Toshiba digital camera data specification (2 pages)
Summary of Contents for Toshiba V Series
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6F8C0869 odel 3000 Analog odule User's Manual...
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Important Information No patent liability is assumed by TOSHIBA Corporation with respect to use of information, illustrations, circuits, equipment or examples of application in this publication. TOSHIBA Corporation reserves the right to make changes and improvements to this publication and/or related products at any time without notice.
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Safety Precautions This manual contains important information for the operator to operate this product safely and correctly and avoid bodily injury and property damage. Grasp the meanings of the following marks and their descriptions before reading this manual. Hazard Classifications Indicates a potentially hazardous situation which, if not avoided, WARNING could result in serious injury or death.
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1. Checking the Warning Labels on the Main Unit Make sure warning markings are attached on the main unit. If any of them are missing or the wording is illegible, contact Toshiba's Service Department. 2. Precautions on Installation WARNING Mandatory Be sure to ground the equipment.
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3. Safety Precautions on Maintenance and inspection WARNING Mandatory Mandatory Turn off power removing or connecting any Turn off power removing any modules after modules, boards, or devices. installing. Otherwise, it can cause electrical shock, or Otherwise, exposed conductive parts of wire machine damage.
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User's manual. beyond normal range or if failure is occurred Otherwise, it can cause malfunction, machine in the equipment. damage or fire due to overheat. Contact Toshiba for repairing. Operation under such situation can cause fire or electrical shock. CAUTION Forbidden...
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Forbidden Forbidden Do not disassemble or modify the equipment. Do not enter wire scrapes or other foreign Otherwise, it can cause malfunction or failure. debris into the equipment. Also, do not insert metal parts into them. They can cause fire or accidents. 6.
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Toshiba is not liable for any incidental loss caused by the use or non-use of this product, such as loss of business profits, suspension of business, or loss or change of data on memory.
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Preface This manual describes in detail the data structure, wiring method, and installation method of the analog modules of the Integrated Controller V Series model 3000 Parallel I/O modules. The following analog modules are available: • Analog input module Model...
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If the ambient temperature or the internal temperature of the equipment has arisen too high, or if the equipment has developed a fault, stop using it, switch power off, and contact the nearest Toshiba service station. Do not open the case of the equipment while it is in operation except when setting the switches.
Chapter 1 Module 1.1 AD318/AD328/AD338 1.1.1 Specifications The 8-channel analog input modules AD318/AD328/AD338 will convert the external analog signal (voltage or current) into digital data. The AD318/AD328/AD338 have the following features: (1) 2.45 ms high-speed conversion using 8-channels (2) Isolated each channel •...
Chapter 1 Module 1.1.2 External Power status LED (ON when internal 5V power is normal) Input type display Analog input terminal (P1/N1/SH1 to P8/N8/SH8) Base securing screw model 3000 Analog module User’s Manual...
Chapter 1 Module 1.1.4 Wiring Method If measurement values are unstable due to noise influences, ground one of the shielded wire a) to c) shown in the figure below or any combination of a) to c) in order to obtain stable measurement.
Chapter 1 Module 1.1.6 Module Data Structure The AD318/AD328/AD338 provides 8W per module I/O data. AD318/AD328/AD338 module internal data structure Register 15 Analog input Channel 1 Analog input Channel 2 Analog input Channel 3 Analog input Channel 4 Analog input Channel 5 Analog input Channel 6...
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1.1 AD318/AD328/AD338 (2) AD338 The range of digital input with respect to analog input is ± 2000 counts for full scale input (-10 V to +10 V). S: Sign bit Analog value Digital value Negative "1" Input AD338 Positive "0" Positive integer ±10V Upper limit...
Chapter 1 Module 1.2 AD368 1.2.1 Specification The 8-channel analog input modules AD368 will converts external analog signal (voltage or current) into digital data and uses it as input. • Provides 8 analog data points per module to function as 8 word type input module. •...
1.2 AD368 1.2.2 External (1) Status LED (RUN/FLT/ Status SET) Module normal Indicates that the module is operating normally. Module abnormal ⎯ User Calibrating Blink adjust ⎯ Writing Blink (2) Calibration select switch mode ⎯ Complete Blink Valid in calibration mode (ADJ terminal shorted).
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Chapter 1 Module (7) +10 V reference voltage output terminals (VREF) These terminals continuously outputs +10 V reference voltage. (8) Analog input terminals (1V/1C/1I/1G to 8V/8C/8I/8G) Connect external analog signal to these terminals. Refer to section 1.2.4 for wiring information. (9) Alarm output terminals (ALARM) The internal relay will be closed when the module is operating normally (FLT is not lit).
1.2 AD368 1.2.3 Mode Switching Change the jumper settings according to the input analog signal. Jumper plug Jumper setting: Shows ± 10 V voltage input mode. Replace jumper plug with tweasers. ± 5V bipolar voltage input ± 10V bipolar voltage input 0 to 5 V unipolar voltage input 0 to 10 V unipolar voltage input 1 to 5 V unipolar voltage input...
Chapter 1 Module 1.2.4 Terminal Connections Terminal connections are shown below. The wiring method is described in section 1.2.5. Short between terminal blocks nV and nI (n=1 to 8) to use as current input. Terminal Terminal Terminal Function Name VREF Opened: Analog input VREF Shorted: Calibration mode...
1.2 AD368 1.2.5 Wiring Method The wiring method is shown below. Short between terminal blocks nV and nI (n=1 to 8) to use as current input. Be sure to firmly tighten each screw and secure each wire because error may appear in measured value when the contact resistance is significant.
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Chapter 1 Module Insert an insulation amplifier between each sensor if there is a difference in potential between sensors (difference in common potential) because there is no insulation between each channel of this module. Sensor A Insulation amplifier Potential difference Internal circuit Sensor B External wire...
1.2 AD368 1.2.6 Internal Block Diagram This analog input module operates as follows. The externally input analog signal passes through a filter circuit, enters the channel selection switch (multiplexer), passes through a signal conversion amplifier, and enters the A/D converter. The converted digital data is electrically separated and insulated from the outside by a photo-coupler and stored in the module internal data memory.
Chapter 1 Module 1.2.7 Module Data Structure The AD368 provides an 8W I/O data for storing 8 point analog input data (AD368 base register). The data is read by batch I/O or direct input from the controller. The AD368 also provides other various data, but they need not be referenced except for special cases.
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1.2 AD368 (1) Analog input The analog input mode can be set to bipolar or unipolar as shown below with respective data range. Bipolar (±5 V, ±10 V, ±20 mA) The range of digital input with respect to analog input is ±2000 counts for full scale input (-5 V to +5 V or -10 V to +10 V, -20 mA to +20 mA).
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Chapter 1 Module (2) Status Status contains the input mode and error information. 0 15 0 11 Mode Error code ERR PERR W PER Mode Analog input Error code Content (when ERR=1) spec. Normal ±5 V CPU abnormal ±20 mA ROM abnorm al ±10 V Work RAM abnorm al...
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1.2 AD368 (3) Offset calibration Offset calibration is stored when offset is adjusted. User offset Valid range Mode Not set ± 5 V, ± 10 V, ± 20 mA(Biploar) -200 0 to 5 V, 0 to 10 V, 1 to 5 V, -400 0 to 20 mA, 4 to 20 mA(Unipolar) Note 1: When the value after user calibration becomes negative for unipolar:Analog...
Chapter 1 Module 1.2.8 Gain/Offset Calibration Function The AD368 module provides an adjustment function to enable the user to calibrate the gain and offset. Normally, this function need not be used. However, gain/offset adjustment function is useful in the following cases: (1) When the result is affected by the impedance of the cable connecting the connected equipment to the AD368.
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1.2 AD368 Example) When the ±10V output connected equipment has 0.05 V offset when output voltage is zero and 9.95 V output voltage for maximum output: (1) Short the ADJ terminal. The RUN LED blinks. (2) Select the target channel with the channel selection switch. (3) Offset adjustment (a) Output zero from the connected equipment (Offset: 0.05 V).
Chapter 1 Module 1.3 DA364/DA374 1.3.1 Specification The 4-channel analog output modules DA364/DA374 convert the digital data processed by the controller to analog signal (voltage or current) and uses it for output. • Provides 4 analog data points per module to function as 4 word type output module. •...
1.3 DA364/DA374 1.3.2 External (1) Status LED (RUN/FLT/ Status SET) Module normal Indicates that the module is operating normally. Module abnormal ⎯ User Calibrating Blink adjust ⎯ Writing Blink (2) Calibration select switch mode ⎯ Complete Blink Valid in calibration mode (ADJ terminal shorted).
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Chapter 1 Module (7) External power supply connection terminals Connect to 24 Vdc±10% external power supply. (8) Analog output terminals (CH1 to Ch4) Connect external analog equipment to these terminals. Refer to section 1.3.4 for wiring information. (9) Line ground terminal (LG) Normally, this is shorted to FG, but it may be opened or grounded separately depending on the grounding condition.
1.3 DA364/DA374 1.3.3 Mode Switching Change the internal rotary switch and jumper settings according to the output analog signal. Mode specification rotary switch Match the tip of the arrow to a number. Mode specification jumper Jumper plug Replace the jumper plug with a tweaser.
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Chapter 1 Module (1) DA364 (voltage output) ±5V bipolar voltage input ±10V bipolar voltage input 0 to 5 V unipolar voltage input 0 to 10 V unipolar voltage input 1 to 5 V unipolar voltage input Rotary switch Jumper Shorted (Jumper plug attached) Opened (Jumper plug removed)
1.3 DA364/DA374 1.3.4 Terminal Connections Function Terminal Terminal name Opened: Analog input Shorted: Calibration mode Analog output channel 1 Analog output channel 2 Analog output channel 3 Analog output channel 4 24vdc 24Vdc External power connection terminal (+) 24Vdc External power line ground ALARM Frame ground Abnormal: Open...
1.3 DA364/DA374 1.3.6 Internal Block Diagram This analog output module operates as follows. The data processed by the controller is written to the internal data memory of the analog output module by batch I/O or with a direct output command. The written data is output to the an electrically insulated D/A converter through a photo-coupler of the specified channel.
Chapter 1 Module 1.3.7 Module Data Structure The DA364/DA374 provides a 4W I/O data for storing 4 point analog output data (DA364/ DA374 base register). The data is output by batch I/O or direct output from the controller. The DA364/DA374 also provides other various data, but they need not be referenced except for special cases.
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1.3 DA364/DA374 The data format of each register is as follows. (1) Analog output Bipolar (±5 V, ±10 V) A ±2000 count digital data is converted to full scale (-5 to +5 V or -10 to +10 V) analog signal. A ±0.4% (±8 count) margin is provided at upper and lower limit to compensate for fluctuation near full scale.
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Chapter 1 Module Unipolar (0 to 5 V, 0 to 10 V, 1 to 5 V, 0 to 20 mA, 4 to 20 mA) The range of digital input with respect to analog input is 0 to 4000 counts for full scale input (0 to 5 V, 0 to 10 V, 1 to 5 V, 0 to 20 mA, 4 to 20 mA).
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1.3 DA364/DA374 (2) Status Status contains the output mode and error information. 0 15 14 13 12 0 11 10 WPER Mode Error code RDY ERR PERR Content (when ERR=1) Analog output Error code Mode spec Normal ±5 V CPU abnormal ±10 V ROM abnormal 0 to 5 V...
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Chapter 1 Module (3) Offset calibration data Offset calibration data contains the setting after user calibration. User offset Valid range Mode Not set ± 5 V, ± 10 V(Biploar) -200 0 to 5 V, 0 to 10 V, 1 to 5 V, -400 0 to 20 mA, 4 to 20 mA(Unipolar) Note 1: When the value after user calibration is negative in the case of unipolar, the...
1.3 DA364/DA374 1.3.8 Gain/Offset Calibration Function The DA364/DA374 module provide an adjustment function to enable the user to calibrate the gain and offset. Normally, this function need not be used. However, gain/offset calibration function is useful in the following cases: (1) When the result is affected by the impedance of the cable connecting the connected equipment to the DA364/DA374.
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Chapter 1 Module Example) If input range is exceeded at the connected equipment side when full scale voltage: 10.000 V, offset voltage: 0.000 V is output from DA364 (±10 V mode) when the connected equipment side is at maximum voltage: 9.95 V and has offset voltage: 0.005 (1) Short the ADJ terminal.
1.4 RT318 1.4 RT318 1.4.1 Specification The 8 channel resistance temperature detector (RTD) input module RT318 is a module to convert external analog signal (resistance) into digital data and use it as input. The RT318 has the following features: (1) Built-in linear calibration (2) 8 channels per module high density implementation (3) 12 bits per channel high resolution (4) Offset calibration of each channel...
Chapter 1 Module 1.4.2 External (1) Status LED (PWR/FLT/RUN) Status When module is normal When module When analog power abnormal abnormal When other abnormal (2) N.C. terminals This is an open terminal. Do not connect anything. (3) Analog input terminals (1A/1B/1C/1G/-8A/8B/8C/8G) Connect the conductor shield of the resistance thermometer.
Chapter 1 Module 1.4.4 Wiring Method External wiring Internal circuit (Pt100) Shielded twisted-pair Resistance Temperature Detector Channel no. Internal signal ground Frame ground Supplementary Keep the length of wire from terminals A, B, and C to the Resistance Temperature Detector equal to minimize the effect of line resistance.
Chapter 1 Module 1.4.5 Internal Block Diagram This module operates as follows. The externally input RTD resistance value is converted to voltage with the reference current from the current source, input to a channel selection switch (multiplexer), passed through a signal conversion amplifier (AMP), and input to the A/D converter (ADC). The converted digital data is electrically separated and insulated from the outside by a photo-coupler and stored in the internal data memory.
1.4 RT318 1.4.6 Module Data Structure The RT318 provides 8W per module I/O data (RT318 base register). The data is read by batch I/O or direct input from the controller. The RT318 also provides other various data, but they need not be referenced except for calibration.
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Chapter 1 Module The data format of each register is as follows. (1) Resistance thermometer input The range of digital value with respect to RTD input is 800 to 4000 counts for resistance temperature -50 C to +270 C. Linear correction is performed within this range to assure 0.1 C/count resolution.
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1.4 RT318 (2) Module status Module status is a read only register containing the module status and error information. Use the MREAD command to read this register. 0 15 0 11 RDY ERR 0 Error code Error code Content (when ERR=1) Status after occurrence Normal...
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Chapter 1 Module (3) Offset calibration Write only register to set the offset calibration for the converted data of each channel. The converted data of the respective channel is incremented/decremented according to the value in this register. Use the MWRITE command to write data in the offset calibration area. You must use the EEPROM write command discussed later (6) to transfer this offset calibration value to EEPROM.
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1.4 RT318 (5) EEPROM write counter A read-only register to count the number of writes to EEPROM. Use the MREAD command to read this register. This is a double word register which is incremented by 1 each time data is written in EEPROM.
Chapter 1 Module 1.4.7 Data Calibration The RT318 module has a built-in linear correction function and an offset calibration function which enables the user to adjust the offset. Offset adjustment is unnecessary unless there is a difference in the resistance in the wires connected to terminals A and B connecting the resistance thermometer to RT318.
1.4 RT318 1.4.8 Offset Calibration Function An offset error results in the converted data when there is a difference in the resistance in the wires connected to terminals A and B connecting the resistance thermometer to RT318. In this case, you can perform the following offset calibration: (1) Connect the wires to the module.
Chapter 1 Module 1.5 DA314S/DA324S/DA364S/DA374S 1.5.1 Specification The 4-channel analog output modules DA314S/DA324S/DA364S/DA374S convert the digital data written by the controller to analog signal (voltage or current). The DA314S/DA324S/DA314S/DA324S has the following features. • 4 channel analog outputs per module •...
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1.5 DA314S/DA324S/DA364S/DA374S Item Specification Remarks Special Error (a)Output HOLD / CLEAR mode functions detection (b)External 24Vdc power supply voltage drop error detection. (c)Each channels power supply voltage drop error detection. Alarm output Contact output 24Vdc, 0.5A (Normal close) 24 Vdc ± 10 % External power supply Current Internal...
1.5 DA314S/DA324S/DA364S/DA374S 1.5.3 Terminal Connections Function Terminal Terminal name Analog output channel 1 Analog output channel 2 Analog output channel 3 Analog output channel 4 24vdc 24Vdc External power connection terminal (+) External power line ground ALARM Frame ground Abnormal: Open ALARM Normal: Shorted (1) Analog output terminals ( CH1 to CH4 )
Chapter 1 Module 1.5.4 Status indicator LED / DIP-Switch setting (1) Status indicator LED Mode set Status Analog output value HOLD CLEAR mode Controller power off Clear Controller RUN mode Normal analog output Controller HALT mode Clear Controller error down Clear External power fail Clear...
1.5 DA314S/DA324S/DA364S/DA374S 1.5.5 Wiring Method (1) DA314S/DA364S (voltage output) Voltage output Twisted-pair wire Load Externalr wire resistance Channel no. Analog ground Internal circuit Frame ground Use Twisted-pair cable of the wire size of AWG16 to 18. (2) DA324S/DA374S (current output) Voltage output Twisted-pair wire Load...
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Chapter 1 Module (4) Cable shield grounding If the analog signal is unstable due to noise influences, change the grounding for the shield in the following order for stable operation. Internal circuit External wire Twisted-pair wire Load Cable shield Internal circuit External wire Twisted-pair wire Load...
1.5 DA314S/DA324S/DA364S/DA374S 1.5.6 Internal Block Diagram This analog output module operates as follows. The data processed by the controller is written to the internal data memory of the analog output module. The written data is output to the corresponding channel’s D/A converter through photo-coupler for isolation.
Chapter 1 Module 1.5.7 Module Data Structure The DA314S/DA324S/DA364S/DA374S provides a 4 words I/O data for storing 4 point analog output data (base register). The data is written by batch I/O or direct output from the controller. DA314S/DA324S/DA364S/DA374S also provides extended memory that shows module status.
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1.5 DA314S/DA324S/DA364S/DA374S (1) Analog output (Unipolar output) 15bit 0bit D15 D14 D13 D12 D11 D10 D09 D08 D07 D06 D05 D04 D03 D02 D01 D00 16bit resolution Digital value Analog value 16bit Voltage output Current out put Integer 0-5V 0-10V 0-10mA 0-20mA Upper...
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Chapter 1 Module (2) Analog output (Bipolar output) 15bit 0bit D15 D14 D13 D12 D11 D10 D09 D08 D07 D06 D05 D04 D03 D02 D01 D00 16bit resolution Digital value Analog value 16bit Voltage output Current out put ± 5V ±...
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1.5 DA314S/DA324S/DA364S/DA374S (3) Status (extended memory) 15bit 14bit 13bit 12bit 11bit 8bit 7bit 0bit RDY ERR Range Mode Error code Name Content 1 : Analog output data valid 0 : Analog output data invalid (During initialization or when error occurred.) 1 : Error (Error contents depends on error code) 0 : normal Output range status...
Chapter 1 Module 1.5.8 Supplement (1) Analog output operation with clear or hold setting DIP switch Following timing chart shows the analog output behavior in Clear/Hold mode depending on the controllor and external power status. HALT HALT or ERROR HALT Power off Controller status Power off...
Chapter 2 Program Example This chapter describes program examples using the analog input module and the analog output module. I/O assignments, I/O variable declaration, and programming are described in this order. 6F8C0869...
Chapter 2 Program Example 2.1 I/O Assignment Install an I/O module such as AD368 in the controller base unit. An example is described using the module configuration shown in Figure 2-1. In this example, AD318, AD368, DA364, DA374, and RT318 are installed as I/O modules.
2.2 I/O Variable Declaration 2.2 I/O Variable Declaration Next term,Set a name and data type of each data from registered I/O module, Named data helps you to access your program conveniently.and Any name is available to set on. Perform this using the engineering tool symbol editor (Figure 2-3). Set a type of data, in addition to the variable name with this variable declaration.
Chapter 2 Program Example 2.3 Programming This section describes how to program with the I/O variable names declared in section 2.2. Perform this using the engineering tool program editor. Set the variables to be used in the program. Declare variables used only within the program as static variable (VAR) if they need to be retained, and as temporary variable (VAR_TEMP ) if they are to be temporary variables that do not need to be retained.
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2.3 Programming (Example 2) Program example 2 This is an examinable program that takes the difference of the AD368 input with the previous input,magnifies it (x2), and outputs from DA374. The 4 to 20 mA mode is assumed for AD368. Code a routine to "set the disconnect error flag and set the input to 0 when disconnect is detected"...
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Chapter 2 Program Example (Example 3) Program example 3 This is an examinable program that gets the moving averages of 3 scan times of input from RT318 and outputs from DA374.As with Example 2, code a routine to "set the disconnect error flag and set the input to 0 when disconnect is detected" prior to the above routine, because RT318 has a disconnect detection function.
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2.3 Programming (Example 4) Program example 4 This is an examinable program that is available to check errors of two AD368 modules, DA368, DA374, and RT318 module,when these modules are activated. Program 6F8C0869...
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Chapter 2 Program Example the continuation of program model 3000 Analog module User’s Manual...
Chapter 3 Handling and Precautions 3.1 Module Installation Install the module according to the following procedure: Lock lever (1) Slide the slide lock on top of ロ ッ ク レ バ ー the module back to release the lock lever. ス...
Chapter 3 Handling and Precautions 3.2 Installation Site Environment Avoid installing in the following environment: (1) Where the ambient temperature is outside the range from 0(32 F) to 55 C(131 (2) Where relative humidity is outside the range from 20 to 90%. (3) Where there is condensation due to sudden change in temperature.
3.3 Wiring Precautions 3.3 Wiring Precautions Check the following when installing and wiring the I/O module: Base unit Power I/O Low-voltage modules I/O modules 100mm min. Expansion unit Low-voltage Power I/O 200mm min. I/O modules modules Duct for low- Duct for power Power voltage singnals singnals...
Chapter 4 Appendix 4.1 Gain/Offset Calibration (AD368/DA364/DA374) Highly accurate measurement or output meeting the application environment as described below is possible by adjusting the gain and offset. AD368 example shown on section 1.2. (Example) When a ± 10V output connected equipment has 0.05 V offset when output voltage is zero and 9.95 V output voltage at maximum output, the relationship between the analog value input to AD368 and the count digitally converted by AD368 becomes as shown below after gain/offset calibration.
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Chapter 4 Appendix DA364 example shown on section 1.3. (Example) When the connected equipment maximum voltage is 9.95 V and offset is 0.05 V, the relationship between the count to DA364 and the analog value output from the DA364 becomes as shown below after gain/offset calibration. C o n n e c te d e q u ip m e n t m a xim u m in p u t vo lta g e (fu ll s c a le vo lta g e ) C o n n e c te d e q u ip m e n t in p u t v o lta g e ra n g e...
4.2 MREAD command 4.2 MREAD command For model 3000 Special module data input Diagram MREAD Complete Enable input output Bus/unit/slot TADR tended memory start address Transfer destination variable Transfer words Modifier EN input Make into pulse Index modification ⎯ ⎯ ⎯...
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Chapter 4 Appendix Function • When execution enable input E is FALSE (OFF), no data input is performed from special module. • When execution enable input E is TRUE (ON), data is transferred from the extended memory in special module specified by the argument to the controller. •...
4.3 MWRITE command 4.3 MWRITE command For model 3000 Special module data output Diagram MWRITE Complete Enable input output Bus/unit/slot TADR xtended memory top address Transfer source variable Transfer words Modifier EN input Make into pulse Index modification ⎯ ⎯ ⎯...
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Chapter 4 Appendix Function • When execution enable input E is FALSE(OFF), no data output is performed to the special module. • When execution enable input E is TRUE(ON), the variable data in controller specified with the input argument is transferred to the extended memory in the special module. •...
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