Dini Argeo DGT4XDL User Manual
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Dini Argeo DGT4XDL User Manual

Dini Argeo DGT4XDL User Manual

Digital weight transmitter with 4 channels
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DGT4XDL
Digital weight transmitter with 4 channels
USER MANUAL
ENGLISH
Firmware version > 01.21.xx
www.diniargeo.com

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Summary of Contents for Dini Argeo DGT4XDL

  • Page 1 DGT4XDL Digital weight transmitter with 4 channels USER MANUAL ENGLISH Firmware version > 01.21.xx www.diniargeo.com...

  • Page 3: Table Of Contents

      16   16 RL5416DC   16 RCPTD   16 RL5426DC Wiring diagrams   17   17 DGT4XDL   17 DGT4XDLAN   18 DGT4XDLPRONET Display and function of the keys   19 Advanced programming menu   20   20 Access to the advanced menu and saving the changes  ...
  • Page 4 Filter and stability   34   34 Filter adjustment   35 Stability detection sensitivity   35 Stability detection time   36 Additional filter for stability detection Gravity   37 Zero functions and parameters   38   38 Auto-zeroing on start-up  ...
  • Page 5   48 PC serial port selection Serial 485 repeater configuration   48   48 Selection of the 485 Repeater serial port Configuration of the printer port (COM.PRN)   49   49 Transmission mode   50 Baud rate, parity, data bits, stop bits  ...
  • Page 6 Fieldbus Registers   65   65 Fieldbus Register Pages (with Digital Load Cells)   66 First 16 Bytes   70 Page 2000 (0x7D0 hex) - Estimate individual load cell 1÷4 Weights   71 Page 2004 (0x7D4 hex) - Load Distribution Percentage load cells 1÷8  ...

  • Page 7: Introduction

    Introduction Dear Customer, Thank you for purchasing a DINI ARGEO product. This manual contains all the instructions for installing and commissioning of the DGT4X digital weight transmitter with digital load cells. While thanking you for purchasing this product, we would like to draw your attention to some aspects of this manual.

  • Page 8: Transmitter Installation

    Transmitter installation Installation requirements Observe the following conditions for correct installation of the transmitter: • Flat, level surface. • Stability and absence of vibrations. • Absence of aggressive dusts and vapour. • Absence of drafts. • Ensure that the platform is level or that the load cells are evenly supported. •...

  • Page 9: Electrical Precautions

    Electrical precautions • Use a regulated mains supply within ± 10% of the rated voltage. • The electrical protections (fuses, etc.) are the responsibility of the installer. • Observe the recommended minimum distances between cables of different categories (see table on page 10). •...
  • Page 10 RECOMMENDED DISTANCES AND CABLE CLASSIFICATION Category I Category II Category III Category IV ≥ 100 mm ≥ 200 mm ≥ 500 mm Distance ≥ 100 mm ≥ 500 mm ≥ 500 mm Fieldbus, LAN network (PROFIBUS, Ethernet, Devicenet...). Shielded data cables DC supply cables with (RS232...).

  • Page 11: Earthing Of The System

    Earthing of the system For correct earthing and optimal system operation, the transmitter, load cells, junction box, if any, and weighing structure must be earthed. TRANSMITTER The earth connection must be made via the appropriate terminal. The cable cross-section must be less than 2.5 mm .
  • Page 12 EXAMPLE OF EARTHING OF A WEIGHBRIDGE Weight transmitter Junction box placed on the side wall of the pit Load cell Weighbridge Earth cables Ø 8 - sec. 50 mm Ø 11.3 - sec. 100 mm Drilled copper plate positioned on the side wall Weighbridge Earth post Load cell bypass jumper...
  • Page 13 EXAMPLE OF EARTHING OF A SILO Protective earth by- pass for the load cell Load cell DGT4XDL_01.21_23.11_EN_U...

  • Page 14: Technical Features

    Technical features POWER SUPPLY 12 - 24 VDC LPS or with class 2 power supply. MAXIMUM ABSORPTION DGT4XDL: 4 W (without load cells) DGT4XDLAN: 4,5 W DGT4XDLPRONET : 7,5 W OPERATING TEMPERATURE From -10°C to +40°C. DISPLAY DIVISIONS 10000e, 2 x 3000e for legal weighing, expandable up to 800,000 for internal use (with a minimum cell signal of 1.6 mV/V).

  • Page 15: Load Cell Installation

    Load cell installation After carrying out the instructions for the platform or load receiver, load cell connections can be made. There are two scenarios for connection depending on type of load cells. • RCD and RCPTD load cells attach to the indicator via a junction box. A shielded cable from the junction box must properly connect to the RS485 connector of the transmitter.

  • Page 16: Cell Wiring Output

    Cell Wiring Output The firmware is compatible with four load cells: RCD, RCPTD, RL541DC and RL5426DC. RCPTD Colour Description Colour Description Input + White Input + Black Input - Brown Input - Green Output (A +) Grey Input Signal (A +) White Output (B -) Pink...

  • Page 17: Wiring Diagrams

    Wiring diagrams DGT4XDL 35 34 33 32 31 30 29 28 27 26 25 24 23 22 21 20 19 18 LOAD CELL 4 LOAD CELL 3 LOAD CELL 2 LOAD CELL 1 JUMPER J1 RS485 TERM Internal use RS485...

  • Page 18: Dgt4Xdlpronet

    DGT4XDLPRONET 35 34 33 32 31 30 29 28 27 26 25 24 23 22 21 20 19 18 LOAD CELL 4 LOAD CELL 3 LOAD CELL 2 LOAD CELL 1 JUMPER J1 RS485 TERM Internal use RS485 16 17 DGT4XDL_01.21_23.11_EN_U...

  • Page 19: Display And Function Of The Keys

    Display and function of the keys CELL 4 CELL 3 CELL 2 CELL 1 ZERO TARE MODE PRINT INPUT RELA YS ANALOG Symbol Description Symbol Description Semi-automatic zeroing. Gross weight on zero. Decreases the selected digit. Semi-automatic tare. Unstable weight. Increases the selected digit.

  • Page 20: Advanced Programming Menu

    Advanced programming menu The advanced menu contains all the transmitter configuration parameters for the most advanced adjustments. Access to the advanced menu and saving the changes Reboot the transmitter. Press the key when the display shows 888888. HOW TO EXIT THE SETUP AND SAVE CHANGES Press several times, until the display shows “save?”.

  • Page 21: Menu Block Diagram

    Menu Block diagram 888888 f.mode funct Operating mode Reactivating printing React tare Tare rs.zero Zero restore Tare restore rs.tare unbal Unbalancing setup ConfiG Calibration, filtering and metrological parameters Display updating frequency. dsp.rf Configuration of PC or PRN connection serial 232.sel 485.rep Configures external repeater function Printer port configuration...
  • Page 22 Full ConfiG setup menu is displayed. Setup ConfiG Cel.typ Configure load cell type Configure load cells quantity (up to 16) nuM.Cel ad.Cels Assign load cells replac Replace load cells Filter param stabil auto-0 0-perC Zero parameters 0.traCk 0.trk.sp div.stb Stability parameters tim.tb Stb.flt Grav...

  • Page 23: Load Cell Configuration

    Load Cell Configuration Cell Type Configure the type of cell connected to the instrument. 888888 F.Mode DC.typ.1 Setup ConfiG Cel.typ DC.typ.2 DC.typ.3 DC.typ.4 DC.typ.5 Parameter Description DC.TYP.1 DC.TYP.2 RCPTD-1 DC.TYP.3 DC.TYP.4 RL5416 DC.TYP.5 RL5426 Navigate to Cel.typ. Press . DC.typ.1 displays. Press until desired cell type displays.

  • Page 24: Cell Quantity

    Cell Quantity Configure the quantity of cells connected to the instrument (up to 16). 888888 F.Mode Setup ConfiG Cel.typ 1 Cell num.CEL 1.Cell n.Cells n = maximum cell number (up to 16) Navigate to nUM.Cel. Press . 1.Cell displays. Press until desired cell quantity displays.

  • Page 25: Adding Rcd Or Rcptd-1 Cells

    Adding RCD or RCPTD-1 Cells When adding cells to the instrument ID numbers are assigned. RCD and RCPTD-1 are added to the instrument by using the serial numbers. 888888 F.Mode Setup ConfiG Cel.typ Cell 1 Ad.CELs Cell.1 n = maximum cell number (up to 16) Cell.n Connect cell to junction box.

  • Page 26: Adding Rl5416 And Rl5426 Cells

    Adding RL5416 and RL5426 Cells When adding cells to the instrument ID numbers are assigned. It is recommended during ID assignment to only connect one cell to the instrument and assign IDs sequentially (low to high). RL8749 and RL5426 ells are typically added to the instrument one at a time using their default channel number.

  • Page 27: Calibration

    Calibration Digital load cells are calibrated by the manufacturer, however, it possible to perform calibration. 888888 888888 Setup Setup ConfiG ConfiG Cel.typ Cel.typ Calib Calib deCi deCi u.m. u.m. ranGe1 ranGe1 Calib.p Calib.p n tp n tp Tp 0 Tp 0 ddt1 ddt1 tp 1...
  • Page 28 Acquire the calibration points: Display View: Display View: Display View: n tP tp 0 press Press and select the number of calibration Unload the scale. points using the keys To acquire the zero point press (from 1 to 3). To confirm press Display View: Display View: Display View:...

  • Page 29: Quick Zero Calibration (Pre-Tare Reset)

    Quick zero calibration (pre-tare reset) 888888 F.Mode Setup ConfiG 0.Calib  Tp 0 Tp n Tp 0 Tp n LEGEND: Indicates repeated pressing of Parameter visible only Parameter or menu subject Default value of the parameter. key. under certain conditions. to approval.

  • Page 30: Manual Equalization

    Manual Equalization 888888 CEL.typ M.equal Load the weight so it rests as much as possible only during associated cell adjustment Unload all weight from scale. Place a calibrated test weight centred on the location of cell 1. Navigate to m.equal then press Press until the cell number you want to adjust displays and then press to continue.

  • Page 31: Replace Cells

    Replace Cells If a cell is replaced, the previously used ID number must be assigned to the new cell. RCD or RCPTD-1 Cells 888888 F.Mode Setup ConfiG Cel.typ Cell 1 replac Cel 1 Cel n n = maximum cell number (up to 16) Connect junction box to instrument then connect the cell to the connector of the cell being replaced.

  • Page 32: Rl5416 And Rl5426 Cells

    RL5416 and RL5426 Cells 888888 F.Mode Setup ConfiG Cel.typ Cell 1 replac Cel 1 Cel n n = maximum cell number (up to 16) Disconnect cells from instrument. Connect the replacement load cell to instrument.: Navigate to REPLAC menu and press .

  • Page 33: Exclude Load Cell

    Exclude Load Cell If a load cell is broken, it’s possible to temporarily exclude one cell where it is connected and continue to weigh, pending replacement. WARNING: This operation reduces the accuracy of the weighing system. We recommend use for liquid weighing or in applications where the load is evenly distributed.

  • Page 34: Filter And Stability

    Filter and stability Filter adjustment 888888 F.Mode Setup ConfiG Cel.Typ Param Stabil F off Custom Filter Description Disables filter F OFF Average of 2 Elements Average of 4 Elements Average of 8 Elements Custom For manufacturer use only In the case of an approved transmitter, it is possible to select filters F Off, F1, F2, and F3. MENU ACCESS: SAVING THE PARAMETERS: Complete menu...

  • Page 35: Stability Detection Sensitivity

    Stability detection sensitivity It is possible to decide that tare, zero and print functions (from keypad or serial command / PLC) are performed only if the weight is stable. 888888 F.Mode Setup ConfiG CEL.typ Param Stabil div.stb The value 0 disables the stability control. From 0 to 99.

  • Page 36: Additional Filter For Stability Detection

    Additional filter for stability detection 888888 F.mode Setup ConfiG Cel.typ param stabil from 0 to 2000. stb.flt s.f.tine = 0. from 0 to 100. s.f.divs = 0. Additional filter that locks the weight if it oscillates around a value for a maximum of 10 divisions. The weight is unlocked if the value increases/decreases for the number of divsions set in the parameter S.T.DIVS for a time value greater than the time set in the parameter S.T.TIME.

  • Page 37: Gravity

    Gravity 888888 F.Mode Setup ConfiG Cel.typ From 9.75001 to 9.84999. Grav = 9.80543. This parameter allows you to correct the gravity acceleration value. Before calibration, set the value of the calibration zone. Next, set this value to the value of the zone of use. Any difference between the two values will be automatically compensated.

  • Page 38: Zero Functions And Parameters

    Zero functions and parameters 888888 F.Mode Setup ConfiG Cel.typ param stabil % auto-zeroing on start-up. auto-0 % manual zeroing. 0-perC Zero tracking. 0.traCk Zero tracking speed. 0.trk.sp Auto-zeroing on start-up auto-0 disab Disabled. enab C.perC Enabled, enter in C.PERC the % value of the capacity. from 0 to 50%.

  • Page 39: Zero Tracking Speed

    Zero tracking speed from 100 to 5000. It indicates the value of time that elapses from when the instrument detects stability to 0.trk.sp from 1000. when zero tracking takes effect. = 1000. The value is expressed in ms. Restoring zero 888888 F.Mode funCt...

  • Page 40: Tare Functions And Parameters

    Tare functions and parameters Tare mode 888888 F.Mode funCt Tare blocked. When the gross weight drops to 0, the tare remains tare loCk engaged. disab Tare disabled. unlock Tare unlocked. When the gross weight drops to 0, the tare is cleared. Semi-automatic tare By pressing the key, or sending the tare command, the transmitter sets as tare the weight on the scale.

  • Page 41: Alibi Memory

    Alibi memory The alibi memory allows you to store the weight values transmitted to the computer for further processing and/or data integration. The stored values can then be retrieved from the PC port or directly on the display of the transmitter for later checking. Enabling the alibi memory 888888 F.mode...

  • Page 42: Reading The Alibi Memory

    Reading the alibi memory FROM THE TRANSMITTER (MANUAL) By pressing the key you can read a saved weight: you will be asked to enter the rewrite number “rew.id” (from 0 to 255) and the ID number “id” (from 0 to 131072). The weighing data are shown.

  • Page 43: Use Functions

    Use functions 888888 F.Mode funCt viss Not visible if TYPE = IND.CH and NCHAN > 1. peak Conver alibi none High resolution Weight display in high resolution (x10). Press the key to activate or deactivate the function. viss When the weight is displayed in high resolution, the F light is lit. In the case of an approved transmitter, the high-resolution weight display is automatically deactivated after 5 seconds.

  • Page 44: Input Configuration

    Input configuration The indicator has 2 configurable inputs (bidirectional optocouplers). 888888 F.Mode Setup ConfiG inputs inp.01 Such as inp.02 ( = zero). inp.02 key. mode tare key. key. zero No function. NoNE Disable or enables keypad Dis.key Reboots the transmitter. key.

  • Page 45: Output Configuration

    Output configuration The indicator has 2 programmable outputs (photomosfet). 888888 F.Mode Setup ConfiG output out.01 Such as out.02. out.02 funC Setpoint on gross weight. 1 Gros 0 none No function. Unbalancing. 31.unb Setpoint on net weight with tare. 30.net.t Error. 29 err Pressing the key.

  • Page 46: Analog Output Configuration

    Analog output configuration The DGT4XAN model has an analog output in voltage (0 - 5 / 0 - 10 Vdc) or current (4 - 20 / 0 - 20 mA ). 888888 F.Mode Setup ConfiG an.out mode ao.Gro Analog output for gross weight. Analog output for net weight.
  • Page 47 CALIBRATION PROCEDURE: Press to update the output value on Increase or decrease the D/A points Connect a multimeter to the transmitter. the multimeter. value to reach the desired output. Enter the parameter to be changed: ao 0v ao 10v ao 0ma ao.20ma 100 D/A points ~ 0.015 V - 0.035 mA and set an approximate value.

  • Page 48: Serial 232 Communication Configuration

    232 Port is not available in models: DGT4XPB, DGT4XMODTCP, DGT4XETHCAT, DGT4XPRONET, DGT4XETHIP, Serial 485 repeater configuration It is possible to connect an external repeater to the 485 port. The instrument provides the standard Dini Argeo string (see page 55) to the indicator 2 times a second: ST,NT, 1000,kg<CR><LF>...

  • Page 49: Configuration Of The Printer Port (Com.prn)

    Transmission not enabled. pr.mode Transmission of the weight value when the key is pressed. prpC.hk Transmission of the weight to DINI ARGEO 6-digit repeater. repe.6 Extended string transmission when the key is pressed. prPC.ex prpC.st Standard string transmission when the key is pressed.

  • Page 50: Baud Rate, Parity, Data Bits, Stop Bits

    Baud rate, parity, data bits, stop bits 9600 baud.pr 4800 2400 1200 115200 57600 38400 19200 none No parity, 8 data bits, 1 stop bit. prty.pr Even. even Odd. 8 bits. bit.pr 7 bits. 1 stop bit. stop.pr 2 stop bits. Printer power on mode It is possible to set the way the printer is turned on: pwr.ext...

  • Page 51: Reactivation Printing

    Reactivation printing 888888 F.mode funCt Reactivation of printing after the weight has changed from zero. react zero always Printing always active. inst Reactivation of printing after the weight has changed from instability. LEGEND: Indicates repeated pressing of Parameter visible only Parameter or menu subject Default value of the parameter.

  • Page 52: Configuration Of The Pc Port (Com.pc)

    Data bits. Stop bits. stop Transmission mode Transmission on demand. onde pCmode Transmission of the weight on DINI ARGEO 6-digit repeater. repe.6 Standard string transmission when the key is pressed. Prin.st Extended string transmission when the key is pressed. prin.ex Transmission with 485 protocol (enter the 485 address of the transmitter).

  • Page 53: Baud Rate, Parity, Data Bits, Stop Bits

    Baud rate, parity, data bits, stop bits baud 9600 4800 2400 1200 115200 57600 38400 19200 none No parity, 8 data bits, 1 stop bit. parity even Even. Odd. 8 bits. 7 bits. stop 1 stop bit. 2 stop bits. Configuration of the USB port 888888 F.Mode...

  • Page 54: Communication Protocols

    Communication protocols Standard string [01]ST,GS, 0.0,kg<CR LF> Where: Transmitter code 485 (2 characters), only if communication mode 485 is enabled Scale status (2 characters): US - Unstable weight ST - Stable weight OL - Weight overload (out of range) UL - Weight underload (out of range) Character ASCII 044 Type of weight data (2 characters) GS - Gross...

  • Page 55: Serial Commands

    Serial commands By selecting the PC port on demand mode (onde), you can communicate with the transmitter via serial commands. For each command received, the transmitter emits a string containing the response (refer to the command description) or one of the following signals: OK<CR LF>...
  • Page 56 PRESSING A KEY Format <CR LF> Key code. To simulate pressing a key, you must send the KEYP and KEYR commands in succession. If more than 1.5 seconds pass after the KEYP command is Where sent, the transmitter will execute the function associated with prolonged pressing of the key.
  • Page 57 READING OF MICROVOLTS READING OF CONVERTER POINTS Format Format Response Response Standard string<CR LF>. Standard string<CR LF>. INITIALISING ALIBI MEMORY WEIGHT READING WITH DATE AND TIME Format Format Response ALDLOK / ALDLNO <CR LF> Response Extended string<CR LF>. READING A WEIGHING OPERATION IN THE ALIBI MEMORY Format <CR LF>...

  • Page 58: Modbus Protocol

    Modbus Protocol MODBUS REGISTERS FOR DATA READING (SINGLE SCALE) Data Register DESCRIPTION 30001 Gross Weight Gross weight value. 30002 30003 Net Weight Net weight value. 30004 Bit 15 Active channel. (msb) Bit 14 Active channel. Bit 13 Not used. Bit 12 Not used.
  • Page 59 MODBUS REGISTERS FOR DATA READING (MULTI-SCALE) Data Register DESCRIPTION Bit 15 Not used. (msb) Bit 14 Not used. Bit 13 Not used. Bit 12 Scale active (0 = “no”; 1 = “yes”). Bit 11 Decimals (00 = 0; 01 = 1; 10 = 2; 11 = 3) Bit 10 Bit 9 Unit of Measure (00 = "g";...
  • Page 60 MODBUS REGISTERS FOR SENDING COMMANDS Data Register DESCRIPTION Main commands available: Value Command 00 Hex No command 01 Hex Zero 02 Hex Tare Command 40232 03 Hex Predetermined tare 0A Hex Setting setpoint 1 0B Hex Setting setpoint 2 19 Hex Setting digital outputs 22 Hex Rebooting the transmitter...

  • Page 61: Diagnostics

    Diagnostics 888888 f.mode diaG prG.ver Display of firmware release (e.g. 01.06.00). manuf.d Display of firmware libraries (for use by the manufacturer). Display of calibration internal divisions. div.int Display of the A/D points of the converter related to the weight on the scale. ADC.pnt Use the keys to display the different channels (in dep.Ch mode the sum is also visible).

  • Page 62: Unbalancing

    inputs Checking the status of the inputs: value 0 indicates that the input is disabled, value 1 indicates that the input is enabled. Use the keys to display the two inputs. an.out Analog output test. Use the keys to enter the D/A point value of the analog output. Press the key to confirm and update the V / mA value of the analog output.

  • Page 63: Programming The Setpoints

    Example: Condition stored The unbalance condition is signalled via Modbus / Fieldbus or a digital output (func = 31.unb). This function is only available if EXCL.CH = NoNE. Use this function only in systems where the load is evenly distributed. Programming the Setpoints In weighing mode, if the output functions (1 Gross / 2 net) have been set correctly, pressing will enter the setpoint...

  • Page 64: Restoring Factory Settings

    Restoring factory settings 888888 TYPE Setup ConfiG defau The transmitter is initialized and the default parameters (indicated by the symbol) are activated. Pressing the display shows “dflt?” confirm further with or exit by pressing another key. The actual activation of the default parameters is performed by saving the settings (save?) while exiting the menu. MENU ACCESS: SAVING THE PARAMETERS: Complete menu...

  • Page 65: Fieldbus Registers

    Fieldbus Registers Fieldbus Register Pages (with Digital Load Cells) Page Name 2000 Estimate single digital cell weights (cells 1÷4) 2004 Percentage load distribution cells 1÷8 digital cells 2009 Estimate single digital cell weights (cells 5÷8) 2010 Estimate single digital cell weights (cells 9÷12) 2011 Estimate single digital cell weights (cells 13÷16) 2012...

  • Page 66: First 16 Bytes

    First 16 Bytes There are several register pages for the DGT4X. Each of these pages begin with the following 16 bytes: Byte Name Gross weight (B3) - (*) Gross weight (B2) Gross weight (B1) Gross weight (B0) Net weight (B3) - (*) Net weight (B2) Net weight (B1) Net weight (B0)
  • Page 67 INPUT STATUS REGISTER Description Significant Bit (LSB/B0) Net Weight Polarity Gross Weight Polarity Weight Stability Underload Condition Overload Condition Tare Entered Manual Tare ZERO gross zone Outside Zone 0 In Zone 0 (MSB/B1) Input 1 Disabled Activated Input 2 Disabled Activated Input 3 (where available) Disabled...
  • Page 68 OUTPUT STATUS REGISTER (1 SCALE ONLY OR SCALE MODE) Description Significant Bit (LSB) RELE’ 1 (relay/digital output 1) Not Excited Excited RELE’ 2 (relay/digital output 2) Not Excited Excited RELE’ 3 (where available, relay/digital output Not Excited Excited RELE’ 4 (where available relay/digital output Not Excited Excited RELE’...
  • Page 69 DIGITAL CELLS ERRORS: CH 1 ERROR, CH 2 ERROR, CH 3 ERROR, CH 4 ERROR AND CH GLOBAL ERROR Bits take on the following meaning: Ch Global Error Ch 4 Error Ch 3 Error Ch 2 Error Ch 1 Error Description No error Error cell 1...

  • Page 70: 0X7D0 Hex) - Estimate Individual Load Cell 1÷4 Weights

    Page 2000 (0x7D0 hex) - Estimate individual load cell 1÷4 Weights Byte Name 1-16 First 16 bytes (see pages 69 ÷ 71) Gross weight load cell 1 (B3) Gross weight load cell 1 (B2) Gross weight load cell 1 (B1) Gross weight load cell 1 (B0) Gross weight load cell 2 (B3) Gross weight load cell 2 (B2)

  • Page 71: 0X7D4 Hex) - Load Distribution Percentage Load Cells 1÷8

    Page 2004 (0x7D4 hex) - Load Distribution Percentage load cells 1÷8 Whole values with 2 decimal places (-327.68% / +327.67%) Byte Name 1-16 First 16 bytes (see pages 69 ÷ 71) Percentage load cell 1 (B1) Percentage load cell 1 (B0) Percentage load cell 2 (B1) Percentage load cell 2 (B0) Percentage load cell 3 (B1)

  • Page 72: 0X7D9 Hex) - Estimate Individual Load Cell 5÷8 Weights

    Page 2009 (0x7D9 hex) - Estimate individual load cell 5÷8 Weights Byte Name 1-16 First 16 bytes (see pages 69 ÷ 71) Gross weight load cell 5 (B3) Gross weight load cell 5 (B2) Gross weight load cell 5 (B1) Gross weight load cell 5 (B0) Gross weight load cell 6 (B3) Gross weight load cell 6 (B2)

  • Page 73: 0X7Da Hex) - Estimate Individual Load Cell 9÷12 Weights

    Page 2010 (0x7DA hex) - Estimate individual load cell 9÷12 Weights Byte Name 1-16 First 16 bytes (see pages 69 ÷ 71) Gross weight load cell 9 (B3) Gross weight load cell 9 (B2) Gross weight load cell 9 (B1) Gross weight load cell 9 (B0) Gross weight load cell 10 (B3) Gross weight load cell 10 (B2)

  • Page 74: 07Db Hex) - Estimate Individual Load Cell 13÷16 Weights

    Page 2011 (07DB hex) - Estimate individual load cell 13÷16 Weights Byte Name 1-16 First 16 bytes (see pages 69 ÷ 71) Gross weight load cell 13 (B3) Gross weight load cell 13 (B2) Gross weight load cell 13 (B1) Gross weight load cell 13 (B0) Gross weight load cell 10 (B3) Gross weight load cell 10 (B2)

  • Page 75: 0X7Dc Hex) - Load Distribution Percentage Load Cells 9÷16

    Page 2012 (0x7DC hex) - Load Distribution Percentage load cells 9÷16 Whole values with 2 decimal places (-327.68% / +327.67%) Byte Name 1-16 First 16 bytes (see pages 69 ÷ 71) Percentage load cell 9 (B1) Percentage load cell 9 (B0) Percentage load cell 10 (B1) Percentage load cell 10 (B0) Percentage load cell 11 (B1)

  • Page 76: 0X1394 Hex) - Unbalance Settings And Cell Warning

    Page 5012 (0x1394 hex) - Unbalance settings and cell warning Byte Name 1-16 First 16 bytes (see pages 69 ÷ 71) Maximum imbalance percentage (B1) (integer 2 decimal places) Maximum imbalance percentage (B0) Maximum imbalance percentage zero (B1) (integer 2 decimal places) Zero maximum imbalance percentage (B0) Unbalance alarm delay (B1) (integer, seconds)

  • Page 77: 0X1395 Hex) - Load Distribution Stored Load Cells 1÷8

    Page 5013 (0x1395 hex) - Load distribution stored load cells 1÷8 Whole values with 2 decimal places (-327.68% / +327.67%) Byte Name 1-16 First 16 bytes (see pages 69 ÷ 71) Percentage load cell 1 (B1) Percentage load cell 1 (B0) Percentage load cell 2 (B1) Percentage load cell 2 (B0) Percentage load cell 3 (B1)

  • Page 78: 0X1396 Hex) - Load Distribution Stored Load Cells 9÷16

    Page 5014 (0x1396 hex) - Load distribution stored load cells 9÷16 Whole values with 2 decimal places (-327.68% / +327.67%) Byte Name 1-16 First 16 bytes (see pages 69 ÷ 71) Percentage load cell 9 (B1) Percentage load cell 9 (B0) Percentage load cell 10 (B1) Percentage load cell 10 (B0) Percentage load cell 11 (B1)

  • Page 79: 0X1838 Hex) - Managed Digital Cell Characteristics

    Page 6200 (0x1838 hex) - Managed digital cell characteristics Byte Name 1-16 First 16 bytes (see pages 69 ÷ 71) Number of cell types (B1) Number of cell types (B0) Current type (B1) Current type (B0) Current cell type: points to zero (B3) Current cell type: points to zero (B2) Current cell type: points to zero (B1) Current cell type: points to zero (B0)

  • Page 80: 0X1839 Hex) - Type 1 And Type 2 Cells

    Page 6201 (0x1839 hex) - Type 1 and type 2 cells Byte Name 1-16 First 16 bytes (see pages 69 ÷ 71) Type 1: points to zero (B3) Type 1: points to zero (B2) Type 1: points to zero (B1) Type 1: points to zero (B0) Type 1: full-scale points (B3) Type 1: full-scale points (B2)

  • Page 81: 0X183A Hex) - Type 3 And Type 4 Cells

    Page 6202 (0x183A hex) - Type 3 and type 4 cells Byte Name 1-16 First 16 bytes (see pages 69 ÷ 71) Type 3: points to zero (B3) Type 3: points to zero (B2) Type 3: points to zero (B1) Type 3: points to zero (B0) Type 3: full-scale points (B3) Type 3: full-scale points (B2)

  • Page 82: 0X183B Hex) - Type 5 Cells

    Page 6203 (0x183B hex) - Type 5 cells Byte Name 1-16 First 16 bytes (see pages 69 ÷ 71) Type 5: points to zero (B3) Type 5: points to zero (B2) Type 5: points to zero (B1) Type 5: points to zero (B0) Type 5: full-scale points (B3) Type 5: full-scale points (B2) Type 5: full-scale points (B1)

  • Page 83: Modbus Registers

    Modbus Registers Registers Function 41042-41060 Unbalance and cell warning settings 42401-42532 Cell Characteristics 42551-42566 Load Dsitribution 42601-42616 Cell Status DGT4XDL_01.21_23.11_EN_U...

  • Page 84: Unbalance And Cell Warning Settings

    Unbalance and cell warning settings Register Function 41042 Maximum imbalance percentage 41043 Maximum imbalance percentage zero 41044 Unbalance alarm delay 41045 Percentage channel 1 stored 41046 Percentage channel 2 stored 41047 Percentage channel 3 stored 41048 Percentage channel 4 stored 41049 Percentage channel 5 stored (digital cells) 41050...

  • Page 85: Cell Characteristics

    Cell characteristics Register Function 42401 Number of cell types 42402 Selected type 42403 Points to zero cell type 1 (H) 42404 Points to zero cell type 1 (L) 4205 Max points cell type 1 (H) 4206 Max points cell type 1 (L) 42407 Points to zero cell type 2 (H) 42408...

  • Page 86: Estimated Cell Weights

    Estimated cell weights Register Function 42501 Estimated cell 1 weight (H) 42502 Esitmated cell 1 weight (L) 42503 Estimated cell 2 weight (H) 42504 Esitmated cell 2 weight (L) 42505 Estimated cell 3 weight (H) 42506 Esitmated cell 3 weight (L) 42507 Estimated cell 4 weight (H) 42508...
  • Page 87 Register Function 42523 Estimated cell 12 weight (H) 42524 Esitmated cell 12 weight (L) 42525 Estimated cell 13 weight (H) 42526 Esitmated cell 13 weight (L) 42527 Estimated cell 14 weight (H) 42528 Esitmated cell 14 weight (L) 42529 Estimated cell 15 weight (H) 42530 Esitmated cell 15 weight (L) 42531...

  • Page 88: Load Distribution

    Load distribution Whole values with 2 decimal places (-327.68% / +327.67%) Register Function 42551 Cell 1 load percentage 42552 Cell 2 load percentage 42553 Cell 3 load percentage 42554 Cell 4 load percentage 42555 Cell 5 load percentage 42556 Cell 6 load percentage 42557 Cell 7 load percentage 42558...

  • Page 89: Cell Status

    Cell status Register Function 42601 Cell 1 error status 42602 Cell 2 error status 42603 Cell 3 error status 42604 Cell 4 error status 42605 Cell 5 error status 42606 Cell 6 error status 42607 Cell 7 error status 42608 Cell 8 error status 42609 Cell 9 error status...

  • Page 90: Errors

    Errors Error Description Displayed if you try to calibrate a point without first confirming the number of calibration points (n tp). preC Calibration error: unstable weight during point acquisition. er.mot Calibration error: during the acquisition of a calibration point a NULL value was read from the converter. erpnt Error that occurs if the capacity of channel X is not set, or there is an error in the calibration parameters of err.x.1...
  • Page 91 Notes This publication, part reproduced without written permission from Manufacturer. information this manual based data available time publication; Manufacturer reserves right make changes products time, without notice without incurring penalty. therefore recommend that always check updates. person responsible scale must ensure that safety...
  • Page 92 Notes...
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  • Page 96 Stamp of the authorized service centre HEAD OFFICE Via Della Fisica, 20 41042 Spezzano di Fiorano, Modena - Italy Tel. +39 0536 843418 - Fax +39 0536 843521 SERVICE ASSISTANCE Via Dell’Elettronica, 15 41042 Spezzano di Fiorano, Modena - Italy Tel.

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