Hioki BT3562-01 Instruction Manual
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Hioki BT3562-01 Instruction Manual

Battery hitester
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BT3562
BT3562-01
BT3563
BT3563-01
BATTERY HiTESTER
June 2015 Revised edition 5
BT3562A981-05 15-06H
Instruction Manual
99 Washington Street
Melrose, MA 02176
Phone 781-665-1400
Toll Free 1-800-517-8431
Visit us at www.TestEquipmentDepot.com
6 0 0 3 4 2 3 6 5
EN

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  • Page 1 BT3562 BT3562-01 Instruction Manual BT3563 99 Washington Street Melrose, MA 02176 Phone 781-665-1400 BT3563-01 Toll Free 1-800-517-8431 Visit us at www.TestEquipmentDepot.com BATTERY HiTESTER June 2015 Revised edition 5 BT3562A981-05 15-06H 6 0 0 3 4 2 3 6 5...

  • Page 2: Table Of Contents

    Contents Contents Introduction.................1 Verifying Package Contents ............1 Safety Information ..............2 Operating Precautions............... 4 Chapter 1 Overview ___________________________________ 7 Product Overview ..............7 Features ................8 Names and Functions of Parts ..........9 Menu Display Sequence (SHIFT ENTER) .....13 → Measurement Flowchart ........... 14 Chapter 2 Measurement Preparations___________________ 15 Preparation Flowchart ............

  • Page 3: Contents

    Contents Setting Sampling Rate ............30 Zero-Adjust Function ............31 Wiring Method for Zero-Adjustment ........31  Executing Zero-Adjustment ..........31  Displaying Measurement Results ........34 Measurement Fault Detection ..........35  Overflow Display ..............36  Chapter 4 Applied Measurement _______________________ 37 Comparator Function ............
  • Page 4 Chapter 8 RS-232C/GP-IB Interfaces ____________________ 95 Overview and Features ............. 95 Specifications ..............96 RS-232C Specifications ............96  GP-IB Specifications (Model BT3562-01 only) ....96  Selecting the Connections and Protocol ......97 Attaching the Connector ............97  Selecting the Interface ............99 ...
  • Page 5 Contents Command Compatibility with the Model 3560 AC m Ω  HiTESTER ................ 151 Basic Data Importing Methods ........156 Sample Programs ............157 To be prepared in Visual Basic 5.0/6.0 ......157  To be prepared in Visual Basic 2005 ........ 167 ...

  • Page 6: Introduction

    The Model BT3562, BT3562-01, BT3563, and BT3563-01 are referred to as "the instrument." Unless otherwise noted, the Model BT3562 and BT3562-01 are referred to collectively as "Model BT3562," while the Model BT3563 and BT3563-01 are referred to collectively as "Model BT3563."...

  • Page 7: Safety Information

    Safety Information Safety Information This instrument is designed to comply with IEC 61010 Safety Standards, and has been thoroughly tested for safety prior to shipment. However, mishandling during use could result in injury or death, as well as damage to the instrument. Be certain that you understand the instructions and precautions in the manual before use.

  • Page 8: Safety Information 2

    Safety Information Screen display The screen of this instrument displays characters in the following manner. Measurement categories To ensure safe operation of measurement instruments, IEC 61010 establishes safety standards for various electrical environments, categorized as CAT II to CAT IV, and called measurement categories. CAT II Primary electrical circuits in equipment connected to an AC electrical outlet by a power cord (portable tools, household appliances, etc.)

  • Page 9: Operating Precautions

    Safety Information Operating Precautions Follow these precautions to ensure safe operation and to obtain the full benefits of the various functions. Instrument Installation and Operating Environment Operating temperature and humidity: 0 to 40°C (32 ± 104°F), 80%RH or less (non-condensating) Temperature and humidity range for guaranteed accuracy: 23 ±...
  • Page 10 Using the instrument in such conditions could cause an electric shock, so contact your dealer or Hioki representative for replacements. Measurement Precautions • To avoid electrical shock, be careful to avoid shorting live lines with the test leads.
  • Page 11 Safety Information • Use only the specified test leads and cables. Using a non-specified cable may result in incorrect measurements due to poor connection or other reasons. • To ensure certified measurement accuracy, allow at least 30 minutes warm- up. After warm-up, be sure to execute self-calibration. "4.10 Self-Calibration"...

  • Page 12: Chapter 1 Overview

    1.1 Product Overview Chapter 1 Overview 1.1 Product Overview The Model BT3562, BT3563 Battery Hitester measure battery internal resistance using a four-terminal, 1-kHz AC method, while simultaneously measuring DC voltage (electromotive force [emf]). The high-precision, fast measurement per- formance and extensive interface capabilities make these models ideal for incor- porating into battery testing production lines.

  • Page 13: Features

    EXT I/O Interface EXT I/O and RS-232C interfaces are equipped as standard, supporting transfer rates up to 38,400 bps. Model BT3562-01 and BT3563-01 also supports GP-IB and analog output. Printing Measurement Values and Statistical Results Connect the printer to print measurement values and statistical calculation...

  • Page 14: Names And Functions Of Parts

    1.3 Names and Functions of Parts 1.3 Names and Functions of Parts Front Panel Input Terminals (INPUT) Connect the optional test leads. "2.3 Connecting the Optional Test Leads" (⇒ p.17) Main Display Operating Keys (⇒ p.10) (⇒ p.11) SENSE-H SOURCE-H SENSE-L SOURCE-L Sub Display...
  • Page 15 1.3 Names and Functions of Parts Main Display The current measurement mode is indicated while measuring, and the setting item is displayed while making settings. (Lower row) (Upper row) Lit when the ΩV (Resistance and Lit when measuring with Auto-Ranging. AUTO ΩV Voltage measurement) mode is se-...
  • Page 16 1.3 Names and Functions of Parts Operating Keys To use a function marked on a key, just press the key. Use numeric key- pads to enter nu- To use a function printed un- merical values. der a key (blue letter), press (Numerical values SHIFT key first (and con-...
  • Page 17 :Main power on "2.4 Turning the Power On and Off" (⇒ p.18) Analog output connector GP-IB Connector (Model BT3562-01, (Model BT3562-01, BT3563-01 only). Connect when using analog output (of resis- BT3563-01 only) tance measured values). Connect here to use the GP-IB interface.

  • Page 18: Menu Display Sequence (Shift → Enter)

    1.4 Menu Display Sequence (SHIFT → ENTER) 1.4 Menu Display Sequence (SHIFT → ENTER) Various auxiliary settings can be performed from the menu item displays. (SHIFT Lamp lit) The Menu display appears. The up/down RANGE key changes the setting (Main Display) shown on the Sub Display.

  • Page 19: Measurement Flowchart

    1.5 Measurement Flowchart 1.5 Measurement Flowchart The basic measurement process flow is as follows: Measurement Preparations Connecting the power cord ⇒ p.16) Connecting the test leads ⇒ p.17) Turning the power on ⇒ p.18) Selecting the line frequency ⇒ p.20) Instrument’s Settings Selecting measurement mode ⇒...

  • Page 20: Measurement Preparations

    2.1 Preparation Flowchart Measurement Chapter 2 Preparations 2.1 Preparation Flowchart This procedure describes instrument preparations such as making connections and turning power on. (⇒ p.16) (⇒ p.17) Rear Panel Front Panel (⇒ p.18) Connecting the power cord. (⇒ p.16) Connect the test leads to the instrument. (⇒...

  • Page 21: Connecting The Power Cord

    2.2 Connecting the Power Cord 2.2 Connecting the Power Cord To avoid electrical accidents and to maintain the safety specifications of this instrument, connect the power cord provided only to a 3-contact (two-conduc- tor + ground) outlet. To avoid damaging the power cord, grasp the plug, not the cord, when unplug- ging it from the power outlet.

  • Page 22: Connecting The Optional Test Leads

    2.3 Connecting the Optional Test Leads 2.3 Connecting the Optional Test Leads • To prevent an accident caused by short-circuiting the battery, be sure to verify that nothing is connected to the tips of the measurement leads before connect- ing the leads to or disconnecting them from the instrument. (Contact between the banana terminals while the tips of the measurement leads are connected to the battery will short-circuit the battery, possibly resulting in serious injury.) •...

  • Page 23: Turning The Power On And Off

    2.4 Turning the Power On and Off 2.4 Turning the Power On and Off Before turning the instrument on, make sure the supply voltage matches that indicated on the its power connector. Connection to an improper supply volt- age may damage the instrument and present an electrical hazard. •...
  • Page 24 2.4 Turning the Power On and Off Cancelling the Standby State Press the power switch on the front of the instrument while it is in the standby state. (Main Display) Model name (Main Display) Software version (Sub Display) Line frequency Interface The measurement display appears.

  • Page 25: Selecting The Line Frequency

    2.5 Selecting the Line Frequency 2.5 Selecting the Line Frequency The instrument's power supply frequency must be set in order to eliminate noise. Although the power supply frequency setting is configured automatically ("AUTO") by default, it can also be set manually. Measured values will not stabilize if the power supply frequency is not set properly. (The SHIFT indicator lights up.) The Menu display appears.

  • Page 26: Chapter 3 Measurement

    Before using the instrument for the first time, verify that it operates normally to ensure that no damage occurred during storage or shipping. If you find any damage, contact your dealer or Hioki representative. Before using the instrument, perform the following inspection to ensure that it is operating properly.

  • Page 27: Basic Measurement Example

    3.2 Basic Measurement Example 3.2 Basic Measurement Example The following example describes the measurement process. Example: Measuring resistance and voltage of a 30 mΩ lithium-ion battery Required items: Ω Lithium-ion battery (30 m Test leads: Model 9770 PIN TYPE LEAD are used here. Measurement Measurement mode....

  • Page 28: Instrument Settings

    3.2 Basic Measurement Example Instrument Settings Confirm the SHIFT lamp is not lit. If this is lit, press the SHIFT key to turn it off. SHIFT not lit Select the Resistance Measurement mode. (Here, resistance and voltage measurement is selected.) "3.3 Selecting Measurement Mode"...

  • Page 29: Zero-Adjustment

    3.2 Basic Measurement Example Set the sampling rate. (Here, SLOW is selected.) "3.5 Setting Sampling Rate" (⇒ p.30). SLOW lit The sampling rate changes each time you press this key. SLOW EX.FAST FAST Zero-Adjustment Short the test leads together. Proper Zero-Adjustment is not possible with incorrect wiring. "3.6 Zero-Adjust Function"...

  • Page 30: Measurement

    3.2 Basic Measurement Example Measurement Connect the test leads to a battery. Open-terminal voltages for the instrument are as follows: Ω and 30 m Ω ranges: 25 V peak 300 m Ω range: 7 V peak Ω Ω to 3000 : 4 V peak These voltages derive from the load associated with charging the 1.2 uF capacitor inside the instrument.

  • Page 31: Selecting Measurement Mode

    3.3 Selecting Measurement Mode 3.3 Selecting Measurement Mode Select the measurement mode from Ω V (both resistance and voltage measurement), Ω (resistance measure- ment only) or V (voltage measurement only). Confirm the SHIFT lamp is not lit. SHIFT If this is lit, press the key to turn it off.

  • Page 32: Setting Measurement Range

    3.4 Setting Measurement Range 3.4 Setting Measurement Range This section describes how to set the measurement range for resistance or voltage measurement. For resis- tance measurement, you can select from seven ranges from 3 mΩ to 3000 Ω. For voltage measurement, you can select from two ranges from 6 V to 60 V (for the Model BT3562[-01]) or three ranges from 6 V to 300 V (for the Model BT3563[-01]).

  • Page 33: Voltage Measurement Range

    3.4 Setting Measurement Range Voltage measurement range Select the voltage measurement range. The position of the decimal point and unit of measurement on the display will be switched according to the selected range. Select the range to use. When the 60 V range is selected V lit Increase the voltage measurement range.

  • Page 34: Auto-Ranging

    3.4 Setting Measurement Range Auto-Ranging When manual range selection is enabled, pressing this enables auto-ranging. The most suitable measurement range is then selected automatically. AUTO lit The auto-range setting (on/off) for the ΩV function applies to both resistance and voltage measurement. Switching from Auto-ranging back to AUTO...

  • Page 35: Setting Sampling Rate

    3.5 Setting Sampling Rate 3.5 Setting Sampling Rate The sampling rate can be selected from EX.FAST, FAST, MEDIUM and SLOW. Slower sampling rates generally provide greater measurement precision. Selects the sampling rate EX.FAST FAST MEDIUM SLOW • Measurements are especially susceptible to interference from the environ- ment when EX.FAST is selected, so countermeasures such as shielding or twisting of test leads, cables and wiring around the test object may be nec- essary.

  • Page 36: Zero-Adjust Function

    3.6 Zero-Adjust Function 3.6 Zero-Adjust Function Execute zero adjustment before measuring to nullify any residual offset voltage from the instrument or measurement environment. Measurement accuracy spec- ifications are applicable after zero adjustment. Zero adjustment can also be exe- cuted by the 0ADJ terminal of the EXT I/O connector. "5.2 Signal Descriptions"...
  • Page 37 3.6 Zero-Adjust Function Short the test leads together. Proper zero adjustment is not possible with incorrect wiring. Example: Model L2107 CLIP TYPE LEAD Bring the "V" marks together at the Correct same position. SENSE SENSE SOURCE SOURCE Black Incorrect SOURCE SENSE SENSE SOURCE...
  • Page 38 3.6 Zero-Adjust Function (The SHIFT indicator lights up.) Zero-adjust display appears. 0ADJ lit After measurement, the measured value of the compensation applied by the zero-adjust function is displayed. The range of zero adjustment is up to 1000 dgt. Clearing Zero-Adjustment (The SHIFT indicator lights up.) The Menu display appears.

  • Page 39: Displaying Measurement Results

    3.7 Displaying Measurement Results 3.7 Displaying Measurement Results In the Ω V mode, resistance measurements appear on the upper display, and voltage measurements appear on the lower display. Measured Resistance Measured Voltage Ω In the mode, resistance measurements appear on the upper display. Measured Resistance In the V mode, voltage measurements appear on the upper display.

  • Page 40: Measurement Fault Detection

    3.7 Displaying Measurement Results Measurement Fault Detection If a measurement does not execute properly, a measurement fault “- - - - -” is indicated on the display. In addition, a measurement fault signal (ERR) is output at the EXT I/O connec- tor.

  • Page 41: Overflow Display

    3.7 Displaying Measurement Results Overflow Display Overflow is indicated by “OF” or “-OF” on the display, caused by one of the fol- lowing: Display Condition • The measured value exceeds the limit of the current measurement range • The test object impedance exceeds the input level. •...

  • Page 42: Applied Measurement

    Applied Chapter 4 Measurement This chapter describes advanced operations employing the Comparator, Statisti- cal Calculation and Memory functions. ⇒ Judge measurement values Comparator Function p.38) against specified thresholds ⇒ Measure when trigger events occur Trigger Function p.55) ⇒ Output averaged measurement val- Averaging Function p.59) ⇒...

  • Page 43: Comparator Function

    4.1 Comparator Function 4.1 Comparator Function The comparator function compares measured values to preset upper and lower thresholds, judges the measurements according to their relative levels within the preset range, and indicates the results of the comparisons. Comparator thresholds can be set either by specifying upper and lower thresh- olds, or by specifying a reference value and tolerance.

  • Page 44: Comparator Setting Example 1 (Upper And Lower Threshold Judgment)

    4.1 Comparator Function Comparator Setting Example 1 (Upper and Lower Threshold Judgment) This example describes the comparator setting method. Example: Set the upper and lower thresholds for resistance and voltage in the ΩV mode (300 mΩ range), and indicate whether the measurement value exceeds the upper or lower thresholds by sounding the beeper.
  • Page 45 4.1 Comparator Function The Comparator setting display appears. oFF flashing Set the comparator judgment beeper (for this example, select HL). HL flashing ..no beeps sound HL..beeps repeatedly (when measurements are Hi or Lo) ...beeps continuously (when measurements are IN) btH1..beeps continuously while measurements are within the thresholds (IN), and beeps repeatedly when measurements are Hi or Lo.
  • Page 46 4.1 Comparator Function Press so that the indicated position blinks, and select the comparison method for the comparator (here, HIGH/LOW). HIGH & LOW flashing HIGH, LOW ..Compare by upper and lower thresholds (default setting) REF, % .... Compare by reference value and tolerance Switch to the upper/lower threshold setting display, and specify the thresholds.
  • Page 47 4.1 Comparator Function Press so that the indicated position blinks, and select the comparison method for the comparator (here, HIGH/LOW). HIGH & LOW flashing HIGH, LOW ..Compare by upper and lower thresholds (default setting) REF, %..... Compare by reference value and tolerance Switch to the upper/lower threshold setting display, and specify the thresholds.

  • Page 48: Comparator Setting Example 2 (Reference Value And Tolerance Judgment)

    4.1 Comparator Function • The upper and lower thresholds are saved as the displayed counts (indepen- dent of measurement mode and range). Therefore, changing the measure- ment mode or range results in the same display counts representing different absolute values. Example: Ω...
  • Page 49 4.1 Comparator Function Select the voltage measurement range (for this example, the 6 V range). V lit The Comparator setting display appears. oFF flashing Set the comparator judgment beeper (for this example, select In). in flashing ..no beeps sound HL..beeps repeatedly (when measurements are Hi or Lo) ...beeps continuously (when measurements are IN) btH1..beeps continuously while measurements are within the thresholds (IN), and beeps repeatedly when measurements are Hi or Lo.
  • Page 50 4.1 Comparator Function Press so that the indicated position blinks, and select resistance. r flashing ..... Resistance .... Voltage Press so that the indicated position blinks, and select the comparison method for the comparator (here, REF/%). REF & % flashing HIGH, LOW ..
  • Page 51 4.1 Comparator Function Press so that the indicated position blinks, and select voltage. u flashing .....Resistance ....Voltage Press so that the indicated position blinks, and select the comparison method for the comparator (here, REF/%). REF & % flashing HIGH, LOW ..
  • Page 52 4.1 Comparator Function Connect a test object and judge the measured value. Resistance measurements are displayed as their relative percentage offset from the refer- ence value (%) Judgment Result Relative Measured resistance - Reference value x 100 percentage Reference value Voltage measurements are displayed as their relative percentage offset from the reference value (%) Ω...

  • Page 53: Comparator Judgment Beeper Setting

    4.1 Comparator Function Comparator Judgment Beeper Setting Four beeper settings are available to audibly indicate comparator judgment results. (The SHIFT indicator lights up.) The Comparator setting display appears. Set the comparator judgment beeper. (Main Display) ..no beeps sound HL..beeps repeatedly (when measurements are Hi or Lo) ...beeps continuously (when measurements are IN) btH1..beeps continuously while measurements are within the thresholds (IN), and beeps repeatedly when measurements are Hi or Lo.

  • Page 54: Comparator Threshold Method Selection

    4.1 Comparator Function Comparator Threshold Method Selection Two methods are available for setting comparator thresholds. (The SHIFT indicator lights up.) The Comparator setting display appears. Press so that the indicated position blinks, and set the comparator threshold method. HIGH, LOW ..

  • Page 55: Upper And Lower Thresholds Setting (By Reference Value And Tolerance)

    4.1 Comparator Function Upper and Lower Thresholds Setting (by Reference Value and Tolerance) (The SHIFT indicator lights up.) The Comparator setting display appears. Press so that the indicated position blinks, and select resistance or voltage....Resistance ....Voltage Select the threshold setting display, and enter upper and lower threshold values. For example, Upper Threshold: 150 m Ω...

  • Page 56: Configuring The Absolute Value Judgment Function (Voltage)

    4.1 Comparator Function To enter the current measurement as the setting value: AUTO Press on a screen other than the upper/lower threshold (reference value/toler- ance) setting display. This key is used as a numeric key on the upper/lower threshold (reference value/tolerance) setting display. The current measurement value is set as the upper or lower threshold (during upper/lower threshold setting), or as the reference value (during reference ±...

  • Page 57: Enabling And Disabling The Comparator Function

    4.1 Comparator Function Display the absolute value judgment function configuration screen. "1.4 Menu Display Sequence (SHIFT → ENTER)" (⇒ p.13) Set the absolute value judgment function to either "On" or "Off." Absolute value judgment function on..........Absolute value judgment function off. Accept the setting and return to the measurement screen.

  • Page 58: Comparator Judgment Results

    4.1 Comparator Function Comparator Judgment Results Resistance and voltage measurements are judged independently. Both judg- ment results are indicated on the display. Judgment Operation The comparator compares measured values with the preset threshold values, and judges whether the measurement is within the thresholds. Resistance and voltage measurements are judged independently.

  • Page 59: Switching Between Measurement Value And Comparator Setting Displays

    4.1 Comparator Function Switching Between Measurement Value and Comparator Setting Displays Ω V mode, both resistance and voltage measurement values are displayed. Although comparator setting values are not normally displayed when the com- parator is enabled, they can be displayed for confirmation by the display switch- ing function.

  • Page 60: Trigger Function

    4.2 Trigger Function 4.2 Trigger Function Trigger Source Settings Two trigger sources are available: internal and external. Internal Trigger Trigger signals are automatically generated internally. (free-run) External Trigger Trigger signals are provided externally or manually. (The SHIFT indicator lights up.) Switches the selected trigger source.

  • Page 61: Trigger Delay Settings

    4.2 Trigger Function Trigger Delay Settings Specify the delay from the moment a trigger is applied to the start of measurement. By using this function, even when a trigger is applied immediately after connecting a test object, the start of measurement can be delayed to allow sufficient time for the measurement value to stabilize.

  • Page 62: Measurement Current Pulse Output Function

    4.3 Measurement Current Pulse Output Function Measurement Current Pulse Output Function When using multiple instruments to take measurements at the same time, you may experience interference as a result of electromagnetic induction caused by the devices' measurement currents, causing measured values to gradually oscil- late between increasingly large values.
  • Page 63 4.3 Measurement Current Pulse Output Function Measurement current application timing when measurement current pulse mode is on Measurement processing triggered by external TRIG signal or "READ?" command Measurement Measurement current Applied only during measurement (including trigger delay time). Measurement and current application when using external trigger measurement or when continuous measurement is off (:INIT:CONT OFF) Measurement Measurement...

  • Page 64: Averaging Function

    4.4 Averaging Function 4.4 Averaging Function The Averaging Function averages measurement values for output. This function can minimize instability of displayed values. The number of samples to average can be set from 2 to 16. (The SHIFT indicator lights up.) The Averaging Function setting display appears.

  • Page 65: Statistical Calculation Functions

    4.5 Statistical Calculation Functions 4.5 Statistical Calculation Functions The mean, maximum, minimum, standard deviation of population, standard devi- ation of sample and process capability indices are calculated and displayed for up to 30000 measurement values. The calculation formulas are as follows: Mean ∑...
  • Page 66 4.5 Statistical Calculation Functions Enabling/Disabling the Statistical Calculation Function The Statistical Calculation display appears. (Main Display) (Sub Display) The function enable/disable display appears. (Sub Display) (press three times) Enable or disable the Calculation Function on the Sub Display. on..enables the calculation function on..

  • Page 67: Importing Data

    4.5 Statistical Calculation Functions Automatic Clearing of Statistical Calculation Results after Printing The instrument can be set to automatically clear statistical calculation results after results are output to the printer. The Statistical Calculation display appears. (Main Display) (Sub Display) Bring up Auto Clearing After Printing in the Setup screen. (Sub Display) (Press twice) Turn Automatic Clearing After Printing on or off.
  • Page 68 4.5 Statistical Calculation Functions Ω Example: when the V mode is selected (not displayed in V mode) Total data count of resistance measure- Mean of resistance measurement Maximum of resistance measurement ment Maximum Valid data Data Sample Mean Minimum of resistance measurement Standard deviation of population Standard deviation of sample of resis- of resistance measurement...

  • Page 69: Memory Function

    4.6 Memory Function 4.6 Memory Function The Memory function is only available via communication commands. When the Memory function is enabled, measurement values are stored in the instrument’s internal memory according to trigger input sequence (up to 400 val- ues). Stored data can be downloaded later upon command. When measuring using a scanner to switch multiple test objects, switching time can be quite long if measurement values are downloaded to the PC after each measurement.
  • Page 70 4.6 Memory Function Send the command to download the data from memory. :MEMory:DATA? The stored measurement values are returned in response. :MEM:DATA? 290.60E-3, 1.3924E+0 290.54E-3, 1.3924E+0 290.50E-3, 1.3923E+0 290.43E-3, 1.3923E+0 290.34E-3, 1.3924E+0 The “END” character is sent as the last line of the data. To download stored data one measurement at a time, send this command: :MEMory:DATA? STEP The instrument sends one stored data object and enters the wait state.

  • Page 71: Key-Lock Function

    4.7 Key-Lock Function Disabling the Memory Function Send the command to enable the Memory function Off. :MEMory:STATe OFF The Memory function is disabled. ( not lit) 4.7 Key-Lock Function Executing Key-Lock disables the operating keys on the front of the instrument. This function can be useful for protecting settings.

  • Page 72: Panel Save Function

    4.8 Panel Save Function 4.8 Panel Save Function The current measurement setting state is stored (saved) in non-volatile memory. Up to 126 sets of measurement states can be saved. The measurement settings (state) at the time this function is executed are saved.

  • Page 73: Panel Load Function

    4.9 Panel Load Function 4.9 Panel Load Function Loads the measurement settings saved by the Panel Save function from internal non-volatile memory. The Panel Loading display appears. (Main Display) (Sub Display) The panel number blinks. Select the panel number to load. (Sub Display) (To load measurement settings from Panel No.3) numeric keypads...

  • Page 74: Self-Calibration

    4.10 Self-Calibration 4.10 Self-Calibration The self-calibration function adjusts offset voltage and gain drift of the instru- ment’s internal circuitry to improve measurement precision. The instrument’s measurement accuracy specifications depend on self-calibra- tion, so it must be executed frequently. In particular, always execute self-calibra- tion after warm-up and when the ambient temperature changes by more than °...

  • Page 75: Measurement Value Output Function

    4.11 Measurement Value Output Function 4.11 Measurement Value Output Function This function causes output of measured values via the RS-232C interface in the same sequence as trigger input. This function is useful when measuring using internal (free-run) triggering, and for obtaining measured values on a PC when using a footswitch for triggering. (The SHIFT indicator lights up.) The Menu display appears.

  • Page 76: Key Beeper Setting

    4.12 Key Beeper Setting 4.12 Key Beeper Setting Select whether a beep sounds when an operating key on the front of the instru- ment is pressed. (The SHIFT indicator lights up.) The Menu display appears. The Key Beeper setting display appears. "1.4 Menu Display Sequence (SHIFT →...

  • Page 77: Reset Function

    4.13 Reset Function 4.13 Reset Function The reset function can be used to re-initialize current measurement settings (excluding saved panel data) to their factory defaults, or to re-initialize all mea- surement settings including saved panel data to factory defaults. (The SHIFT indicator lights up.) The Menu display appears.
  • Page 78 4.13 Reset Function Initial Factory Default Settings Description Default Measurement Mode Ω Resistance Measurement Range Ω Voltage Measurement Range Auto Range Zero-Adjust Delay Delay Time 0.000s Sampling Rate SLOW Averaging Function Average Times Self-Calibration AUTO Continuous Measurement Trigger Source Internal trigger Line Frequency AUTO Key Beeper Setting...
  • Page 79 4.13 Reset Function...

  • Page 80: External Control (Ext I/O)

    5.1 Overview External Control Chapter 5 (EXT I/O) 5.1 Overview External Control • External trigger input (TRIG) Input Functions • Select Panel No. to load (LOAD0 to LOAD6) • Zero-adjust signal input (0ADJ) • Print Signal input (PRINT) • Self-calibration signal input (CAL) •...

  • Page 81: Signal Descriptions

    5.2 Signal Descriptions 5.2 Signal Descriptions Pinout Connector: (Instrument Side) 37-pin D-sub female with #4-40 screws Mating Connectors: DC-37P-ULR (solder type) / DCSP-JB37PR (pressure weld type) Japan Aviation Electronics Industry Ltd. EXT I/O Connector (Instrument Side) − Pos: positive, Neg: negative, : not applicable Signal name Function...

  • Page 82: Input Signals

    5.2 Signal Descriptions Input Signals LOAD0 to Select a Panel No. to load and apply a TRIG signal to load the selected Panel No. and measure. LOAD0 is the LSB, and LOAD6 is the MSB. LOAD6 When a TRIG signal is applied, if LOAD0 through LOAD6 are unchanged from the previous trigger event, panel settings are not loaded.

  • Page 83: Output Signals

    5.2 Signal Descriptions 0ADJ Zero adjustment executes once when the 0ADJ signal transitions from High to Low. PRINT The current measurement value prints when the PRINT signal transitions from High to Low. MANU When the MANU comparator mode is selected, comparator judgment is enabled while the MANU signal is Low.

  • Page 84: Err Output

    5.2 Signal Descriptions ERR Output The ERR output signal indicates the occurrence of measurement fault conditions (such as open test leads, or a bad contact). There are two ERR output methods. Synchronized Measurement faults detected while measuring (not while awaiting trigger or dur- with EOM Out- ing delay or calculation intervals), are indicated by ERR output synchronous with EOM output (the end-of-measurement signal).

  • Page 85: Instrument Settings

    5.2 Signal Descriptions Instrument Settings Measurement Fault Output Signal (ERR) Setting (The SHIFT indicator lights up.) The Menu display appears. Select the ERR Output Selection display. "1.4 Menu Display Sequence (SHIFT → ENTER)" (⇒ p.13). (Main Display) (Sub Display) The current setting blinks. Select the type of signal to be output on the Sub Display.

  • Page 86: Timing Chart

    5.3 Timing Chart 5.3 Timing Chart External Trigger Timing Chart Open Contact Contact State *1 ERR Output (Err Output ASYNC Setting) *3 TRIG Input Measurement start signal INDEX Output Measuring Reference Signal End of Conversion EOM Output End-of-Measurement Signal Comparator Result *2 ERR Output (Err Output SYNC Setting) *1: For details, see “"ERR Output"(⇒...
  • Page 87 5.3 Timing Chart Description Time 1.5 ms ERR Output response time Measurement trigger 0.5 ms or more. pulse width Delay Time per setting " Trigger Delay Settings" (⇒ p.56). Ω Ω Measurement time V mode mode or V mode EX.FAST 7.8 ms EX.FAST 3.4 ms...

  • Page 88: Internal Circuitry

    5.4 Internal Circuitry 5.4 Internal Circuitry Input Circuit PLC, etc. (Controller) Internally Isolated 5 V 8 　ISO_5V 2kΩ 1 　 TRIG 1kΩ Output 4 　 LOAD1 5 　 LOAD3 6 　 LOAD5 7 　 MANU 20　0ADJ 21　CAL 22　LOAD0 23　LOAD2 24　LOAD4 25　LOAD6 26　PRINT 9 　...
  • Page 89 5.4 Internal Circuitry Electrical Specifications Input Signals Input type Optocoupler-isolated, non-voltage contact inputs (source input, active-low) Input asserted (ON) voltage 1 V or less Input de-asserted (OFF) voltage Open or 5 to 30 V Input asserted (ON) current 3 mA/ch Maximum applied voltage 30 V Output Signals...
  • Page 90 5.4 Internal Circuitry Output Circuit Connection Examples BT3562, BT3563 BT3562, BT3563 Output Output Relay Connections LED Connection BT3562, BT3563 BT3562, BT3563 Output Output Output Active-Low Logic Output Active-Low Logic Output Wired OR BT3562, BT3563 Common BT3562, BT3563 Output Output Input Input Common PLC Input (Source Input) Connections...

  • Page 91: External Control Q&A

    5.5 External Control Q&A 5.5 External Control Q&A Common Questions Answers Connect the (active low) TRIG input pin to an ISO_COM pin using a How do I connect external trigger input? switch or open-collector output. Which pins are common ground for input and The ISO_COM pins.

  • Page 92: Printing

    6.1 Connecting the Printer Chapter 6 Printing 6.1 Connecting the Printer Before connecting the printer Because electric shock and instrument damage hazards are present, always follow the steps below when connecting the printer. • Always turn off the instrument and the printer before connecting. •...

  • Page 93: Connecting The Printer To The Instrument

    6.1 Connecting the Printer Connecting the PRINTER to the Instrument Model BT3562 (BT3562-01) Confirm that the instrument and Printer are turned off. Printer Connect the AC Adapter to the Printer, and insert the power plug into an outlet. Connect the RS-232C Cable to the RS-232C connectors on the instrument and printer.

  • Page 94: Selecting The Interface

    6.2 Selecting the Interface 6.2 Selecting the Interface (SHIFT Lamp lit) The Menu display appears. Select the Interface Selection display. "1.4 Menu Display Sequence (SHIFT → ENTER)" (⇒ p.13). (Main Display) (Sub Display) The current setting blinks. Select Printer on the Sub Display. rS.....

  • Page 95: Printing

    6.3 Printing 6.3 Printing Printing Measured Values and Decision Results_____________________ From the Measurement display, press the PRINT key or short the PRINT pin to the ISO_COM of the EXT I/O connector to print the measured value and deci- sion result. •...
  • Page 96 6.3 Printing Example Printouts______________________________________________ Measurement values Measurement values Measurement values (V mode) Ω V mode) Ω mode) 3.70079 V 2.5375mOhm, 4.70056 V 17.855mOhm 101 -58.3306 V 2 - 0.9730mOhm, 4.70055 V 0.641 Ohm 203.086 V 15.142mOhm,-0.00002 V 1.9984kOhm 160.68mOhm, 267.031 V 15.039 Ohm,- 50.254 V 200.12 Ohm, 11.3176 V 2.9984kOhm,-11.3099 V...

  • Page 97: Chapter 7 Analog Output

    7.1 Connecting Analog Output Chapter 7 Analog Output The Model BT3562-01 and BT3563-01 are capable of generating analog output for resistance measured values. Changes in resistance values can be recorded by connecting the instrument's analog output to a logger or similar device.

  • Page 98: Analog Output Specifications

    Analog Output Specifications 7.2 Analog Output Specifications Output voltage 0 V to 3.1 V DC (f.s.) Resolution 12-bit resolution (approx. 1 mV) Output resistance Ω Output Resistance measured value (display count value) Fixed at 3.1 V at OF or measurement fault. Fixed at 0 V for negative values.

  • Page 99: Rs-232C/Gp-Ib Interfaces

    : GP-IB only : RS-232C only Before Use • GP-IB is available only on Model BT3562-01. • Always make use of the connector screws to affix the GP-IB or RS-232C con- nectors. • When issuing commands that contain data, make certain that the data is pro- vided in the specified format.

  • Page 100: Specifications

    • Model 9638 RS-232C CABLE (for PC98-series) " Attaching the Connector" (⇒ p.97). (Model BT3562-01 only) GP-IB Specifications GP-IB is available only on Model BT3562-01. Interface Functions All Source Handshake functions are supported. All Acceptor Handshake functions are supported. Basic talker functions are supported. Serial poll function are sup- ported.

  • Page 101: Selecting The Connections And Protocol

    8.3 Selecting the Connections and Protocol Selecting the Connections and Protocol Attaching the Connector • Always turn both devices OFF when connecting and disconnecting an inter- face connector. Otherwise, an electric shock accident may occur. • After connecting, always tighten the connector screws. The mounting screws must be firmly tightened or the RS-232C connector may not perform to spec- ifications, or may even fail.
  • Page 102 Female 9-pin Female 9-pin Recommended cable: D-sub D-sub Model BT3562(-01), PC/AT-end HIOKI BT3563(-01) end Model 9637 RS-232C Pin No. Pin No. CABLE (1.8 m) Connecting to an NEC Use a crossover cable with a female 9-pin D-sub and a male 25-pin D-sub PC9801 or PC9821 connector.

  • Page 103: Selecting The Interface

    The current setting blinks. Select RS-232C or GP-IB on the Sub Display.....RS-232C GP-Ib ..GP-IB (Model BT3562-01, BT3563-01 only) ..Printer When you select RS-232C, set the communications speed. (Sub Display) When selecting GP-IB, also set the Address and Message Terminator.

  • Page 104: Communication Methods

    8.4 Communication Methods 8.4 Communication Methods Various messages are supported for controlling the instrument through the inter- faces. Messages can be either program messages, sent from the PC to the instrument, or response messages, sent from the instrument to the PC. Program Messages Model BT3562 (-01) Model BT3563 (-01)
  • Page 105 8.4 Communication Methods Response When a query message is received, its syntax is checked and a response mes- sage is generated. Messages :SYSTem:HEADer command determines whether headers are prefixed to response messages. Header ON :RESISTANCE:RANGE 300.00E-3 Header OFF 300.00E-3 Ω (the current resistance measurement range is 300 m At power-on, Header OFF is selected.
  • Page 106 8.4 Communication Methods Message This instrument recognizes the following message terminators: Terminators • LF • CR • CR+LF • CR+LF • EOI • LF with EOI From the instrument's interface settings, the following can be selected as the ter- minator for response messages. •...
  • Page 107 8.4 Communication Methods Data Formats The instrument uses character data and decimal numeric data, depending on the command. (1) Character Data Character data always begins with an alphabetic character, and subsequent characters may be either alphabetic or numeric. Character data is not case-sen- sitive, although response messages from the instrument are only upper case.

  • Page 108: Output Queue And Input Buffer

    8.4 Communication Methods Compound Com- When several commands having a common header are combined to form a compound command (e.g., mand :CALCulate: LIMit:RESistance:UPPer: and :CALCulate:LIMit:RESistance:LOWer), if they are written together in Header Omission sequence, the common portion (here, :CALCulate: LIMit:RESistance) can be omitted after its initial occurrence. This common portion is called the "current path"...

  • Page 109: Status Byte Register

    8.4 Communication Methods Status Byte Register This instrument implements the status model defined by IEEE 488.2 with regard to the serial poll function using the service request line. The term "event" refers to any occurrence that generates a service request. Standard Event Register Description Output Queue data information Service Request...
  • Page 110 8.4 Communication Methods Status Byte Register (STB) During serial polling, the contents of the 8-bit Status Byte Register are sent from the instrument to the controller. When any Status Byte Register bit enabled by the Service Request Enable Reg- ister has switched from 0 to 1, the MSS bit becomes 1. Consequently, the SRQ bit is set to 1, and a service request is dispatched.

  • Page 111: Event Registers

    8.4 Communication Methods Event Registers Standard Event Status Register (SESR) The Standard Event Status Register is an 8-bit register. If any bit in the Standard Event Status Register is set to 1 (after masking by the Standard Event Status Enable Register), bit 5 (ESB) of the Status Byte Register is set to 1.
  • Page 112 8.4 Communication Methods Standard Event Status Enable Register (SESER) Setting any bit of the Standard Event Status Enable Register to 1 enables access to the corresponding bit of the Standard Event Status Register. Standard Event Status Register (SESR) and Standard Event Status Enable Register (SESER) bit6 bit5...
  • Page 113 8.4 Communication Methods Event Status Registers 0 (ESR0) and 1 (ESR1), and Event Status Enable Regis- ters 0 (ESER0) and 1 (ESER1) Status Byte Register (STB) bit2 bit1 bit0 Event Status Register 0 (ESR0) ESB1 ESB0 bit7 bit6 bit5 bit4 bit3 bit2 bit1...

  • Page 114: Initialization Items

    8.4 Communication Methods Initialization Items −  : initialized, : not initialized ∗ ∗ Initialization Method At Power- Device Item Command Clear Command Device-specific functions − − −  (Range, etc.) Output Queue − −   Input buffer − −...

  • Page 115: Message List

    8.5 Message List 8.5 Message List Commands specific to RS-232C or GP-IB are identified by , respec- tively. • Any spelling mistake in a message results in a command error. • < > = contents of the data portion. [Numeric data values are indicated by format as (NR1), (NR2) and (NR3), rep- resenting integer, fixed-point and floating point decimal data values respec-...

  • Page 116: Device-Specific Commands

    8.5 Message List Device-Specific Commands Message ([ ] = optional) Data Contents Description ( ) = response data page Event Registers :ESE0 0 to 255 Sets Event Status Enable Register 0 :ESE0? 0 to 255 Queries Event Status Enable Register 0 :ESR0? 0 to 255 Queries Event Status Register 0...
  • Page 117 8.5 Message List Message ([ ] = optional) Data Contents Description ( ) = response data page Comparator OFF/ HL/ IN/ BOTH1 Sets the comparator judgment beeper :CALCulate:LIMit:BEEPer / BOTH2 setting OFF/ HL/ IN/ BOTH1 Queries the comparator judgment :CALCulate:LIMit:BEEPer? / BOTH2 beeper setting HL/ REF...
  • Page 118 8.5 Message List Message ([ ] = optional) Data Contents Description ( ) = response data page Statistical Functions 1/ 0/ ON/ OFF Sets statistical calculation function ex- :CALCulate:STATistics:STATe ecution ON/ OFF Queries the statistical calculation :CALCulate:STATistics:STATe? function execution setting Clears statistical calculation results :CALCulate:STATistics:CLEAr <Total data count>,...
  • Page 119 8.5 Message List Message ([ ] = optional) Data Contents Description ( ) = response data page ON/ OFF Queries the automatic self-calibration :SYSTem:CALibration:AUTO? setting Trigger Input Measured Value Ouputput 1/ 0/ ON/ OFF Sets measurement value output upon :SYSTem:DATAout triggering ON/ OFF Queries measurement value output...
  • Page 120 8.5 Message List Message ([ ] = optional) Data Contents Description ( ) = response data page :SYSTem:EOM:PULSe <HOLD/PULSe> Selects the EOM pulse width :SYSTem:EOM:PULSe? (0.001 to 0.099) Queries the EOM pulse width setting Measurement current pulse output function setting CONTinuous/PULSe Sets the measurement current pulse :SYSTem:CURRent...

  • Page 121: Message Reference

    8.6 Message Reference 8.6 Message Reference < >: Indicates the contents (character or numeric parameters) of the data portion of a message. Character parameters are returned as all capital letters. Numeric Parameters: • NRf Number format may be any of NR1, NR2 and NR3 •...

  • Page 122: Standard Commands

    The Device ID is HIOKI BT3562, 0, software version 1.00. Note • The response message has no header. • The model name of the Model BT3562-01 is "BT3562-01". • The model name of the Model BT3563 is "BT3563" or "BT3563-01". Internal Operation Command...
  • Page 123 Note command is supported because it is defined in IEEE 488.2-1987, but ∗ because all Model BT3562(BT3562-01) device-specific commands are sequential types, this command has no actual affect. Status and Event Control Commands Clear the Status Byte and Related Queues (Except the Output Queue)
  • Page 124 8.6 Message Reference Set and Query the Standard Event Status Enable Register (SESER) Syntax Command <0 to 255> ∗ Query ESE? ∗ Response <0 to 255 (NR1)> Description Command The SESER mask is set to the numerical value 0 to 255. The initial value (at power-on) is 0.
  • Page 125 8.6 Message Reference Set and Query the Service Request Enable Register (SRER) Syntax Command <0 to 255> ∗ Query SRE? ∗ Response <0 to 255 (NR1)> Description Command The SRER mask is set to the numerical value 0 to 255. Although NRf numerical values are accepted, values to the right of the decimal are rounded to the nearest integer.
  • Page 126 8.6 Message Reference Device-Specific Commands Set and Query Device-Specific Event Status Enable Registers ESER0 Syntax Command :ESE0 <0 to 255> Query :ESE0? Response <0 to 255 (NR1)> Description Command Sets the mask pattern in Event Status Enable Register 0 (ESER0) for the Event Status Register.
  • Page 127 8.6 Message Reference Select and Query the Measurement Mode Setting Syntax Command :FUNCtion <RV/ RESistance/ VOLTage> Query :FUNCtion? Response <RV/ RESISTANCE/ VOLTAGE> ......Ω V mode (Resistance and voltage measurement) Ω RESISTANCE..mode (Resistance measurement) VOLTAGE.....V mode (Voltage measurement) Example Command :FUNC RV Selects the...
  • Page 128 8.6 Message Reference Set and Query the Auto-Ranging Setting Syntax Command :AUTorange <1, 0, ON or OFF> Query :AUTorange? Response <ON or OFF> Example Command :AUT ON Note • Attempting to enable auto-ranging when the Comparator or Memory function is enabled results in a execution error.
  • Page 129 8.6 Message Reference Set and Query the Averaging Function Setting Syntax Command :CALCulate:AVERage:STATe <1, 0, ON or OFF> Query :CALCulate:AVERage:STATe? Response <ON or OFF> Example Command :CALC:AVER:STAT OFF Query :CALC:AVER:STAT? Response Set and Query the No. of samples to average Syntax Command :CALCulate:AVERage...
  • Page 130 8.6 Message Reference Set and Query Comparator Judgments Syntax Command :CALCulate:LIMit:BEEPer <OFF/HL/IN/BOTH1/BOTH2> Query :CALCulate:LIMit:BEEPer? Response <OFF/ HL/ IN/ BOTH1/ BOTH2> OFF.... No beeps sound. HL ....The beeper sounds upon Hi and Lo judgments. IN ....The beeper sounds upon IN judgments. BOTH1 ..
  • Page 131 8.6 Message Reference Set and Query the Comparator Upper Threshold Setting (Resistance Measurement) Syntax Command :CALCulate:LIMit:RESistance:UPPer <Upper threshold> Query :CALCulate:LIMit:RESistance:UPPer? Response <Upper threshold> <Upper threshold> = 0 to 99999 (NR1) Example Command :CALC:LIM:RES:UPP 28593 Sets the upper threshold to 285.93 m Ω...
  • Page 132 8.6 Message Reference Set and Query the Comparator Lower Threshold Setting (Resistance Measurement) Syntax Command :CALCulate:LIMit:RESistance:LOWer <Lower threshold> Query :CALCulate:LIMit:RESistance:LOWer? Response <Lower threshold> <Lower threshold> = 0 to 99999 (NR1) Example Command :CALC:LIM:RES:LOW 28406 Sets the lower threshold to 284.06 m Ω...
  • Page 133 8.6 Message Reference Set and Query the Comparator Reference Value (Resistance Measurement) Syntax Command :CALCulate:LIMit:RESistance:REFerence <Reference value> Query :CALCulate:LIMit:RESistance:REFerence? Response <Reference value> <Reference value> = 0 to 99999 (NR1) Example Command :CALC:LIM:RES:REF 5076 Sets the reference value to 50.76 m Ω...
  • Page 134 8.6 Message Reference Set and Query the Comparator Decision Tolerance Setting (Comparator Function) (Resistance Measurement) Syntax Command :CALCulate:LIMit:RESistance:PERCent <Tolerance (%)> Query :CALCulate:LIMit:RESistance:PERCent? Response <Tolerance (%)> <Tolerance (%)> = 0 to 99.999 (NR2) Example Command :CALC:LIM:RES:PERC 0.3 Query :CALC:LIM:RES:PERC? Response 0.300 (Voltage Measurement) Syntax Command...
  • Page 135 8.6 Message Reference Query Comparator Judgment Results (Resistance Measurement) Syntax Query :CALCulate:LIMit:RESistance:RESult? Response <HI/ IN/ LO/ OFF/ ERR> Example Query :CALC:LIM:RES:RES? Response (Voltage Measurement) Syntax Query :CALCulate:LIMit:VOLTage:RESult? Response <HI/ IN/ LO/ OFF/ ERR> Set and query the comparator absolute value judgment function Syntax Command :CALCulate:LIMit:ABS...
  • Page 136 8.6 Message Reference Execute Statistical Functions Syntax Command :CALCulate:STATistics:STATe <1, 0, ON or OFF> Query :CALCulate:STATistics:STATe? Response <ON or OFF> Example Command :CALC:STAT:STAT ON Query :CALC:STAT:STAT? Response About the Statistical Calculation function Data samples can be acquired by the following three methods: •...
  • Page 137 8.6 Message Reference Query the Data Count (Resistance Measurement) Syntax Query :CALCulate:STATistics:RESistance:NUMBer? Response <Total data count (NR1)>,<Valid data count (NR1)> <Total data count (NR1)> = 0 to 30000 (NR1) <Valid data count (NR1)> = 0 to 30000 (NR1) Example Query :CALC:STAT:RES:NUMB? Response 22,20...
  • Page 138 8.6 Message Reference Query the Maximum value (Resistance Measurement) Syntax Query :CALCulate:STATistics:RESistance:MAXimum? Response <Maximum value (NR3)>,<Data No. of Maximum value (NR1)> Example Query :CALC:STAT:RES:MAX? Response 297.28E-3,15 (Voltage Measurement) Syntax Query :CALCulate:STATistics:VOLTage:MAXimum? Response <Maximum value (NR3)>,<Data No. of Maximum value (NR1)> Example Query :CALC:STAT:VOLT:MAX?
  • Page 139 8.6 Message Reference Query Comparator Judgment Results (Statistical Calculation Function) (Resistance Measurement) Syntax Query :CALCulate:STATistics:RESistance:LIMit? Response <Hi (NR1) count>,<IN (NR1) count>,<Lo (NR1) count>, <Measurement fault count (NR1)> Example Query :CALC:STAT:RES:LIM? Response 6,160,13,2 (Voltage Measurement) Syntax Query :CALCulate:STATistics:VOLTage:LIMit? Response <Hi (NR1) count>,<IN (NR1) count>, <Lo (NR1) count>,<Measurement fault count (NR1)>...
  • Page 140 8.6 Message Reference Query the Process Capability Indices (Resistance Measurement) Syntax Query :CALCulate:STATistics:RESistance:CP? Response <Cp (NR2)>,<CpK (NR2)> Example Query :CALC:STAT:RES:CP? Response 0.04, 0.04 (Voltage Measurement) Syntax Query :CALCulate:STATistics:VOLTage:CP? Response <Cp (NR2)>,<CpK (NR2)> Example Query :CALC:STAT:VOLT:CP? Response 0.91, 0.00 Set and Query the Memory Function State Syntax Command :MEMory:STATe...
  • Page 141 8.6 Message Reference Query the Memory Data Count Syntax Query :MEMory:COUNt? Response <Memory data count> <Memory data count> = 0 to 400 (NR1) Example Query :MEM:COUN? Response Query (Download) Memory Data Syntax Query :MEMory:DATA? [STEP] Response <Memory data No. (NR1)>,<Measured resistance (NR3)>,<Measured voltage (NR3)>...
  • Page 142 8.6 Message Reference Execute Self-Calibration Syntax Command :SYSTem:CALibration Self-Calibration State and Setting Command :SYSTem:CALibration:AUTO <1, 0, ON or OFF> Query :SYSTem:CALibration:AUTO? Response <ON or OFF> ON..AUTO Self-Calibration selected (executes approximately every 30 minutes) OFF . MANUAL Self-Calibration selected Example Command :SYST:CAL:AUTO ON Query...
  • Page 143 8.6 Message Reference Set and Query the Key Beeper Setting Syntax Command :SYSTem:BEEPer:STATe <1, 0, ON or OFF> Query :SYSTem:BEEPer:STATe? Response <ON or OFF> Example Command :SYST:BEEP:STAT ON Query :SYST:BEEP:STAT? Response Note Only key-press beeps are set on or off. Comparator judgment beeps are unaf- fected.
  • Page 144 8.6 Message Reference Set and Query EXT I/O Lock Syntax Command :SYSTem:ELOCk <1, 0, ON or OFF> Query :SYSTem:ELOCk? Response <ON or OFF> ON..EXT I/O control is disabled (preventing inadvertent opera- tions from electrical noise). OFF..EXT I/O control is enabled. Example Command :SYST:ELOC ON...
  • Page 145 8.6 Message Reference Set and Query the Header Present Setting Syntax Command :SYSTem:HEADer <1, 0, ON or OFF> Query :SYSTem:HEADer? Response <ON or OFF> Description Command Specifies whether a header is sent with response messages. Example Command :SYST:HEAD ON Query :SYST:HEAD? Response :SYSTEM:HEADER ON...
  • Page 146 8.6 Message Reference EOM Signal Output Method Settings (software version 1.15 or later) The following 2 methods can be selected as the EOM signal output method for external I/O. (The EOM sig- nal is set to ON at end-of-measurement and set to OFF according to the output method that has been set) •...
  • Page 147 8.6 Message Reference EXT I/O Output Syntax Command :IO:OUT <0 to 1023> Description Command Any 10-bit data can be output from the EXT I/O connectors. "Output Signals" (⇒ p.78). bit9 bit8 bit7 bit6 bit5 bit4 bit3 bit2 bit1 bit0 Pin No. EXT I/O Input Syntax Query...
  • Page 148 8.6 Message Reference Triggering System Description Triggering operates as follows depending on the continuous measurement set- :INITIATE:CONTINUOUS :TRIG- ting ( ) and the trigger source setting ( GER:SOURCE "8.7 Basic Data Importing Methods" (⇒ p.156). Continuous Measurement ( :INITIATE:CONTINUOUS Free-Run state. Trigger by :INITIATE Measurement continues...
  • Page 149 8.6 Message Reference Measurement Flow :INITIATE:CONTINUOUS ON :INITIATE:CONTINUOUS OFF :TRIGGER:SOURCE IMMEDIATE :TRIGGER:SOURCE IMMEDIATE Trigger Delay Idle State :INITIATE:IMMEDIATE Measurement Trigger Delay Measurement Calculation Calculation Measured Value Output Measured Value Output :INITIATE:CONTINUOUS ON :INITIATE:CONTINUOUS OFF :TRIGGER:SOURCE EXTERNAL :TRIGGER:SOURCE EXTERNAL Trigger Wait State Idle State Any of the fol- lowing:...
  • Page 150 8.6 Message Reference Continuous Measurement Setting Syntax Command :INITiate:CONTinuous <1, 0, ON or OFF> Query :INITiate:CONTinuous? Response <ON or OFF> ON..Continuous Measurement Enabled OFF..Continuous Measurement Disabled Description Command Sets continuous measurement. Query Queries the continuous measurement setting. Example Command :INIT:CONT OFF Disables continuous measurement.
  • Page 151 8.6 Message Reference Set and Query the Trigger Source Syntax Command :TRIGger:SOURce <IMMediate/ EXTernal> Query :TRIGger:SOURce? Response <IMMEDIATE/ EXTERNAL> IMMEDIATE..Internal triggering EXTERNAL..External trigger source. Triggering by TRIG key, ∗ TRIG terminal or command. Description Command Selects the trigger source. Query Queries the trigger source selection.
  • Page 152 8.6 Message Reference Set and Query Trigger Delay Interval Syntax Command :TRIGger:DELay <0 to 9.999> Query :TRIGger:DELay? Response <0 to 9.999 (NR2)> Description Command Sets the trigger delay interval. Query Queries the trigger delay interval setting. Example Command :TRIG:DEL 0.058 Sets the trigger delay to 0.058 seconds.
  • Page 153 8.6 Message Reference Execute a Measurement and Read the Measured Values Syntax Query :READ? Response <Measured resistance (NR3)>, <Measured voltage (NR3)> Ω V mode) Ω <Measured resistance (NR3)> mode) <Measured voltage (NR3)> (V mode) Description Query Switches from the Idle State to the Trigger Wait State, then reads the next measured value.

  • Page 154: Measurement Value Formats

    8.6 Message Reference Measurement Value Formats For the commands that acquire measurement values ( :FETCH? :READ? ), the response formats are as follows. Measured Resistance ± Measurement range Measured Value Measurement Fault ± ± Ω  10.0000E+8 +10.0000E+9 ± ± 30 m Ω...

  • Page 155: Command Compatibility With The Model 3560 Ac Mω Hitester

    Command Compatibility with the Model 3560 AC mΩ HiTESTER Model BT3562 and BT3563 Battery Hitester accept all of the commands sup- Ω ported by the HIOKI 3560 AC m Hitester. However the following differences result from the functional differences. Comparator Tables Up to 30 comparator settings can be saved with the Model 3560.
  • Page 156 For the Model BT3560, the command header is set to OFF when the instrument is turned on or reset (including *RST). Message ([ ] = optional) Data Contents Differences ( ) = response data Model BT3562 (BT3562-01) Model 3560 Standard Commands <Manufacturer's Model name in response data: Model name in response data: ∗IDN?
  • Page 157 8.6 Message Reference Message ([ ] = optional) Data Contents Differences ( ) = response data Model BT3562 (BT3562-01) Model 3560 0 to 30 Range of panel numbers: Range of Comparator Num- :COMParator Turns Off when the panel num- bers: 0 to 30...
  • Page 158 8.6 Message Reference Message ([ ] = optional) Data Contents Differences ( ) = response data Model BT3562 (BT3562-01) Model 3560 ON/OFF :LOCK:KEY :LOCK:KEY? ON/OFF :HEADer :HEADer? ON/OFF :LOCK:EXTernal :LOCK:EXTernal? OFF/ PASS/ FAIL (ΩV) :CSET:BEEPer OFF/ IN/ HL (Ω) :CSET:BEEPer?
  • Page 159 8.6 Message Reference Measurement Value Formats (commands compatible with Model 3560) For the commands that acquire measurement values :MEASure:BATTery? :MEASure:RESistance? :MEASure:VOLTage? ), the response formats are as follows. Measured Resistance Measurement Range Measured Value Ω   Ω   30 m 300 m Ω...

  • Page 160: Basic Data Importing Methods

    8.7 Basic Data Importing Methods 8.7 Basic Data Importing Methods Flexible data importing is available depending on the application. Free-Run Data Importing Initial :INITiate:CONTinuous ON (enable continuous Setup measurement) :TRIGger:SOURce IMM (internal triggering) Importing :FETCh? Imports the most recent measurement Importing by Host Triggering Initial :INITiate:CONTinuous OFF...

  • Page 161: Sample Programs

    8.8 Sample Programs 8.8 Sample Programs These sample programs are written in Microsoft Visual Basic 5.0 and 6.0. To be prepared in Visual Basic 5.0/6.0 • The following are used for communication: For RS-232C communication: MSComm from Visual Basic Professional For GP-IB communication: National Instruments GP-IB Board, Driver and Module for Visual Basic •...
  • Page 162 8.8 Sample Programs (2) Measure Resistance by PC Key Measures and imports by key input on the PC, and saves measurements in a text file. Private Sub MeasureReadSubRS() Dim recvstr As String 'Receiving char string Dim i As Integer MSComm1.Settings = "9600,n,8,1" 'Comm port setting MSComm1.PortOpen = True 'Open a port...
  • Page 163 8.8 Sample Programs (3) External Trigger Measurement 1 Measure and import according to external triggering of the instrument (TRIG key or EXT I/O TRIG terminal input) and save measurements in a text file. Private Sub MeasureTrigSubRS() Dim recvstr As String 'Receiving char string Dim i As Integer MSComm1.Settings = "9600,n,8,1"...
  • Page 164 8.8 Sample Programs (4) External Trigger Measurement 2 Measure and import according to external triggering of the instrument (TRIG key or EXT I/O TRIG terminal input), and save measurements in a text file. (The instrument imports the most recent measurement by trigger input timing with the continuous measure- ment state) Private Sub MeasureTrig2SubRS() Dim recvstr As String...
  • Page 165 8.8 Sample Programs (5) Set Measurement State Sets up the measurement setting state. Ω 'Function: Ω 'Range: 300 m 'Sampling: SLOW 'Triggering: Internal 'Comparator: ON, Beeper HL, Resistance High/Low mode, Upper threshold 20000 (200.00 mΩ), Lower threshold 10000 (100.00 mΩ) Voltage REF/%, Reference value 150000 (15.0000 V), toTolerance 0.1% Private Sub SettingsSubRS() MSComm1.Settings = "9600,n,8,1"...
  • Page 166 Dim ud As Integer 'State (unused) Dim i As Integer pad = 0 'Board Address 0 gpibad = 1 'BT3562-01, BT3563-01 Address 1 timeout = T10s 'Timeout about 10s Call ibfind("gpib0", 0) 'Initialize GP-IB Call ibdev(pad, gpibad, 0, timeout, 1, 0, ud) Call SendIFC(pad) Open App.Path &...
  • Page 167 Dim ud As Integer 'State (unused) Dim i As Integer pad = 0 'Board Address 0 gpibad = 1 'BT3562-01, BT3563-01 Address 1 timeout = T10s 'Timeout about 10s Call ibfind("gpib0", 0) 'Initialize GP-IB Call ibdev(pad, gpibad, 0, timeout, 1, 0, ud) Call SendIFC(pad) Open App.Path &...
  • Page 168 Dim ud As Integer 'State (unused) im i As Integer pad = 0 'Board Address 0 gpibad = 1 'BT3562-01, BT3563-01 Address 1 timeout = T100s 'Timeout 100s (because of external trigger wait state) Call ibfind("gpib0", 0) 'Initialize GP-IB Call ibdev(pad, gpibad, 0, timeout, 1, 0, ud) Call SendIFC(pad) Open App.Path &...
  • Page 169 Dim ud As Integer 'State (unused) Dim i As Integer pad = 0 'Board Address 0 gpibad = 1 'BT3562-01, BT3563-01 Address 1 timeout = T100s 'Timeout 100s (because of external trigger wait state) Call ibfind("gpib0", 0) ' Initialize GP-IB...
  • Page 170 'Timeout period Dim ud As Integer 'State (unused) pad = 0 'Board Address 0 gpibad = 1 'BT3562-01, BT3563-01 Address 1 timeout = T10s 'Timeout about 10s Call ibfind("gpib0", 0) 'Initialize GP-IB Call ibdev(pad, gpibad, 0, timeout, 1, 0, ud) Call SendIFC(pad) Call Send(pad, gpibad, ":FUNC RV", NLend)

  • Page 171: To Be Prepared In Visual Basic 2005

    8.8 Sample Programs To be prepared in Visual Basic 2005 This section describes an example of how to use the Windows development lan- guage Visual Basic2005 Express Edition to operate the BT3562 unit from a PC via RS-232C, incorporate measurement values, and save measurement values to a file.
  • Page 172 8.8 Sample Programs Use the method in step 2 to create another button, and edit the text in the property win- dow of each button to appear as in the dia- gram. From1 Right-click above [ ] in the solution explorer, and select [ View Code Follow the procedure below so that the VB2005 window becomes as shown in the diagram below.

  • Page 173: Sample Programs(Visual Basic 2005)

    2 second time out sp.ReadTimeout = 2000 ............(d) Open port sp.Open() settings SendSetting(sp) 'BT3562-01 or BT3563-01 Create text file to be saved FileOpen(1, "data.csv", OpenMode.Output) .......... (e) For i = 1 To 10 Begin measurement and read measurement sp.WriteLine("...
  • Page 174 8.8 Sample Programs (a) This makes it so that during communication the [ Begin Measurement ] and [ Close ] buttons cannot be pressed. (b) Matches communication conditions and the computer usage conditions. The port to be used on the computer: 1 Transmission speed: 9600 bps Parity: none Data length: 8 bit...

  • Page 175: Chapter 9 Specifications

    9.1 Basic Specifications Chapter 9 Specifications 9.1 Basic Specifications Measurement Items Measurement items Resistance and voltage Resistance measurement AC four-terminal method method Measurement current 1 kHz frequency Resistance measurement μ Ω to 3.1 k Ω (minimum resolution 0.1 Ω range Voltage measurement μ...
  • Page 176 9.1 Basic Specifications Measurement Value Display Display count value Resistance measurement : “-1000 to 31000” Voltage measurement : “-600000 to 600000” (6 V/ 60 V) “-300000 to 300000” (300 V) (The 300 V range is only available on the Model BT3563.) Overflow display Resistance measurement: OF indicates a measurement exceeds 31000 (display counts)
  • Page 177 9.1 Basic Specifications Zero-Adjustment Zero-adjustment function • Zero-adjustment setting ON/ OFF (Common to both resistance and voltage) • Zero-adjustment clear Turns zero-adjustment off and clears all zero-adjustment offset data Zero-adjustment range Resistance measurement : -1000 to 1000 count Voltage measurement : -1000 to 1000 count Self-Calibration Calibration mode...
  • Page 178 9.1 Basic Specifications Comparator Comparator setting Comparator execution mode: HIGH, LOW/REF, % Upper and lower threshold: 0 to 99999 (Resistance)/ 0 to 999999 (Voltage) Reference value and tolerance:0 to 99999 (Resistance)/ 0 to 999999 (Voltage) %: 0.000% to 99.999% (percentage range setting applies to both positive and negative values) Comparator judgment beeper: OFF/ HIGH, LOW/ IN/ ALL •...
  • Page 179 9.1 Basic Specifications Panel Save Panel save function Measurement configurations can be saved and reloaded by specifying a Panel number No. of panel to save Saved settings Measurement mode, Resistance measurement range, Auto-ranging set- ting, Zero-adjust on/off setting and value, Sampling rate, Switching display setting, Trigger source, Delay setting, Averaging setting, Comparator set- ting, Statistical calculation setting and Key-lock setting Reset...

  • Page 180: Accuracy

    9.2 Accuracy External Interfaces Analog output Output : Resistance measured value (display value) (-01 only) Output voltage : 0 V DC (equivalent to 0 counts) to 3.1 V (equivalent to 31000 counts) Ω Output impedance : 1 k Conversion method: D/A converter No.

  • Page 181: General Specifications

    9.3 General Specifications Resistance Measurement Range 3 mΩ 30 mΩ 300 mΩ 3 Ω 30 Ω 300 Ω 3000 Ω Maximum displayed 3.1000 mΩ 31.000m Ω 310.00 mΩ 3.1000 Ω 31.000 Ω 310.00 Ω 3100. 0 Ω values μ μ μ...
  • Page 182 9.3 General Specifications Dielectric strength 1.62 kV AC for 1 minute, Cutoff current 10 mA, between all power terminals and protective ground 3.00 kV AC for 1 minute, Cutoff current 1 mA, between all measure- ment terminals and Interfaces 1.62 kV AC for 1 minute, Cutoff current 1 mA, between all measure- ment terminals and protective ground Dimensions Approx.

  • Page 183: Maintenance And Service

    • The fuse is housed in the power unit of the instrument. If the power does not turn on, the fuse may be blown. If this occurs, a replacement or repair cannot be performed by customers. Please contact your dealer or Hioki representa- tive.
  • Page 184 10.1 Troubleshooting Symptom Check Items Countermeasure Operation is abnormal. External electrical noise may occasionally cause malfunctions. If operation seems ab- normal, try executing a Reset. "4.13 Reset Function"( p.72). ⇒ Measured value is Are you using a two-terminal con- When using a two-terminal connection, the unstable.

  • Page 185: Cleaning

    10.2 Cleaning 10.2 Cleaning To clean the instrument, wipe it gently with a soft cloth moistened with water or mild detergent. Never use solvents such as benzene, alcohol, acetone, ether, ketones, thinners or gasoline, as they can deform and discolor the case. 10.3 Error Display Display Description...

  • Page 186: Appendix

    Appendix 1 Precautions for Making Custom Test Leads Appendix Appendix 1 Precautions for Making Custom Test Leads Bear the following in mind when making custom test leads. • Be sure to twist together the SOURCE-H and L leads, and the SENSE-H and L leads.
  • Page 187 Appendix 1 Precautions for Making Custom Test Leads • Do not allow the test leads near metal surfaces. In particular, the lead por- tions that are not twisted together must be kept away from conductors to avoid unstable measurements resulting from the effects of induced current. "Appendix 6 Effect of Eddy Currents"(⇒...
  • Page 188 Appendix 1 Precautions for Making Custom Test Leads ・Loop area ・Loop shape ・Probe interval ・Wire placement (distance from metallic parts on nearby equipment) Probe pins When current flows to the sense conductor, a voltage corresponding to the conductor's resistance occurs and introduces an error component.

  • Page 189: Appendix 2 Ac Four-Terminal Method

    Appendix 2 AC Four-terminal Method Appendix 2 AC Four-terminal Method The instrument uses the AC four-terminal method, so that resistance measure- ment can be carried out with the resistance of the leads and the contact resis- tance between the leads and the object to be measured canceled out. The following figure shows the principle of the AC four-terminal measurement method.

  • Page 190: Appendix 3 Measurement Values When Using Four-Terminal Measurement (Differences In Measurement Values Due To Measurement Leads Used)

    Appendix 3 Measurement values when using four-terminal measurement (Differences in mea- Appendix 3 Measurement values when using four-terminal measurement (Differences in measurement values due to measurement leads used) Depending on the subject of measurement, such as a lead-acid battery, mea- surement values may vary due to the measurement lead used.

  • Page 191: Appendix 4 Synchronous Detection System

    Appendix 4 Synchronous Detection System Appendix 4 Synchronous Detection System The figure below shows an equivalent circuit for a battery. If the measured object exhibits other electrical characteristics in addition to resistance, as shown in this figure, we can use the synchronous detection system to obtain the effective resistance of the object.

  • Page 192: Appendix 5 Configuration And Extension Of The Test Leads

    Appendix 5 Configuration and Extension of the Test Leads Appendix 5 Configuration and Extension of the Test Leads The test lead extension is normally performed by Hioki. If you want extension performed, contact your dealer or Hioki representative. Observe the following points when extending test leads: •...

  • Page 193: Appendix 6 Effect Of Eddy Currents

    Appendix 6 Effect of Eddy Currents Appendix 6 Effect of Eddy Currents The AC current generated in the instrument induces eddy currents in the sur- rounding metallic plates, which generate induced voltage in the test lead. Since the phase of this induced voltage is shifted from that of the AC current (reference signal) by 180 degrees, it cannot be eliminated by the synchronous detection cir- cuit, resulting in measurement errors.

  • Page 194: Appendix 7 Calibration Procedure

    Appendix 7 Calibration Procedure Appendix 7 Calibration Procedure For the calibration environment, see Section "Chapter 9 Specifications" (⇒ p.171). Calibration of the • Use the 9453 FOUR TERMINAL LEAD as the connection lead. • Use standard resistors with excellent temperature characteristics that resist Ohmmeter deterioration over time.

  • Page 195: Appendix 8 Zero Adjustment

    Appendix 8 Zero Adjustment Appendix 8 Zero Adjustment Zero adjustment is a function which adjusts the zero point by deducting the residual value obtained during 0 Ω measurement. For this reason, zero adjust- ment must be performed when connection is made to 0 Ω. However, connecting a sample with no resistance is difficult and therefore is not practical.
  • Page 196 Appendix 8 Zero Adjustment To perform zero adjustment appropriately Table 1 shows the correct and wrong connections. The resistances in the figure indicate lead resistances; there will be no problem if they are less than few Ω respectively. In (a), if you connect SENSE-H and SENSE-L as well as SOURCE-H and SOURCE-L respectively, and use one path to make connection between SENSE and SOURCE, no potential difference occurs between SENSE-H and SENSE-L, and 0 V is input.
  • Page 197 Appendix 8 Zero Adjustment To perform zero adjustment using a probe When you actually perform zero adjustment using a probe, you may unexpect- edly make the connection shown in Table 1 (b). Therefore, when performing zero adjustment, you need to pay sufficient attention to the connection state of each terminal.
  • Page 198 Appendix 8 Zero Adjustment To perform zero adjustment using 9454 ZERO ADJUSTMENT BOARD When performing zero adjustment, you cannot use a metal board or similar object to replace 9454 ZERO ADJUSTMENT BOARD. 9454 ZERO ADJUSTMENT BOARD is not just a metal board. Its structure con- sists of two layers of metal boards screwed at one point.
  • Page 199 Then, you need to make the connection as shown in Table 1 (a) and perform zero adjustment. However, if a HIOKI product is used, even in AC resistance measurement, if the μ...

  • Page 200: Appendix 9 Test Lead Options

    Appendix 9 Test Lead Options Appendix 9 Test Lead Options Model 9453 FOUR TERMINAL LEAD Model L2107 CLIP TYPE LEAD (70 V DC or less) (60 V DC or less) These leads have clip tips. Four-terminal measure- The SOURCE leads of this four-terminal lead set have ments are provided just by clipping on to the test ob- covered alligator clips, and the SENSE leads have ject.

  • Page 201: Appendix 10Rack Mounting

    Appendix 10 Rack Mounting Appendix 10 Rack Mounting By removing the screws on the sides, this instrument can be installed in a rack mounting plate. Observe the following precautions regarding the mounting screws to avoid instrument damage and electric shock accidents. •...
  • Page 202 Appendix 10 Rack Mounting M3 x 6 mm Remove the feed from the bottom of the instrument, and the screws from the sides (four near the front). M4 x 6 mm Rack Mounting Plate Installing the spacers on both sides of the instrument, affix the Rack Mounting Plate with the M4 x 10 mm screws.

  • Page 203: Appendix 11Dimensional Diagram

    Appendix 11 Dimensional Diagram Appendix 11 Dimensional Diagram 211 mm (8.31”) 75.5 mm (2.97”) 34 mm 20.5 mm 23 mm 215 mm (8.46”) 80 mm (3.15”)

  • Page 204: Index

    Index Index Numerics 0ADJ ..............78 ............78, 80, 82 3560 ..............151 ..............102 ..............78 Error ..............181 EXT I/O .............. 12 AC four-terminal method ........A4 Connection examples ........84 Accuracy ............176 External control ..........75 After warm-up .............69 External control Q&A ..........
  • Page 205 Index Judge ..............38 Panel load function ..........68 Judgment results ..........78 Panel save function ..........67 Period of guaranteed accuracy ......177 Power cord ........... 16, 21 Power inlet ............12 Key beeper ............71 POWER switch ............. 9 Key-Lock ............
  • Page 206 Index Temperature coefficient ........177 Terminator ............102 Test lead ........17, 21, 31, A15 Threshold method ..........49 Timing chart ............81 TRIG ...........55, 62, 64, 70, 77 Trigger ...........11, 55, 144 Trigger delay ............11 Trigger source ...........144 Upper and lower thresholds ........49 Voltage measurement .........26 Warm-up time...

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