G
H
K
Send by
PC
Send by instrument
Send by
PC
Send by instrument
Send by
PC
X K 3 1 9 0 C 602
Send by 02H Addr A XH XL 03H 02H AA00 03H
Handshake instrument
02H Addr B XH XL 03H 02H AB03 03H sent by
PC
Send by instrument
Send by
PC
Send by instrument
Send by
PC
Send by instrument
Send by
PC
Send by instrument
Send by
PC
Read gross weight
Send gross weight
Read net weight
Send gross weight
Read tare weight
Send tare weight
Tare
Tare
Zero-setting
Send by instrument
Send by
PC
Send by instrument
Send by
PC
Zero-setting
Operate
Operate
Stop
02H Addr B ****** XH
XL 03H
02H AB *******
03H
02H Addr C XH XL 03H 02H AC02 03H
02H Addr C ****** XH
XL 03H
02H AC *******
03H
02H Addr D XH XL 03H 02H AD05 03H
02H Addr D ****** XH
XL 03H
02H AD *******
03H
02H Addr E XH XL 03H 02H AE04 03H
02H Addr E XH XL 03H 02H AE04 03H
02H Addr F XH XL 03H 02H AF07 03H
02H Addr F XH XL 03H 02H AF07 03H
02H Addr G XH XL 03H 02H AG06 03H
02H Addr G XH XL 03H 02H AG06 03H
Send by instrument
Stop
Feed
02H Addr H XH XL 03H 02H AH09 03H
02H Addr H XH XL 03H 02H AH09 03H the instrument returns to initial state
02H Addr I XH XL 03H 02H AI08 03H
Feed
Discharge
Discharge
Pause/Continue
02H Addr I XH XL 03H 02H AI08 03H
02H Addr J XH XL 03H 02H AJ0B 03H
02H Addr J XH XL 03H 02H AJ0B 03H
02H Addr K XH XL 03H 02H AK0A 03H
S
L
M
N
O
P
Q
R
X K 3 1 9 0 C 602
02H Addr K XH XL 03H 02H AK0A 03H
Send by the instrument enters
Pause/Continue instrument into pause or running state
02H Addr L XH XL 03H 02H AL0D 03H Send by
PC
Send by instrument
Send by
PC
Send by instrument
Accumulate
Accumulate
02H Addr L XH XL 03H 02H AL0D 03H
02H Addr M XH XL
03H
02H Addr M XH XL
03H
02H AM0C 03H
02H AM0C 03H
Send by
PC
Send by instrument
Send by
PC
Send by instrument
Send by
PC
Send by instrument
Send by
PC
Send by instrument
Send
PC
Send by by instrument
Send
PC
Send by by instrument
Print accumulation
Print accumulation
Print working parameter
Print working parameter
Print calibration parameter
Print calibration parameter
Read calibration parameter
02H Addr N XH XL 03H
02H Addr N XH XL 03H
02H AN0F 03H
02H AN0F 03H
02H Addr O XH XL 03H 02H AO0E 03H
02H Addr O XH XL 03H 02H AO0E 03H
02H Addr P XH XL 03H 02H AP11 03H
02H Addr P XH XL 03H 02H AP11 03H
Send calibration parameter
Read working parameter
Send working parameter
Read saving record
Send saving record
02H Addr Q XH XL
03H
02H Addr Q NN ******
XH XL 03H
……
02H AQ10 03H
The instrument returns to all calibration parameters. See note 2 for details.
02H Addr R XH XL 02H AR13 03H
03H
02H Addr R NN
****** XH XL 03
……
02H Addr S NN XH
XL 03H
02H Addr S NN
****** XH XL 03H
……
The instrument returns to all calibration parameters. See note 3 for details.
02H AS0012 03H
See note 4 for details.
The instrument returns to accumulation data or record all data.
See note 4 for details
T
U
X K 3 1 9 0 C 602
Write 02H Addr T NN 02H AT NN ******
Send by calibration ****** XH XL 03H 03H
PC parameter Refer to note 2, note 5.
Send
Send
PC by instrument by
Return to calibration parameter
Write working parameter
02H Addr T NN 02H AT NN ******
****** XH XL 03H 03H
02H Addr U NN ******
XH XL 03H
Return to PC command
02H AU NN ******
03H
Refer to Note 3 Note 6
02H AU NN ****** 02H Addr U NN ******
Send by Return to working XH XL 03H instrument parameter
03H
Return to PC command
V
Send by
PC
Send by instrument
Send by
PC
W
Send by instrument
Send by
PC
X
Send by instrument
Send by
PC
Y
Send by instrument
Send by
PC
Z
Send by instrument
Send by
AA
PC
Send by instrument
Send by
AB
PC
Send by instrument
Eliminate stored data
Eliminate stored data
Read the date
Return to the date
Read the time
Return to the time
Write the time
Return to the time
Write the time
Return to the time
Select remote control
Select remote control
Read IO state
Send IO state
02H Addr V XH XL 02H AV17 03H
03H
02H Addr V XH XL 02H AV17 03H
03H
02H Addr W XH XL 02H AW16 03H
03H
02H Addr W ****** 02H AW05-07-2214
XH XL 03H 03H
02H Addr X XH XL 02H AX19 03H
03H
02H Addr X ****** XH 02H AX17:09:27 33
XL 03H 03H
02H Addr Y ****** XH 02H AY ********
XL 03H 03H
02H Addr Y ****** XH 02H AY ********
XL 03H 03H
02H Addr Z ****** XH 02H AZ ********
XL 03H 03H
02H Addr Z ****** XH 02H AZ ********
XL 03H 03H
02H Addr AA ****** 02H AAA 071 03H
XH XL 03H Note 7
02H Addr AA ****** 02H AAA 071 03H
XH XL 03H
02H Addr AB NN XH 02H AABI0 03H
XL 03H Note 8
02H Addr AB NN 02H AABI0********
****** XH XL 03H 03H
AC
X K 3 1 9 0 C 602
02H Addr AC NN 02H AACO0013D
Send by
Send IO state ****** XH XL 03H 03H
PC
Note 9
Send by instrument
Send IO state
02H Addr AC NN 02H AACO0013D
****** XH XL 03H 03H
Send by
AD
PC
Send by instrument
Read internal memory state
Send internal memory state
02H Addr AD NN XH 02H AAD J13F 03H
XL 03H Note 10
02H Addr AD NN 02H AADJ1********
****** XH XL 03H 03H
Send by
PC
AE
Send by instrument
Send by
PC
AF
Send by instrument
Write internal memory
Send internal memory state
Read auxiliary display
02H Addr AE
****** XH XL 03H
NN
02H Addr AE NN
****** XH XL 03H
02H Addr AF XH XL
03H
02H AAEJ1013F 03H
Note 11
02H AAEJ1013F 03H
02H AAF46 03H
Send auxiliary display
02H Addr AF ****** 02H AAF********
XH XL 03H 03H
Note 12
AG
Send
PC by
Read the content of main display
Send the
02H Addr AG XH XL
03H
02H AAG46 03H
Send by instrument content of main display
02H Addr AG ****** 02H AAG********
XH XL 03H 03H
Note 12
Note 1 of Table E-2: Instrument address is supposed to be 1, represented by letter “A”. If instrument address is not “1”, checksum XH and XL should be changed accordingly. If response character string includes “en” character, it means the format of this command is wrong or execution condition is not satisfied.
Note 2 of Table E-2: The codes of calibration parameter are: e verification scale interval: Dp decimal digit; F maximum capacity; B1 CAL coefficient; 0P zero point AD code; ON current zero point (read only); NL non-linear modification value; AD AD transfer speed; FL filtration strength; Fm filtration calculation method; St stable judgment range; 0T zero point tracking range; 0S zero setting range; 0I initial zero setting scope; EI Switch of zero-setting upon startup; Ut measuring unit. During calibration parameter modification, calibration switch must be turned on. See Table-3 for returned data and explanation.
Table E-3 Explanation of Returned Calibration Data of Instrument
Returned data of instrument
Explanation
AQe 01 54 Scale interval effective digit 1 sum, same below
54 is check
AQDp 3 17
AQF 020.000 7A
AQBl 0067106 28
AQ0P 0262122 67
Decimal digit 3
Maximum capacity 20kg
Standard rate
AD code of calibration zero
AQ0N 000.012 ** Current zero ( deviation relevant to calibration
X K 3 1 9 0 C 602 zero)
AQNL 000.000 1C
AQAD 2 27
AQFL 2 28
Non-linear modification value 0
AD transfer speed 2 60cps
Filtration strength 2
AQFm 1 0A
AQSt 2 05
AQ0T 1 45
AQ0S 1 42
AQ0I 4 5D
AQEI 1 2D
Filtration method 1
Stable judgment 2
Zero tracking range 1 0.5e
Zero setting range 1
Initial zero setting range 4 20%
Initial zero setting switch 1 on
AQUt 2 03 Weight unit 2 kg
Note 3 of Table E-2: Codes of working parameter: MG instrument working mode; Lt display illumination;
ZX main display content; FX auxiliary display content; Ad instrument communication address; Pr printer type; PL printer language; 1C working mode of serial port 1; 2C working mode of serial port 2; 1B baud rate of serial port 1;
2 B serial port 2 baud rate; Ao weight relevant to full measuring range of analog output; FA DA code of full measuring range of analog output; 0A DA code of analog output zero; DA definition of analog output; EA switch of analog output; 1E switch of serial port 1; 2E switch of serial port 2; EP switch of printer; AP automatic printing switch; AM automatic storage ; EB large screen switch; Pf parameters number; 0Z zero area; T0~T7 timing constant T0~T7; P1~P8 batching value, refer to Table E-4. CY cycling times: Tq switch of lead modification; Cc out-of-tolerance treatment switch; Db gradual feed switch; Ff peak value holding switch. Refer to
Table E-5 for returned data and explanation
Table E-4 Meanings of Working Parameter Codes P1~P8
Code
P1
Quantitative scale
A1 batching of material 1
Catchweigher
A upper limit of channel 1
P6
P7
P8
P2
P3
P4
P5
B1 quick feed lead of material 1
C1 slow feed lead of material 1
D1 allowance of material 1
A2 batching of material 2
B2 quick feed lead of material 2
C2 slow feed lead of material 2
D2 allowance of material 2
B upper limit of channel 2
C upper limit of channel 3
D upper limit of channel 4
——
——
——
——
Table E-5 Explanation of Returned Setting Parameter Data of Instrument
Returned data of instrument
Explanation
ARMG 2 2B
ARLt 5 1E
Equipment type 2: automatic control of catchweigher
Display illumination 5
ARZX 0 21
ARFX 4 39
ARAd 01 37
Main display content 0: weight
Auxiliary display content 4: work step (operation state)/time (non operation state)
Communication address 01
AR2E 1 55
AREP 1 37
ARAP 1 33
AREB 1 25
ARAM 2 2D
ARPf 1 14
AR0Z 000.010 76
ART0 06 71
ART1 05 73
ART2 05 70
ART3 05 71
ART4 02 71
ART5 02 70
ART6 02 73
ART7 02 72
ARP1 002.000 7E
ARP2 004.010 7A
ARP3 006.020 7A
ARP4 008.020 73
ARP5 003.000 7B
ARP6 001.300 79
ARP7 000.010 7B
ARP8 000.020 77
AUTq 0 21
AUCc 0 24
AUDb 0 22
AUFf 1 25
X K 3 1 9 0 C 602
ARPr 3 02 Printer type 3
ARPL 1 3E
AR1C 1 50
AR2C 2 50
AR1B 4 54
AR2B 4 57
ARAo 020.000 31
ARFA 65070 20
AR0A 00000 52
ARDA 0 26
AREA 1 26
AR1E 1 56
Printing language 1: Chinese
Work mode 1 of serial port 1: send weight continuously
Work mode 2 of serial port 2: RS485 mode
Baud rate 4 of serial port 1: 9600bps
Work mode 4 of serial port 2: 9600bps
Relevant weight of full measuring range of analog output 20.000 (kg)
DA code of full measuring range of analog output
DA code of analog output zero point
Definition of analog output 0: net weight
Switch 1of analog output: on
Switch 1 of serial port 1: on
Switch 1 of serial port 2: on
Printer switch 1: on
Automatic printing switch 1: on
Large screen switch 1: on
Automatic storage mode 2: storage time and weight
Batching No. 1
Zero area 0.01 (kg)
T0 0.6s
T1 0.5s
T2 0.5s
T3 0.5s
T4 0.5s
T5 0.5s
T6 0.5s
T7 0.5s
P1 2.000 (kg)
P2 4.010 (kg)
P3 6.020 (kg)
P4 8.020 (kg)
P5 3.000 (kg)
P6 1.300 (kg)
P7 0.010 (kg)
P8 0.020 (kg)
Allow automatic modification of lead
Allow out-of-tolerance treatment
Allow gradual feed of material shortage
Peak value maintenance
X K 3 1 9 0 C 602
Note 4 of Table E-2: NN=00: read accumulated data, NN=01: read all stored data.
Codes of accumulated data of quantitative scale: Tc total times; Tw total weight. Codes of accumulated data of batching scale: Tc total times; Tw total weight; 1C~5C total times of channel 1 ~ channel 5; 1W~5W total weight of channel 1~ channel 5.
Format of saved data output:
02H, address, command (S), sequence No. (five bytes), space (1 byte), [time (yy/mm/dd/hh:mm:ss) (if there is time data only when SET—1 parameter 9B = 2)], weight (7bytes), 0DH, 0AH, 03H.
If there is no data or the data is sent out, return to original command.
Note 5 of Table E-2: Parameter code is same as Note 2. Two ends of data character string are separated by a space respectively, parameter length is limited within 8 characters, parameter value should be in effective range specified in the specifications, or unexpected problem may occur. After all data requiring modification are sent, at last one write command will be sent, which is the command with parameter code WR and without parameter value.
Note 6 of Table E-2: parameter code is same as Note 3, and parameter limitation is same as Note 5. After all data requiring modification are sent, at last one write command will be sent, which is the command with parameter code WR and without parameter value.
Note 7 of Table E-2: the parameter is 1 ASCII character 0, 1 or ?, 1 represents entering remote control state,
0 represents exiting remote control state, ? represents inquiring remote control state. After PC has sent the command of converting to remote control state, if C602 is in stop state, remote control state will be entered; if
C602 is in operation state, this command will be omitted; the returned command parameter is 0.
Note 8 of Table E-2: See Table E-6 for the meaning of NN parameter. Parameter value is represented by 3 digits of integer, indicating 8 digits of binary data. 8 digits of binary data of input and output signal state are relevant to all signals. See E-7 for the content of signal light state.
Table E-6 Definition of Parameter of Signal Reading State
Parameter code
ST
Definition
Instrument signal light state
I4
O0
O1
I0
I1
I2
I3
O2
O3
O4
Basic input signal state
Input signal state of the first IO extended module
Input signal state of the second IO extended module
Input signal state of the third IO extended module
Input signal state of the fourth IO extended module
Basic output signal state
Output signal state of the first IO extended module
Output signal state of the second IO extended module
Output signal state of the third IO extended module
Output signal state of the fourth IO extended module
Table E-7 Definition of Character for Signal Light State
B6 B5 B4 B3 B2 B1 Bit B7 B0
Definition Remote control
Net weight
Zero point
Stable Weighing Communication Stop Run
Note 9 of Table E-2: this command is only effective in remote control state, for write output signal. C602 can execute this command at once after receiving it, and change corresponding IO port output state. Parameter code
X K 3 1 9 0 C 602 and data format are same as Note 8 of E-2.
Table E-2 Note 10: The meaning of NN parameter is shown in Table E-8.
Table E-8 Definition of Parameters
Parameter code Definition
Remaining time of time relay 0 ~ time relay 7; integer
TA~TH of returned 3 bytes of C602 represents calculated value of remaining time. Time unit 100ms, value range
0~255.
JA~JH
PA~PZ
States of group 0 to group 7 intermediate relays, 8 intermediate relays for every group. Group 0 is time relay. 8 digits of binary data represented by returned 3 digits of integer of C602 indicate the state of 8 relays.
26 memories, including integers ranged
-8388608~8388607; long integer of returned 8 bytes of
C602
Note 11 of Table E-2: this command is only effective in remote control state. Parameter definition is shown in Table E-7. Time relay state can not be written.
Table E-2 Note 12: returned character string is the content of corresponding relay.
X K 3 1 9 0 C 602
Annex F Explanation on Print Format
F.1 Microprint format :
F.1.1 Print current weight
F.1.1 Print current weight
Print in Chinese
------------
08/12/07
10:10:31
010.000 kg
001.000 kg
009.000 kg
------------
Print in English
----------------
Date : 08/12/07
Time : 10:10:31
Gross: 010.000kg
Tare : 001.000kg
Net : 009.000kg
----------------
F.1.2 Automatic print format (same for grader and quantitative scale)
Print in Chinese kg
------------
00001 004.999
00002 005.000
00003 005.000
Print in English
No. Net (kg)
------------
00001 004.999
00002 005.000
00003 005.000
X K 3 1 9 0 C 602
F.1.3 Accumulated print of quantitative scale
Print in Chinese
------------
08/12/07
15:04:18
00003
0000014.999kg
------------
Print in English
Accu
------------
Date:08/12/07
Time:15:04:18
No :00003
Total 0000014.999kg
------------
F.1.4 Accumulated print of grader
Print in Chinese
------------
08/12/07
15:04:18
------------
1
00002
0000003.000 kg
2
00002
0000006.000 kg
3
00000
0000000.000 kg
4
00000
0000000.000 kg
X K 3 1 9 0 C 602
5
00000
0000000.000 kg
------------
00004
0000009.000 kg
Note: the accumulated data of various channels are not saved when de-energized, while the total accumulated value is saved, therefore, after being energized, the total accumulated No, total weight and sum of various channels will be inconsistent if the original total value is not cleared.
Print in English
--------------
Date: 08/12/07
Time: 15:04:18
--------------
Ch1 :
No: 00002
Tt: 0000003.000 kg
Ch2 :
No: 00002
Tt: 0000006.000 kg
Ch3 :
No: 00000
Tt: 0000000.000 kg
Ch4 :
No: 00000
Tt: 0000000.000 kg
Ch5 :
No: 00000
Tt: 0000000.000 kg
--------------
X K 3 1 9 0 C 602
SUM :
No: 00004
Tt: 0000009.000 kg
F.2 Line printer format
F.2.1 Print current weight
Print in Chinese kg kg kg
08/12/07 9:14:43 003.000 000.000 003.000
Print in English
Date Time Gross(kg) Tare(kg) Net(kg)
08/12/07 9:14:43 003.000 000.000 003.000
F.2.2 Automatic print (same for accumulative scale and grader)
Print in Chinese
08/12/07 kg kg
00001 09:04:13 006.000 0000006.000
00002 09:04:24 006.001 0000012.001
00003 09:04:50 006.000 0000018.001
Print in English
Weighing Bill Date: 08/12/07
No. Time Net (kg) Total (kg)
00001 09:04:13 006.000 0000006.000
00002 09:04:24 006.001 0000012.001
00003 09:04:50 006.000 0000018.001
F.2.3 Accumulated print of quantitative scale
Print in Chinese
------------
08/12/07
15:04:18
X K 3 1 9 0 C 602
00003
0000014.999kg
------------
Print in English
Accu
------------
Date:08/12/07
Time:15:04:18
No :00003
Total 0000014.999kg
------------
F.2.4 Accumulated print of catchweigher
Print in Chinese
08/12/08 kg
1 00001 0000001.000
2 00002 0000006.000
3 00001 0000005.000
4 00001 0000007.000
5 00001 0000007.999
00006 0000028.999
09:15:28
Print in English
Date :08/12/08 Time: 09:13:25
Chs : No : Total : kg
1 00001 0000001.000
2 00002 0000006.000
3 00001 0000005.000
4 00001 0000007.000
5 00001 0000007.999
Total 00006 0000028.999
F.3 Print of calibration parameter and general parameter (same to micro printer and wide line
X K 3 1 9 0 C 602 printer)
There is only English format for parameter print, the explanation is as follows
Content of print Explanation
C602 Ver1.00
Max=: 020.000kg e= : 01
Dp : 03
0_AD: 00262121
Instrument type and software version No.
Max. capacity 20kg
Scale interval (effective bit) 1
Decimals 3
AD code of calibrated zero point
0Point: 000.000kg Current zero point (corresponding to calibrated zero point)
R : 00067106 Standard rate
Line: 000.000%FS Non-linear modification value
COMM:111110 Communication setting, corresponding to parameter 1
SET 1
0_SET 141 Zero-setting relative to SET 1 parameter 2
Flt : 1222
Addr: 01
Buad: 44
Mode: 22
Filtration setting, corresponding to SET 1 parameter 3
Communication address corresponding to SET 1 parameter 4
Baud rate corresponding to SET 1 parameter 5
Communication mode, corresponding to SET 1 parameter 6
Prnt: 1
PL : 00
Printer type, corresponding to SET 1 parameter 7
Print language, corresponding to SET 1 parameter
8
AutoP 12 Automatic print, corresponding to SET 1 parameter 9
Aout_W 020.000kg Full measurement range weight of analog output,
Aout_0 00000
Aout_F 65070
Type: 212
Disp: 04
Light: 5 corresponding to SET 1 parameter 10
Zero DA code of analog output, corresponding to
SET 1 parameter 11
Zero DA code of analog output, corresponding to
SET 1 parameter 12
Equipment type, corresponding to SET 1 parameter 13
Display content, corresponding to SET 1 parameter 17
Display brightness, corresponding to SET 1 parameter 16
F.3.1 Print of Working Parameters of Quantitative Scale
X K 3 1 9 0 C 602
There is only English format for parameter print, with explanation as follows:
Content of print Explanation
Set NO. 0
Ctrl: 000
Pt : 00010
A1 : 003.000kg
B1 : 000.500kg
Parameters No., corresponding to SET 1 parameter 13B
Control setting, corresponding to SET 2 parameter 1
Preset cycling times, corresponding to SET 2 parameter 2
Batching value of material 1, corresponding to SET
2 parameter 3
Quick feed lead of material 1, corresponding to SET
C1 : 000.020kg
D1 : 000.020kg
A2 : 003.000kg
B2 : 000.500kg
2 parameter 4
Slow feed lead of material 1 corresponding to SET
2 parameter 5
Tolerance of material 1, corresponding to SET 2 parameter 6
Batching value of material 2, corresponding to SET
2 parameter 7
Quick feed lead of material 2, corresponding to SET
2 parameter 8
Slow feed lead of material 2, corresponding to SET C2 : 000.020kg
D2 : 000.020kg
T3 : 0.2 s
T4 : 0.2 s
T5 : 0.2 s
2 parameter 9
Tolerance of material 2, corresponding to SET 2 parameter 10
0_Zone 000.010kg Zero area setting, corresponding to SET 2 parameter 11
T0 : 0.2 s
T1 : 0.2 s
T2 : 0.2 s
Timing 0, corresponding to
Timing 1, corresponding to SET 2 parameter 13
Timing 2, corresponding to
SET 2
SET 2 parameter 12 parameter 14
Timing 3, corresponding to SET 2 parameter 15
Timing 4, corresponding to SET 2 parameter 16
T6 : 0.2 s
T7 : 0.2 s
Timing 5, corresponding to SET 2 parameter 17
Timing 6, corresponding to SET 2 parameter 18
Timing 7, corresponding to SET 2 parameter 19
X K 3 1 9 0 C 602
F.3.2 Print of catchweigher working parameter
There is only English format for parameter print, with explanation as follows
Content of print
C602 Ver1.00
Pn : 1
A : 002.000kg
B : 004.000kg
C : 006.000kg
D : 008.000kg
0_Z: 000.010kg
T0 : 0.2 s
T1 : 0.2 s
T2 : 0.2 s
T3 : 0.2 s
Explanation
Instrument type and software version No.
Parameters No., corresponding to SET 1 parameter 13B
Upper limit of channel 1, corresponding to SET 2 parameter 2
Upper limit of channel 2, corresponding to SET 2 parameter 3
Upper limit of channel 3, corresponding to SET 2 parameter 4
Upper limit of channel 4, corresponding to SET 2 parameter 5
Zero area setting, corresponding to SET 2 parameter 6
Timing 0, corresponding to SET 2 parameter 7
Timing 1, corresponding to SET 2 parameter 8
Timing 2, corresponding to SET 2 parameter 9
Timing 3, corresponding to SET 2 parameter 10
X K 3 1 9 0 C 602
Annex G Troubleshooting of General Problems
When the instrument work abnormally, if there is any error prompt, please handle it according to A-1 “Explanation of Error Prompt Information”. If the working procedure is abnormal, auxiliary display can be set to work step state ( SET 0 quantitative scale parameter
7B = 4, catchweigher parameter 17B = 4), to observe at which step the action stops. Analyze what conditions for entering next step is not met according to description table of relative procedure step, and then execute corresponding adjustment.
Handling methods of general problems are listed in Table G-1.
Table G-1 Troubleshooting of General Problems
Problem
After power-on, the instrument doesn’t work, the buzzer doesn’t sound.
Reason
The power is off
JP2 jumper wire on main board is in ISP position.
Instrument abnormal
During setting, weighing parameter certain parameters cannot be displayed.
Wiring of transducer is wrong.
Incentive power terminal of four-wire connection is not short connected to corresponding incentive feedback terminal.
Weighing platform or the transducer has problems.
Incentive power load of transducer is too large, making incentive voltage decrease.
This parameter value is wrong, display range. exceeding
Handling method
Check power source
Change JP2 jumper wire on main board or turn K2 switch to RUN position
Check wiring transducer
In case of four-wire connection, EX+ and
SEN+ terminal EX-and
SEN- terminals should be short connected.
Check whether output signals of weighing platform and transducer are normal
The load current of incentive power should not be more than
80mA.
Press 7 8 keys to move flashing position to the parameter, press 5 or 6 to change the parameter.
X K 3 1 9 0 C 602
The instrument cannot Working parameter Please check whether enter running state. setting has problems. parameters set are reasonable according to specifications.
Cannot work in accordance with expected steps.
Cannot print
Unrecognized characters occur during printing
Figure flickering
There are problems of parameter setting.
The required input signals for running procedure is missed
Wrong printer settings
Wrong printer settings
Poor contact of print cable
Weighing platform is unstable
Weighing platform is vibrating
Transducer screening wire is not connected well
Electromagnetic inference at site is too large
AD shifting speed is too quick
Filtration strength is too small
Figure response is slow. AD shifting speed is slow
Filtration strength is too large
Ditto
Check whether “allow feed”, “allow discharge” signals are effective.
Check printer setting parameters and serial port (1) setting parameters
Check whether printing setting parameters are conforming to the printer
Check printer cable and plug or replace printing cable
Improve loader structure
Adopt measures to reduce weighing platform vibration
Connect earthing wire and screening wire well
Reduce/decrease electromagnetic inference at site
Reduce AD shifting speed ( SET 1 parameter3B)
Increase filtration strength
( SET 1 parameter
3C)
Increase AD shifting speed ( SET 1 parameter 3B)
Reduce filtration strength
X K 3 1 9 0 C 602
( SET 1 parameter
Stable light is not ON after figures are stable.
Stable light is ON even when the figure is not stable.
Settings of stability judgment is too small
Settings of stability judgment is too large
3C)
Increase the value of
SET 1 parameter
3D
Decrease the value of
SET 1 parameter 3D
X K 3 1 9 0 C 602
Safety Instructions
In order to guarantee personal safety and property safety of the user, please pay attention to the following points:
1. The system should be well grounded.
2. Our Company is trying to improve product’s quality and provide high quality product to the users. However, any electrical equipment may fail, thus during system design, this kind of possibility should be considered, and necessary measures such as redundancy design, interlock device for system reliability and safety improvement should be adopted.
3, Non-professional personnel should not open the instrument to avoid any danger.
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