### Clearing the status byte register and related queues (except the output queue)

Syntax | Command | *CLS
Query |
Response |
Parameter |
Explanation | Command | Clears the content of the event registers (SESR, ESR0, ESR1, ESR2, ESR3, ESR4).
Query |
Example | Command | *CLS Clears the content of the event registers (SESR, ESR0, ESR1, ESR2, ESR3, ESR4).
Query |
Response |
Note |  | GPIBFThe output queue is unaffected. RS-232C, USB, LANFThis has no effect upon the output queue, various enable registers, and MAV (bit 4) of the status byte register.

### Reading and writing the standard event status enable register (SESER)

Syntax | Command | *ESE <Mask value>
Query | *ESE?
Response | <Mask value>
Parameter | <Mask value> = 0 to 255 (NR1)
Explanation | Command | Sets the mask pattern of SESER. The initial value (at power-on) is 0.
Query | Returns the mask pattern of SESER.
Example | Command | *ESE 36 Sets bits 5 and 2 of SESER.
Query | *ESE?
Response | *ESE 36 (when HEADER ON) 36 (when HEADER OFF) Bit 5 and 2 of SESER are 1.
Note |  |

### Reading and clearing the standard event status register (SESR)

Syntax | Command |
Query | *ESR?
Response | <Register value>
Parameter | <Register value> = 0 to 255 (NR1)
Explanation | Command |
Query | Returns the register value of SESR, and clears the register. The response message has no header.
Example | Command |
Query | *ESR?
Response | 32 Bit 5 of the SESR was set to 1.
Note |  | Bit 6 and 1 are not used in the instrument.

### Querying the instrument ID (Identification Code)

Syntax | Command |
Query | *IDN?
Response | <Maker Name>,< Model Name>,<Product No.>,<Software Version>
Parameter |
Explanation | Command |
Query | Returns the ID of the instrument. A header is not added to the response message.
Example | Command |
Query | *IDN?
Response | HIOKI,IM7580,123456789,V1.00
Note |  |

### Setting OPC of SESR after all of the actions being executed are finished

Syntax | Command | *OPC
Query |
Response |
Parameter |
Explanation | Command | Sets the OPC (bit 0) of the SESR (standard event status register) at the point in time that@command processing finishes for the sent commands which are before the command. Sets OPC bit 0 of the Standard Event Status Register (SESR) when all prior commands have finished processing.
Query |
Example | Command | A;B;*OPC;C Sets the OPC of SESR after the A and B commands are finished.
Query |
Response |
Note |  |

### Sending response of ASCII 1 after all of the actions being executed are finished

Syntax | Command |
Query | *OPC?
Response |
Parameter |
Explanation | Command |
Query | Sends the response of ASCII 1 at the point in time that command processing finishes for the sent commands which are before the *OPC command. A header is not added to the response message.
Example | Command |
Query | *OPC?
Response | 1
Note |  |

### Initializing the instrument

Syntax | Command | *RST
Query |
Response |
Parameter |
Explanation | Command | Initializes the instrument. This is the same as a system reset. However, the settings of interface are not initialized. See "Initial Settings Table"
Query |
Example | Command | *RST Executes initialization of the instrument.
Query |
Response |
Note |  | When the instrument is initialized, the current setting information is deleted and the instrument is restored to the initial state.

### Writing and reading the service request enable register (SRER)

Syntax | Command | *SRE <Mask value>
Query | *SRE?
Response | <Mask value>
Parameter | <Mask value> = 0 to 255 (NR1)
Explanation | Command | Sets the mask pattern of SRER. The initial value (when power is turned on) is 0. Bit 6 is ignored.
Query | Returns the mask pattern of SRER. The values of bit 6 is always 0.
Example | Command | *SRE 34 Set SRER bits 5 and 1 to 0.
Query | *SRE?
Response | *SRE 34 (when HEADER ON) 34 (when HEADER OFF) SRER bits 5 and 1 have been set to 1.
Note |  |

### Reading the Status Byte Register

Syntax | Command |
Query | *STB?
Response | <Register value>
Parameter | <Register value> = 0 to 255 (NR1)
Explanation | Command |
Query | Returns the register value of STB. The response message has no header.
Example | Command |
Query | *STB?
Response | 8 STB bit 3 has been set to 1.
Note |  |

### Requesting a Sample

Syntax | Command | *TRG
Query |
Response |
Parameter |
Explanation | Command | Performs sampling once when there is an external trigger.
Query |
Example | Command | :TRIGger EXTernal;*TRG;:MEASure? This is set for the external trigger and acquires the measurement value after sampling is performed once.
Query |
Response |
Note |  | An execution error occurs if this command is executed when there is an internal trigger.

### Executing self tests and querying results

Syntax | Command |
Query | *TST?
Response | <Result>
Parameter | <Result> = 0 to 15 (NR1)
Explanation | Command |
Query | Executes the following self tests and returns the result. ROM test RAM test When the tests start, all functions including measurement are stopped and commands also become unable to be received. The tests take approximately 1 minute. Do not send commands or turn off the power of the instrument during the tests. A header is not added to the response message.
Example | Command |
Query | *TST?
Response | 3 (when HEADER ON) 3 (when HEADER OFF) The ROM test and SRAM test failed (NG).
Note |  | If the result is other than 0, the instrument may have malfunctioned. Contact your dealer or Hioki representative.

### Executing following command after command processing is finished

Syntax | Command | *WAI
Query |
Response |
Parameter |
Explanation | Command | Executes the command following *WAI after command processing is finished.
Query |
Example | Command | A;B;*WAI;C Executes *WAI and then the C command after processing ends for commands A and B. Current Frequency:1 MHz when in internal trigger state When the *WAI command was not used (Send) :FREQuency 1000000;:MEASure? In this case, it is not certain which frequency measurement value will be sent in response to the :MEASure? query. When the *WAI command was used (Send) :FREQuency 1000000;*WAI;:MEASure? In this case, the 1 MHz frequency measurement value is sent in response to the :MEASure? query.
Query |
Response |
Note |  | Unique commands other than the ":MEASure?" query use sequential commands. Therefore, the *WAI command is only effective for the ":MEASure?" query.

### Writing and reading event status enable register 0

Syntax | Command | :ESE0 <Mask value>
Query | :ESE0?
Response | <Mask value>
Parameter | <Mask value> = 0 to 255 (NR1)
Explanation | Command | Sets the mask pattern of ESER0. The initial value (when power is turned on) is 0.
Query | Returns the mask pattern of ESER0.
Example | Command | :ESE0 3 Sets bit 1 and bit 0 of ESER0.
Query | :ESE0?
Response | :ESE0 3 (when HEADER ON) 3 (when HEADER OFF) Bit 1 and bit 0 of ESER0 are set to 1.
Note |  | This register's bits are reset after 1 measurement completes. For details on each of the bits, refer to "About Event Registers".

### Writing and reading event status enable register 1

Syntax | Command | :ESE1 <Mask value>
Query | :ESE1?
Response | <Mask value>
Parameter | <Mask value> = 0 to 255 (NR1)
Explanation | Command | Sets the mask pattern of ESER1. The initial value (when power is turned on) is 0.
Query | Returns the mask pattern of ESER1.
Example | Command | :ESE1 64 Sets bit 6 of ESER1.
Query | :ESE1?
Response | :ESE1 64 (when HEADER ON) 64 (when HEADER OFF) Bit 6 of ESER1 are set to 1.
Note |  | For details on each of the bits, refer to "About Event Registers".

### Writing and reading event status enable register 2

Syntax | Command | :ESE2 <Mask value>
Query | :ESE2?
Response | <Mask value>
Parameter | <Mask value> = 0 to 255 (NR1)
Explanation | Command | Sets the mask pattern of ESER2. The initial value (when power is turned on) is 0.
Query | Returns the mask pattern of ESER2.
Example | Command | :ESE2 1 Sets bit 0 of ESER2.
Query | :ESE2?
Response | :ESE2 1 (when HEADER ON) 1 (when HEADER OFF) Bit 0 of ESER2 are set to 1.
Note |  | For details on each of the bits, refer to "About Event Registers".

### Writing and reading event status enable register 3

Syntax | Command | :ESE3 <Mask value>
Query | :ESE3?
Response | <Mask value>
Parameter | <Mask value> = 0 to 255 (NR1)
Explanation | Command | Sets the mask pattern of ESER3. The initial value (when power is turned on) is 0.
Query | Returns the mask pattern of ESER3.
Example | Command | :ESE3 3 Sets bit 1 and bit 0 of ESER3.
Query | :ESE3?
Response | :ESE3 3 (when HEADER ON) 3 (when HEADER OFF) Bit 1 and bit 0 of ESER3 are set to 1.
Note |  | For details on each of the bits, refer to "About Event Registers".

### Writing and reading event status enable register 4

Syntax | Command | :ESE4 <Mask value>
Query | :ESE4?
Response | <Mask value>
Parameter | <Mask value> = 0 to 255 (NR1)
Explanation | Command | Sets the mask pattern of ESER4. The initial value (when power is turned on) is 0.
Query | Returns the mask pattern of ESER4.
Example | Command | :ESE4 8 Sets bit 3 of ESER4.
Query | :ESE4?
Response | :ESE4 8 (when HEADER ON) 8 (when HEADER OFF) Bit 3 of ESER4 are set to 1.
Note |  | For details on each of the bits, refer to "About Event Registers".

### Reading event status register 0

Syntax | Command |
Query | :ESR0?
Response | <Register value>
Parameter | <Register value> = 0 to 255 (NR1)
Explanation | Command |
Query | Returns the register value of event status register 0 (ESR0), and clears the register. A header is not added to the response message.
Example | Command |
Query | :ESR0?
Response | 4 Bit 2 of ESR0 are set to 1.
Note |  | This register's bits are reset after 1 measurement completes. For details on each of the bits, refer to "About Event Registers".

### Reading event status register 1

Syntax | Command |
Query | :ESR1?
Response | <Register value>
Parameter | <Register value> = 0 to 255 (NR1)
Explanation | Command |
Query | Returns the register value of event status register 1 (ESR1), and clears the register. A header is not added to the response message.
Example | Command |
Query | :ESR1?
Response | 82 Bit 6, bit 4 and bit 1 of ESR1 are set to 1.
Note |  | When comparator measurement is performed in LCR mode, the bits are set after one measurement finishes. In the case of continuous measurement, the AND bit is set after continuous measurement finishes. For details on each of the bits, refer to "About Event Registers".

### Reading event status register 2

Syntax | Command |
Query | :ESR2?
Response | <Register value>
Parameter | <Register value> = 0 to 255 (NR1)
Explanation | Command |
Query | Returns the register value of event status register 2 (ESR2), and clears the register. A header is not added to the response message.
Example | Command |
Query | :ESR2?
Response | 1 Bit 0 of ESR2 are set to 1.
Note |  | When BIN measurement is performed in LCR mode, the bits are set after one measurement finishes. In continuous measurement mode, the bits are not set. For details on each of the bits, refer to "About Event Registers".

### Reading event status register 3

Syntax | Command |
Query | :ESR3?
Response | <Register value>
Parameter | <Register value> = 0 to 255 (NR1)
Explanation | Command |
Query | Returns the register value of event status register 3 (ESR3), and clears the register. A header is not added to the response message.
Example | Command |
Query | :ESR3?
Response | 64 Bit 6 of ESR3 are set to 1.
Note |  | When BIN measurement is performed in LCR mode, the bits are set after one measurement finishes. In continuous measurement mode, the bits are not set. For details on each of the bits, refer to "About Event Registers".

### Reading event status register 4

Syntax | Command |
Query | :ESR4?
Response | <Register value>
Parameter | <Register value> = 0 to 255 (NR1)
Explanation | Command |
Query | Returns the register value of event status register 3 (ESR3), and clears the register. A header is not added to the response message.
Example | Command |
Query | :ESR4?
Response | 64 Bit 6 of ESR4 are set to 1.
Note |  | When BIN measurement is performed in LCR mode, the bits are set after one measurement finishes. In continuous measurement mode, the bits are not set. For details on each of the bits, refer to "About Event Registers".

### Setting and querying measurement mode

Syntax | Command | :MODE <LCR/ANALyzer/CONTinuous>
Query | :MODE?
Response | <LCR/ANALyzer/CONTinuous>
Parameter |
Explanation | Command | Sets measurement mode. LCR : Sets measurement mode to LCR mode. ANALYZER : Sets measurement mode to ANALYZER mode. CONTINUOUS : Sets measurement mode to CONTINUOUS mode.
Query | Returns the setting of measurement mode.
Example | Command | :MODE CONTinuous Sets measurement mode to continuous.
Query | :MODE?
Response | :MODE CONTINUOUS (when HEADER ON) CONTINUOUS (when HEADER OFF) Measurement mode is set to continuous.
Note |  |

### Setting and querying the trigger mode

Syntax | Command | :TRIGger <INTernal/EXTernal>
Query | :TRIGger?
Response | <INTERNAL/EXTERNAL>
Parameter |
Explanation | Command | Sets the trigger mode. INTernal: Sets the internal trigger. EXTernal: Sets the external trigger.
Query | Returns the setting of the trigger mode.
Example | Command | :TRIGger INTernal Sets the trigger mode to the internal trigger.
Query | :TRIGger?
Response | :TRIGGER INTERNAL (when HEADER ON) INTERNAL (when HEADER OFF) The trigger mode is set to the internal trigger.
Note |  |

### Setting and querying the trigger delay time

Syntax | Command | :TRIGger:DELay <Trigger delay time>
Query | :TRIGger:DELay?
Response | <Trigger delay time>
Parameter | <Trigger delay time> = 0 to 9.99999 s (NR2)
Explanation | Command | Sets the trigger delay time.
Query | Returns the setting of the trigger delay time.
Example | Command | :TRIGger:DELay 0.1 Sets measurement to start when 100 ms elapses after trigger input.
Query | :TRIGger:DELay?
Response | :TRIGGER:DELAY 0.1000 (when HEADER ON) 0.1 (when HEADER OFF) Measurement is set to start when 100 ms elapses after trigger input.
Note |  | To set the trigger delay function to OFF, set to 0 s.

### Setting and querying the display parameters (# is a numerical value from 1 to 4)

Syntax | Command | :PARameter# <Z/ Y/ PHASE(phase angle)/ CS/ CP/ D/ LS/ LP/ Q/ RS/ G/ RP/ X/ B/ OFF>
Query | :PARameter#?
Response | <Z/ Y/ PHASE(phase angle)/ CS/ CP/ D/ LS/ LP/ Q/ RS/ G/ RP/ X/ B/ OFF>
Parameter |
Explanation | Command | Sets the display parameters
Query | Returns the settings of the display parameters.
Example | Command | :PARameter1 Z;:PARameter3 PHASE Sets the MAIN parameter to impedance, and the SUB parameter to phase angle.
Query | :PARameter3?
Response | :PARAMETER3 PHASE (when HEADER ON) PHASE (when HEADER OFF) The SUB parameter is set to phase angle.
Note |  | # is a numerical value from 1 to 4.

### Setting and querying number of display digits (# is a numerical value from 1 to 4)

Syntax | Command | :PARameter#:DIGit <Number of display digits>
Query | :PARameter#:DIGit?
Response | <Number of display digits>
Parameter | <Number of display digits> = 3 to 6 (NR1)
Explanation | Command | Sets the number of display digits of the parameters.
Query | Returns the number of display digits of the parameters.
Example | Command | :PARameter1:DIGit 3 Sets the number of display digits of the MAIN parameter to 3.
Query | :PARameter1:DIGit?
Response | :PARAMETER1:DIGIT 3 (when HEADER ON) 3 (when HEADER OFF) The number of display digits of the MAIN parameter is set to 3.
Note |  | # is a numerical value from 1 to 4.

### Setting of the absolute value display and queries

Syntax | Command | :PARameter:ABSolute <Z/Y/RS/RP/CS/CP/D/G/X/LS/LP/Q/B>, <ON/OFF>
Query | :PARameter:ABSolute? <Z/Y/RS/RP/CS/CP/D/G/X/LS/LP/Q/B>
Response | <ON/OFF>
Parameter |
Explanation | Command | Sets the display of the absolute measured value. ON: Displays the absolute value. OFF: Does not display the absolute value.
Query | Returns the display of the absolute measured value.
Example | Command | :PARameter:ABSolute Z, ON Sets the display of the absolute impedance value.
Query | :PARameter:ABSolute? Z
Response | :PARAMETER:ABSOLUTE ON (when HEADER ON) ON (when HEADER OFF) Sets to display the absolute impedance value.
Note |  |

### Setting and querying the trigger synchronous output function

Syntax | Command | :SSOurce <ON/OFF>
Query | :SSOurce?
Response | <ON/OFF>
Parameter |
Explanation | Command | Enables or disables the trigger synchronous output function. ON: Enables the trigger synchronous output function. OFF: Disables the trigger synchronous output function.
Query | Returns the setting of the trigger synchronous output function.
Example | Command | :SSOurce ON Enables the trigger synchronous output function.
Query | :SSOurce?
Response | :SSOURCE ON (when HEADER ON) ON (when HEADER OFF) The trigger synchronous output function is enabled.
Note |  |

### Setting and querying the wait time of trigger synchronous output

Syntax | Command | :SSOurce:WAIT <Wait time>
Query | :SSOurce:WAIT?
Response | <Wait time>
Parameter | <Trigger delay time> = 0.00000 to 9.99999 s (NR2)
Explanation | Command | Sets the wait time for the period from after the measurement signal is output by applying a trigger until measurement starts.
Query | Returns the wait time of the trigger synchronous output function.
Example | Command | :SSOurce:WAIT 0.50000 Sets the wait time for the period from after the trigger is applied until measurement starts to 500 ms.
Query | :SSOurce:WAIT?
Response | :SSOURCE:WAIT 0.50000 (when HEADER ON) 0.5 (when HEADER OFF) The wait time for the period from after the trigger is applied until measurement starts is set to 500 ms.
Note |  | A short wait time may result in an increase in measurement errors.

### Setting of the delay time from when the signal is turned OFF until INDEX is turned ON and queries

Syntax | Command | :SSOurce:INDEX <Wait time>
Query | :SSOurce:INDEX?
Response | <Wait time>
Parameter | <Wait time> = 0.00000 to 0.10000 s (NR2)
Explanation | Command | Sets the delay time from when the signal is turned OFF until INDEX is turned ON.
Query | Returns the delay time from when the signal is turned OFF until INDEX is turned ON.
Example | Command | :SSOurce:INDEX 0.00100 Sets the INDEX delay time to 0.001 s.
Query | :SSOurce:INDEX?
Response | :SSOURCE:INDEX 0.00100 (when HEADER ON) 0.001 (when HEADER OFF) The INDEX delay time is set to 0.001 s.
Note |  |

### Setting and querying the Measurement Frequency

Syntax | Command | :FREQuency LCR mode: <Frequency> Analyzer mode:<Sweep point>,<Frequency>
Query | :FREQuency? LCR mode: None Analyzer mode:<Sweep point>
Response | <Frequency>
Parameter | <Sweep point No.> = 1 to 801 (NR1) <Frequency> = 1.0000E+06 to 300.00E+06 (NR3)
Explanation | Command | Sets the measurement frequency. Sets all sweep points when the sweep point No. is omitted in the analyzer mode.
Query | Returns the setting of the measurement frequency.
Example | Command | :FREQuency 8, 1E6 Sets the measurement frequency to 1 MHz.
Query | :FREQuency? 8
Response | :FREQUENCY 1.0000E+06 (when HEADER ON) 1000000 (when HEADER OFF) The measurement frequency is set to 1 MHz.
Note |  |

### Setting and querying the measurement signal level

Syntax | Command | :LEVel <P/V/I>
Query | :LEVel?
Response | <P/V/I>
Parameter |
Explanation | Command | Sets the measurement signal type to any one of open-circuit voltage, constant voltage, and constant current. P: Sets power mode. V: Sets voltage mode. I: Sets current mode.
Query | Returns the measurement signal type.
Example | Command | :LEVel V Sets the measurement signal type to V (voltage mode).
Query | :LEVel?
Response | :LEVEL V (when HEADER ON) V (when HEADER OFF) The measurement signal type is set to V (voltage mode).
Note |  |

### Setting of the power level value and queries

Syntax | Command | :LEVel:POWer LCR mode: <power level>/ analyzer mode: <sweep point No.>, <power level>
Query | :LEVel:POWer? LCR mode: none/ analyzer mode: <sweep point No.>
Response | <Power level>
Parameter | <Sweep point No.> = 1 to 801 (NR1) <Power level> = -40.0 to 7.0 (NR3)
Explanation | Command | Sets the power level. Sets all sweep points when the sweep point No. is omitted in the analyzer mode.
Query | Returns the current power level setting.
Example | Command | :LEVel:POWer 1.0 Sets the power level to 1 dBm.
Query | :LEVel:POWer?
Response | :LEVEL:POWER 1.0 (when HEADER ON) 1 (when HEADER OFF) The power level is set to 1 dBm.
Note |  | When a power level value outside the range is specified, the value is rounded up to the limit value within the setting range. An error does not occur.

### Setting of the voltage level value and queries

Syntax | Command | :LEVel:VOLTage LCR mode: <voltage level>/ analyzer mode: <sweep point No.>, <power level>
Query | :LEVel:VOLTage? LCR mode: none/ analyzer mode: <sweep point No.>
Response | <Voltage level>
Parameter | <Sweep point No.> = 1 to 801 (NR1) <Voltage level> = 0.004 to 1.001 (NR3)
Explanation | Command | Sets the voltage level. Sets all sweep points when the sweep point No. is omitted in the analyzer mode.
Query | Returns the current voltage level setting.
Example | Command | :LEVel:VOLTage 1.000 Sets the voltage level to 1 V.
Query | :LEVel:VOLTage?
Response | :LEVEL:VOLTAGE 1.000 (when HEADER ON) 1 (when HEADER OFF) The voltage level is set to 1 V.
Note |  | When a voltage level value outside the range is specified, the value is rounded up to the limit value within the setting range. An error does not occur.

### Setting of the current level value and queries

Syntax | Command | :LEVel:CURRent LCR mode: <current level>/ analyzer mode: <sweep point No.>, <current level>
Query | :LEVel:CURRent? LCR mode: none/ analyzer mode: <sweep point No.>
Response | <Current level>
Parameter | <Sweep point No.> = 1 to 801 (NR1) <Current level> = 0.09E-3 to 20.02E-3 (NR3)
Explanation | Command | Sets the current level. Sets all sweep points when the sweep point No. is omitted in the analyzer mode.
Query | Returns the present current level setting.
Example | Command | :LEVel:CCURRent 10E-3 Sets the current level at 10 mA.
Query | :LEVel:CCURRent?
Response | :LEVEL:CCURRENT 10.00E-03 (when HEADER ON) 0.01 (when HEADER OFF) The current level is set to 10 mA.
Note |  | When the current level value outside the range is specified, the value is rounded up to the limit value within the setting range. An error does not occur.

### Setting of the measurement speed and queries

Syntax | Command | :SPEEd LCR mode: <FAST/MEDium/SLOW/SLOW2/CUSTom>/ analyzer mode: <sweep point No.>, <FAST/MEDium/SLOW/SLOW2/CUSTom>
Query | :SPEEd? LCR mode: none/ analyzer mode: <sweep point No.>
Response | <FAST/MEDIUM/SLOW/SLOW2/CUSTOM>
Parameter | <Sweep point No.> = 1 to 801 (NR1)
Explanation | Command | Sets the measurement speed. When the sweep points are omitted in the analyzer mode, the speed is set for all sweep points.
Query | Returns the setting of the measurement speed.
Example | Command | :SPEEd MEDium Sets the measurement speed to medium.
Query | :SPEEd?
Response | :SPEED MEDIUM (when HEADER ON) MEDIUM (when HEADER OFF) The measurement speed is set to medium.
Note |  |

### Setting of the measurement speed when the measurement speed is custom and queries

Syntax | Command | :SPEEd:WAVE LCR mode: <number of waveforms>/ analyzer mode: <sweep point No.>, <number of waveforms>
Query | :SPEEd:WAVE?
Response | <Number of waveforms>
Parameter | <Sweep point No.> = 1 to 801 (NR1) <Number of waveforms> = 8 to 87 (NR1)
Explanation | Command | Sets the measurement speed using the number of waveforms. When the sweep points are omitted in the analyzer mode, the number of waveforms is set for all sweep points.
Query | Returns the setting of the measurement speed with the number of waveforms.
Example | Command | :SPEEd:WAVE 8 Sets the number of waveforms of the measurement speed to 8.
Query | :SPEEd:WAVE?
Response | :SPEED:WAVE 8 (when HEADER ON) 8 (when HEADER OFF) The number of waveforms of the measurement speed is set to 8.
Note |  |

### Setting of the measurement average and queries

Syntax | Command | :AVERaging LCR mode: <OFF/number of averaging times>/ analyzer mode: <sweep point No.>, <OFF/number of averaging times>
Query | :AVERaging?
Response | <OFF/number of averaging times>
Parameter | <Number of averaging times> = 1 to 256 (NR1) <Sweep point No.> = 1 to 801 (NR1)
Explanation | Command | Sets the number of measurement averaging times. ? ?OFF: Disables the averaging function. Sets all sweep points when the sweep point No. is omitted in the analyzer mode.
Query | Returns the number of measurement averaging times.
Example | Command | :AVERaging 32 Sets the number of averaging times to 32.
Query | :AVERaging?
Response | :AVERAGING 32 (when HEADER ON) 32 (when HEADER OFF) The number of averaging times is set to 32.
Note |  | When the number of averaging times is set to 1, the averaging function is automatically turned OFF. When the number of averaging times is set to 2 to 256, the averaging function is automatically turned ON. When the sweep point No. is omitted for setting in the analyzer mode, the specified number of averaging times are set to all points. In addition, when the sweep point No. is omitted for the query, the number of averaging times for the 1st point is returned.

### Setting and querying the judgment function

Syntax | Command | :JUDGment <NORMal/COMParator/BIN>
Query | :JUDGment?
Response | <NORMAL/COMPARATOR/BIN>
Parameter |
Explanation | Command | Sets the judgment function.
Query | Returns the setting of the judgment function.
Example | Command | :JUDGment COMParator Sets the judgment function to the comparator measurement.
Query | :JUDGment?
Response | :JUDGMENT COMPARATOR (when HEADER ON) COMPARATOR (when HEADER OFF) The judgment function is set to the comparator measurement.
Note |  |

### Setting and querying ON/ OFF of comparator function

Syntax | Command | :COMParator <OFF/ON>
Query | :COMParator?
Response | <OFF/ON>
Parameter |
Explanation | Command | Sets the comparator function. OFF: Disables the comparator function. ON: Enables the comparator function.
Query | Returns the setting of the comparator function.
Example | Command | :COMParator ON Sets the comparator function to ON.
Query | :COMParator?
Response | :COMPARATOR ON (when HEADER ON) ON (when HEADER OFF) The comparator function is set to ON.
Note |  | Sending the :COMParator ON command during BIN measurement automatically ends BIN measurement and starts comparator measurement.

### Setting and querying the upper and lower limit values of the MAIN parameter of the comparator function (absolute value mode)

Syntax | Command | :COMParator:FLIMit:ABSolute <OFF/ lower value>,<OFF/ upper value>
Query | :COMParator:FLIMit:ABSolute?
Response | <OFF/ lower value>, <OFF/ upper value>
Parameter | <Lower limit values> = -9.99999E+09 to +9.99999E+09 (NR3) <Upper limit values> = -9.99999E+09 to +9.99999E+09 (NR3)
Explanation | Command | Sets the upper and lower limit values of the MAIN parameter in absolute mode.
Query | Returns the upper and lower limit values of the MAIN parameter in absolute mode.
Example | Command | :COMParator:FLIMit:ABSolute 234.560E-06,1.23456 Sets the lower and upper limit values of the MAIN parameter in absolute value mode to 0.23456E-03 and 1.23456, respectively.
Query | :COMParator:FLIMit:ABSolute?
Response | :COMPARATOR:FLIMIT:ABSOLUTE 234.560E-06, 1.23456E+00 (when HEADER ON) 234.560E-06, 1.23456E+00 (when HEADER OFF) The lower and upper limit values of the MAIN parameter in absolute value mode are set to 0.23456E-03 and 1.23456, respectively.
Note |  | The instrument stores the upper and lower limit values for absolute mode and those for percentage (%) mode separately. The reference value and upper and lower limit values are common to percentage (%) mode and deviation percentage (ĸ%) mode.

### Setting and querying the reference value and the upper and lower limit values of the MAIN parameter of the comparator function (deviation percentage (ĸ%) mode)

Syntax | Command | :COMParator:FLIMit:DEViation <Reference value>,<OFF/ Lower limit values>,<OFF/ Upper limit values>
Query | :COMParator:FLIMit:DEViation?
Response | <Reference value>,<OFF/ lower value>,<OFF/ upper value>
Parameter | <Reference value> = -9.99999E+09 to +9.99999E+09 (NR3) <Lower limit values> = -999.999% to +999.999% (NR2) <Upper limit values> = -999.999% to +999.999% (NR2)
Explanation | Command | Sets the reference value and upper and lower limit values of the MAIN parameter in deviation percentage (ĸ%) mode.
Query | Returns the reference value and upper and lower limit values of the MAIN parameter in deviation percentage (ĸ%) mode.
Example | Command | :COMParator:FLIMit:DEViation 1.23456E-6,-10.000,10.000 Sets the reference value and the lower and upper limit values of the MAIN parameter in deviation percentage (ĸ%) mode to 1.23456E-6, -10%, and 10%, respectively.
Query | :COMParator:FLIMit:DEViation?
Response | :COMPARATOR:FLIMIT:DEVIATION 1.23456E-06,-10.000,10.000 (when HEADER ON) 1.23456E-06,-10.000,10.000 (when HEADER OFF) The reference value and the lower and upper limit values of the MAIN parameter in deviation percentage (ĸ%) mode are set to 1.23456E-6, -10%, and 10%, respectively.
Note |  | The instrument stores the upper and lower limit values for absolute mode and those for deviation percentage (ĸ%) mode separately. The reference value and upper and lower limit values are common to percentage (%) mode and deviation percentage (ĸ%) mode. 0 cannot be set as a reference value.

### Setting and querying the judgment mode of the MAIN parameter of the comparator function

Syntax | Command | :COMParator:FLIMit:MODE <ABSolute/PERcent/DEViation>
Query | :COMParator:FLIMit:MODE?
Response | <ABSOLUTE/PERCENT/DEVIATION>
Parameter |
Explanation | Command | Sets the mode of the MAIN parameter. ABSolute: Sets the mode to absolute (ABS) mode. PERcent: Sets the mode to percentage (%) mode. DEViation: Sets the mode to deviation percentage (ĸ%) mode.
Query | Returns the mode of the MAIN parameter.
Example | Command | :COMParator:FLIMit:MODE PERcent Selects percentage (%) mode.
Query | :COMParator:FLIMit:MODE?
Response | :COMPARATOR:FLIMIT:MODE PERCENT (when HEADER ON) PERCENT (when HEADER OFF) The mode is set to percentage (%) mode.
Note |  |

### Setting and querying the reference value and the upper and lower limit values of the MAIN parameter of the comparator function (percentage (%) mode)

Syntax | Command | :COMParator:FLIMit:PERcent <Reference value>,<OFF/ Lower limit values>,<OFF/ Upper limit values>
Query | :COMParator:FLIMit:PERcent?
Response | <Reference value>,<OFF/ lower value>,<OFF/ upper value>
Parameter | <Reference value> = -9.99999E+09 to +9.99999E+09 (NR3) <Lower limit values> = -999.999% to +999.999% (NR2) <Upper limit values> = -999.999% to +999.999% (NR2)
Explanation | Command | Sets the reference value and upper and lower limit values of the MAIN parameter in percentage (%) mode.
Query | Returns the reference value and upper and lower limit values of the MAIN parameter in percentage (%) mode.
Example | Command | :COMParator:FLIMit:PERcent 1.23456E-6,-10.000,10.000 Sets the reference value and the lower and upper limit values of the MAIN parameter in percentage (%) mode to 1.23456E-06, -10%, and 10%, respectively.
Query | :COMParator:FLIMit:PERcent?
Response | :COMPARATOR:FLIMIT:PERCENT 1.23456E-06,-10.000,10.000 (when HEADER ON) 1.23456E-06,-10.000,10.000 (when HEADER OFF) The reference value and the lower and upper limit values of the MAIN parameter in percentage (%) mode are set to 1.23456E-06, -10%, and 10%, respectively.
Note |  | The instrument stores the upper and lower limit values for absolute mode and those for percentage (%) mode separately. The reference value and upper and lower limit values are common to percentage (%) mode and deviation percentage (ĸ%) mode. 0 cannot be set as a reference value.

### Setting and querying the upper and lower limit values of the SUB parameter of the comparator function (absolute value mode)

Syntax | Command | :COMParator:SLIMit:ABSolute <OFF/ lower value>,<OFF/ upper value>
Query | :COMParator:SLIMit:ABSolute?
Response | <OFF/ lower limit values>,<OFF/ upper limit values>
Parameter | <Lower limit values> = -9.99999E+09 to +9.99999E+09 (NR3) <Upper limit values> = -9.99999E+09 to +9.99999E+09 (NR3)
Explanation | Command | Sets the upper and lower limit values of the SUB parameter in absolute mode.
Query | Returns the upper and lower limit values of the SUB parameter in absolute mode.
Example | Command | :COMParator:SLIMit:ABSolute 234.560E-06,1.23456 Sets the lower and upper limit values of the SUB parameter in absolute value mode to 0.23456E-03 and 1.23456, respectively.
Query | :COMParator:SLIMit:ABSolute?
Response | :COMPARATOR:SLIMIT:ABSOLUTE 234.560E-06, 1.23456E+00 (when HEADER ON) 234.560E-06, 1.23456E+00 (when HEADER OFF) The lower and upper limit values of the SUB parameter in absolute value mode are set to 0.23456E-03 and 1.23456, respectively.
Note |  | The instrument stores the upper and lower limit values for absolute mode and those for percentage (%) mode separately. The reference value and upper and lower limit values are common to percentage (%) mode and deviation percentage ĸ%) mode.

### Setting and querying the reference value and the upper and lower limit values of the SUB parameter of the comparator function (deviation percentage (ĸ%) mode)

Syntax | Command | :COMParator:SLIMit:DEViation <Reference value>,<OFF/ Lower limit values>,<OFF/ Upper limit values>
Query | :COMParator:SLIMit:DEViation?
Response | <Reference value>,<OFF/ lower value>,<OFF/ upper value>
Parameter | <Reference value> = -9.99999E+09 to +9.99999E+09 (NR3) <Lower limit values> = -999.999% to +999.999% (NR2) <Upper limit values> = -999.999% to +999.999% (NR2)
Explanation | Command | Sets the reference value and upper and lower limit values of the SUB parameter in deviation percentage (ĸ%) mode.
Query | Returns the reference value and upper and lower limit values of the SUB parameter in deviation percentage (ĸ%) mode.
Example | Command | :COMParator:SLIMit:DEViation 1.23456E-6,-10.000,10.000 Sets the reference value and the lower and upper limit values of the SUB parameter in deviation percentage (ĸ%) mode to 1.23456E-6, -10%, and 10%, respectively.
Query | :COMParator:SLIMit:DEViation?
Response | :COMPARATOR:SLIMIT:DEVIATION 1.23456E-06,-10.000,10.000 (when HEADER ON) 1.23456E-06,-10.000,10.000 (when HEADER OFF) The reference value and the lower and upper limit values of the MAIN parameter in deviation percentage (ĸ%) mode are set to 1.23456E-6, -10%, and 10%, respectively.
Note |  | The instrument stores the upper and lower limit values for absolute mode and those for deviation percentage (ĸ%) mode separately. The reference value and upper and lower limit values are common to percentage (%) mode and deviation percentage (ĸ%) mode. 0 cannot be set as a reference value.

### Setting and querying the judgment mode of the SUB parameter of the comparator function

Syntax | Command | :COMParator:SLIMit:MODE <ABSolute/PERcent/DEViation>
Query | :COMParator:SLIMit:MODE?
Response | <ABSOLUTE/PERCENT/DEVIATION>
Parameter |
Explanation | Command | Sets the mode of the SUB parameter. ABSolute: Sets the mode to absolute (ABS) mode. PERcent: Sets the mode to percentage (%) mode. DEViation: Sets the mode to deviation percentage (ĸ%) mode.
Query | Returns the mode of the SUB parameter.
Example | Command | :COMParator:SLIMit:MODE PERcent Selects percentage (%) mode.
Query | :COMParator:SLIMit:MODE?
Response | :COMPARATOR:SLIMIT:MODE PERCENT (when HEADER ON) PERCENT (when HEADER OFF) The mode is set to percentage (%) mode.
Note |  |

### Setting and querying the reference value and the upper and lower limit values of the SUB parameter of the comparator function (percentage mode)

Syntax | Command | :COMParator:SLIMit:PERcent <Reference value>,<OFF/ Lower limit values>,<OFF/ Upper limit values>
Query | :COMParator:SLIMit:PERcent?
Response | <Reference value>,<OFF/ lower value>,<OFF/ upper value>
Parameter | <Reference value> = -9.99999E+09 to +9.99999E+09 (NR3) <Lower limit values> = -999.999% to +999.999% (NR2) <Upper limit values> = -999.999% to +999.999% (NR2)
Explanation | Command | Sets the reference value and upper and lower limit values of the SUB parameter in percentage (%) mode.
Query | Returns the reference value and upper and lower limit values of the SUB parameter in percentage (%) mode.
Example | Command | :COMParator:SLIMit:PERcent 1.23456E-6,-10.000,10.000 Sets the reference value and the lower and upper limit values of the SUB parameter in percentage (%) mode to 1.23456E-6, -10%, and 10%, respectively.
Query | :COMParator:SLIMit:PERcent?
Response | :COMPARATOR:SLIMIT:PERCENT 1.23456E-06,-10.000,10.000 (when HEADER ON) 1.23456E-06,-10.000,10.000 (when HEADER OFF) The reference value and the lower and upper limit values of the SUB parameter in percentage (%) mode are set to 1.23456E-6, -10%, and 10%, respectively.
Note |  | The instrument stores the upper and lower limit values for absolute mode and those for percentage (%) mode separately. The reference value and upper and lower limit values are common to percentage (%) mode and deviation percentage (ĸ%) mode.

### Setting of the upper and lower limit values of the comparator function and queries (absolute mode)

Syntax | Command | :COMParator:ABSolute <Parameter number>, <OFF/lower limit value>, <OFF/upper limit value>
Query | :COMParator:ABSolute? <Parameter number>
Response | <OFF/lower limit value>, <OFF/upper limit value>
Parameter | <Parameter number> = 1 to 4 (NR1) <Lower limit values> = -9.99999E+09 to +9.99999E+09 (NR3) <Upper limit values> = -9.99999E+09 to +9.99999E+09 (NR3)
Explanation | Command | Sets the upper and lower limit values of the specified parameter in the absolute value mode.
Query | Returns the setting of the upper and lower limit values of the specified parameter in the absolute value mode.
Example | Command | :COMParator:ABSolute 1,234.560E-06,1.23456 Sets the upper and lower limit values of the 1st parameter in the absolute value mode to 1.23456 and 234.560E-06, respectively.
Query | :COMParator:ABSolute? 1
Response | :COMPARATOR:ABSOLUTE 234.560E-06, 1.23456E+00 (when HEADER ON) 234.560E-06, 1.23456E+00 (when HEADER OFF) The upper and lower limit values of the 1st parameter in the absolute value mode are set to 1.23456 and 234.560E-06, respectively.
Note |  | The instrument stores the upper and lower limit values for the absolute mode and those for percentage (%) mode separately. ?The reference, upper, and lower limit values are common to percentage (%) mode and deviation percentage (ĸ%) mode.

### Setting of the reference, upper, and lower limit values of the comparator function (deviation percentage (ĸ%) mode) and queries

Syntax | Command | :COMParator:DEViation <Parameter number>, <reference value>, <OFF/lower limit value>, <OFF/upper limit value>
Query | :COMParator:DEViation? <Parameter number>
Response |
Parameter | <Parameter number> = 1 to 4 (NR1) <Reference values> = -9.99999E+09 to +9.99999E+09 (NR3) <Lower limit values> = -999.999% to +999.999% (NR2) <Upper limit values> = -999.999% to +999.999% (NR2)
Explanation | Command | Sets the reference, upper, and lower limit values of the specified parameter for the deviation percentage (ĸ%) mode.
Query | Returns the reference, upper, and lower limit values of the specified parameter for the deviation percentage (ĸ%) mode.
Example | Command | :COMParator:DEViation 1,1.23456E-6,-10.000,10.000 Sets the reference, upper, and lower limit values of the 1st parameter for the deviation percentage (ĸ%) mode to 1.23456E-6, 10% and -10%, respectively.
Query | :COMParator:DEViation? 1
Response | :COMPARATOR:DEVIATION 1.23456E-6,-10.000,10.000 (when HEADER ON) 1.23456E-6,-10.000,10.000 (when HEADER OFF) The reference, upper, and lower limit values of the 1st parameter in the deviation percentage (ĸ%) mode are set to 1.23456E-6, 10% and -10%, respectively.
Note |  | The instrument stores the upper and lower limit values for the absolute mode and deviation percentage (ĸ%) mode separately. ?The reference, upper, and lower limit values are common to percentage (%) mode and deviation percentage (ĸ%) mode. 0 cannot be set for the reference value.

### Setting of the judgment mode for the comparator function and queries

Syntax | Command | :COMParator:MODE <Parameter number>, <ABSolute/PERcent/DEViation>
Query | :COMParator:MODE? <Parameter number>
Response | <ABSOLUTE/PERCENT/DEVIATION>
Parameter | <Parameter number> = 1 to 4 (NR1)
Explanation | Command | Sets the mode for the specified parameter. ABSolute: Sets to the absolute (ABS) mode. PERcent: Sets to the percentage (%) mode. DEViation: Sets to the deviation percentage (ĸ%) mode.
Query | Returns the mode for the specified parameter.
Example | Command | :COMParator:MODE 1,PERcent Sets the 1st parameter to the percentage (%) mode.
Query | :COMParator:MODE? 1
Response | :COMPARATOR:MODE PERCENT (when HEADER ON) PERCENT (when HEADER OFF) The 1st parameter is set to the percentage (%) mode.
Note |  |

### Setting of the reference, upper, and lower limit values of the comparator function (percentage (%) mode) and queries

Syntax | Command | :COMParator:PERcent <Parameter number>, <reference value>, <OFF/lower limit value>, <OFF/upper limit value>
Query | :COMParator:PERcent? <Parameter number>
Response | <Reference value>, <OFF/lower limit value>,<OFF/upper limit value>
Parameter | <Parameter number> = 1 to 4 (NR1) <Reference values> = -9.99999E+09 to +9.99999E+09 (NR3) <Lower limit values> = -999.999% to +999.999% (NR2) <Upper limit values> = -999.999% to +999.999% (NR2)
Explanation | Command | Sets the reference, upper, and lower limit values of the specified parameter for the percentage (%) mode.
Query | Returns the reference, upper, and lower limit values of the specified parameter for the percentage (%) mode.
Example | Command | :COMParator:PERcent 1,1.23456E-6,-10.000,10.000 Sets the reference, upper, and lower limit values of the 1st parameter in percentage (%) mode to 1.23456E-6, 10% and -10%, respectively.
Query | :COMParator:PERcent? 1
Response | :COMPARATOR:FLIMIT:PERCENT 1.23456E-06,-10.000,10.000 (when HEADER ON) 1.23456E-06,-10.000,10.000 (when HEADER OFF) The reference, upper, and lower limit values of the 1st parameter in percentage (%) mode are set to 1.23456E-6, 10% and -10%, respectively.
Note |  | The instrument stores the upper and lower limit values for the absolute mode and those for percentage (%) mode separately. ?The reference, upper, and lower limit values are common to percentage (%) mode and deviation percentage (ĸ%) mode. 0 cannot be set for the reference value.

### Setting of the judgment procedure when the measured value of the comparator function is outside the guaranteed accuracy and queries

Syntax | Command | :COMParator:JUDGment <DO/NOT>
Query | :COMParator:JUDGment?
Response | <DO/NOT>
Parameter |
Explanation | Command | Sets the judgment procedure when the measured value of the comparator function is outside the guaranteed accuracy. DO: Performs judgment even when the measured value is outside the guaranteed accuracy. NOT: Outputs an error for the HI judgment when the measured value is outside the guaranteed accuracy.
Query | Returns the setting of the judgment procedure when the measured value is outside the guaranteed accuracy.
Example | Command | :COMParator:JUDGment DO Sets to perform a judgment when the measured value is outside the guaranteed accuracy.
Query | :COMParator:JUDGment?
Response | :COMPARATOR:JUDGMENT DO (when HEADER ON) DO (when HEADER OFF) It is set to perform a judgment when the measured value is outside the guaranteed accuracy.
Note |  |

### Setting and querying ON/ OFF of BIN function

Syntax | Command | :BIN <OFF/ON>
Query | :BIN?
Response | <OFF/ON>
Parameter |
Explanation | Command | Sets the BIN measurement function. OFF: Disables the BIN function. ON: Enables the BIN function.
Query | Returns ON or OFF for the BIN measurement function.
Example | Command | :BIN ON Sets the BIN measurement function to ON.
Query | :BIN?
Response | :BIN ON (when HEADER ON) ON (when HEADER OFF) The BIN measurement function is set to ON.
Note |  | Sending the :BIN ON command during comparator measurement automatically ends comparator measurement and starts BIN measurement.

### Setting and querying the upper and lower limit values of the MAIN parameter of the BIN function (absolute value mode)

Syntax | Command | :BIN:FLIMit:ABSolute <BIN number>,<OFF/ lower value>,<OFF/ upper value>
Query | :BIN:FLIMit:ABSolute? <BIN number>
Response | <OFF/ lower value>, <OFF/ upper value>
Parameter | <BIN number> = 1 to 10 <Lower limit values> = -9.99999E+09 to +9.99999E+09 (NR3) <Upper limit values> = -9.99999E+09 to +9.99999E+09 (NR3)
Explanation | Command | Sets the upper and lower limit values of the MAIN parameter in absolute value mode of the specified BIN number.
Query | Returns the setting of the upper and lower limit values of the MAIN parameter in absolute value mode of the specified BIN number.
Example | Command | :BIN:FLIMit:ABSolute 1,234.560E-06,1.23456 Sets the lower and upper limit values of the MAIN parameter in absolute value mode of BIN1 to 234.560E-06 and 1.23456, respectively.
Query | :BIN:FLIMit:ABSolute? 1
Response | :BIN:FLIMIT:ABSOLUTE 234.560E-06,1.23456E+00 (when HEADER ON) 234.560E-06,1.23456E+00 (when HEADER OFF) The lower and upper limit values of the MAIN parameter in absolute value mode of BIN1 are set to 234.560E-06 and 1.23456, respectively.
Note |  | The instrument stores the upper and lower limit values for absolute mode and those for percentage (%) mode separately. The reference value and upper and lower limit values are common to percentage (%) mode and deviation percentage (ĸ%) mode.

### Setting and querying the upper and lower limit values of the MAIN parameter of the BIN function (deviation percentage (ĸ%) mode)

Syntax | Command | :BIN:FLIMit:DEViation <BIN number>,<OFF/ lower value>,<OFF/ upper value>
Query | :BIN:FLIMit:DEViation? <BIN number>
Response | <OFF/ lower value>, <OFF/ upper value>
Parameter | <BIN number> = 1 to 10 <Lower limit values> = -999.999% to +999.999% (NR2) <Upper limit values> = -999.999% to +999.999% (NR2)
Explanation | Command | Sets the upper and lower limit values of the MAIN parameter in deviation percentage (ĸ%) mode of the specified BIN number.
Query | Returns the setting of the upper and lower limit values of the MAIN parameter in deviation percentage (ĸ%) mode of the specified BIN number.
Example | Command | :BIN:FLIMit:DEViation 1,-10.000,10.000 Sets the lower and upper limit values of the MAIN parameter in deviation percentage (ĸ%) mode of BIN1 to -10% and 10%, respectively.
Query | :BIN:FLIMit:DEViation? 1
Response | :BIN:FLIMIT:DEVIATION -10.000,10.000 (when HEADER ON) -10.000,10.000 (when HEADER OFF) The lower and upper limit values of the MAIN parameter in deviation percentage (ĸ%) mode of BIN1 are set to -10% and 10%, respectively.
Note |  | The instrument stores the upper and lower limit values for absolute mode and those for deviation percentage (ĸ%) mode separately. The reference value and upper and lower limit values are common to percentage (%) mode and deviation percentage (ĸ%) mode.

### Selecting and querying the mode of the MAIN parameter of the BIN function

Syntax | Command | :BIN:FLIMit:MODE <ABSolute/PERcent/DEViation>
Query | :BIN:FLIMit:MODE?
Response | <ABSOLUTE/PERCENT/DEVIATION>
Parameter |
Explanation | Command | Sets the mode of the MAIN parameter. ABSolute: Sets the mode to absolute (ABS) mode. PERcent: Sets the mode to percentage (%) mode. DEViation: Sets the mode to deviation percentage (ĸ%) mode.
Query | Returns the mode of the MAIN parameter.
Example | Command | :BIN:FLIMit:MODE PERcent Selects percentage (%) mode.
Query | :BIN:FLIMit:MODE?
Response | :BIN:FLIMIT:MODE PERCENT (when HEADER ON) PERCENT (when HEADER OFF) The mode is set to percentage (%) mode.
Note |  |

### Setting and querying the upper and lower limit values of the MAIN parameter of the BIN function (percentage (%) mode)

Syntax | Command | :BIN:FLIMit:PERcent <BIN number>,<OFF/ lower value>,<OFF/ upper value>
Query | :BIN:FLIMit:PERcent? <BIN number>
Response | <OFF/ lower value>, <OFF/ upper value>
Parameter | <BIN number> = 1 to 10 <Lower limit values> = -999.999% to +999.999% (NR2) <Upper limit values> = -999.999% to +999.999% (NR2)
Explanation | Command | Sets the upper and lower limit values of the MAIN parameter in percentage (%) mode of the specified BIN number.
Query | Returns the upper and lower limit values of the MAIN parameter in percentage (%) mode of the specified BIN number.
Example | Command | :BIN:FLIMit:PERcent 1,-10.000,10.000 Sets the lower and upper limit values of the MAIN parameter in percentage (%) mode of BIN1 to -10% and 10%, respectively.
Query | :BIN:FLIMit:PERcent? 1
Response | :BIN:FLIMIT:PERCENT -10.000,10.000 (when HEADER ON) -10.000,10.000 (when HEADER OFF) The lower and upper limit values of the MAIN parameter in percentage (%) mode of BIN1 are set to -10% and 10%, respectively.
Note |  | The instrument stores the upper and lower limit values for absolute mode and those for percentage (%) mode separately. The reference value and upper and lower limit values are common to percentage (%) mode and deviation percentage (ĸ%) mode.

### Setting and querying the reference value of the MAIN parameter of the BIN function (percentage (%) mode and deviation percentage (ĸ%) mode)

Syntax | Command | :BIN:FLIMit:REFerence <Reference value>
Query | :BIN:FLIMit:REFerence?
Response | <Reference value>
Parameter | <Reference value> = -9.99999E+09 to +9.99999E+09 (NR3)
Explanation | Command | Sets the reference value of the MAIN parameter in percentage (%) mode or deviation percentage (ĸ%) mode.
Query | Returns the reference value of the MAIN parameter in percentage (%) mode or deviation percentage (ĸ%) mode.
Example | Command | :BIN:FLIMit:REFerence 1.23456E-6 Sets the reference value of the MAIN parameter in percentage (%) mode or deviation percentage (ĸ%) mode to 1.23456E-6.
Query | :BIN:FLIMit:REFerence?
Response | :BIN:FLIMIT:REFERENCE 1.23456E-06 (when HEADER ON) 1.23456E-06 (when HEADER OFF) The reference value of the MAIN parameter in percentage (%) mode or deviation percentage (ĸ%) mode is set to 1.23456E-6.
Note |  | The reference value is common to percentage (%) mode and deviation percentage (ĸ%) mode. 0 cannot be set as a reference value.

### Setting and querying the upper and lower limit values of the SUB parameter of the BIN function (absolute value mode)

Syntax | Command | :BIN:SLIMit:ABSolute <BIN number>,<OFF/ lower value>,<OFF/ upper value>
Query | :BIN:SLIMit:ABSolute? <BIN number>
Response | <OFF/ lower value>, <OFF/ upper value>
Parameter | <BIN number> = 1 <Lower limit values> = -9.99999E+09 to +9.99999E+09 (NR3) <Upper limit values> = -9.99999E+09 to +9.99999E+09 (NR3)
Explanation | Command | Sets the upper and lower limit values of the SUB parameter in absolute value mode of the specified BIN number.
Query | Returns the setting of the upper and lower limit values of the SUB parameter in absolute value mode of the specified BIN number.
Example | Command | :BIN:SLIMit:ABSolute 1,234.560E-06,1.23456 Sets the lower and upper limit values of the SUB parameter in absolute value mode of BIN1 to 234.560E-06 and 1.23456, respectively.
Query | :BIN:SLIMit:ABSolute? 1
Response | :BIN:SLIMIT:ABSOLUTE 234.560E-06, 1.23456E+00 (when HEADER ON) 234.560E-06, 1.23456E+00 (when HEADER OFF) The lower and upper limit values of the SUB parameter in absolute value mode of BIN1 are set to 234.560E-06 and 1.23456, respectively.
Note |  | The instrument stores the upper and lower limit values for absolute mode and those for percentage (%) mode separately. The reference value and upper and lower limit values are common to percentage (%) mode and deviation percentage (ĸ%) mode. Enter 1 for the BIN number.

### Setting and querying the upper and lower limit values of the SUB parameter of the BIN function (deviation percentage (ĸ%) mode)

Syntax | Command | :BIN:SLIMit:DEViation <BIN number>,<OFF/ lower value>,<OFF/ upper value>
Query | :BIN:SLIMit:DEViation? <BIN number>
Response | <OFF/ lower value>, <OFF/ upper value>
Parameter | <BIN number> = 1 <Lower limit values> = -999.999% to +999.999% (NR2) <Upper limit values> = -999.999% to +999.999% (NR2)
Explanation | Command | Sets the upper and lower limit values of the SUB parameter in deviation percentage (ĸ%) mode of the specified BIN number.
Query | Returns the setting of the upper and lower limit values of the SUB parameter in deviation percentage (ĸ%) mode of the specified BIN number.
Example | Command | :BIN:SLIMit:DEViation 1,-10.0,10.0 Sets the lower and upper limit values of the SUB parameter in deviation percentage (ĸ%) mode of BIN1 to -10% and 10%, respectively.
Query | :BIN:SLIMit:DEViation? 1
Response | :BIN:SLIMIT:DEVIATION -10.000,10.000 (when HEADER ON) -10.000,10.000 (when HEADER OFF) The lower and upper limit values of the SUB parameter in deviation percentage (ĸ%) mode of BIN1 are set to -10% and 10%, respectively.
Note |  | The instrument stores the upper and lower limit values for absolute mode and those for deviation percentage (ĸ%) mode separately. The reference value and upper and lower limit values are common to percentage (%) mode and deviation percentage (ĸ%) mode. Enter 1 for the BIN number.

### Selecting and querying the mode of the SUB parameter of the BIN function

Syntax | Command | :BIN:SLIMit:MODE <ABSolute/PERcent/DEViation>
Query | :BIN:SLIMit:MODE?
Response | <ABSOLUTE/PERCENT/DEVIATION>
Parameter |
Explanation | Command | Sets the mode of the SUB parameter. ABSolute: Sets the mode to absolute (ABS) mode. PERcent: Sets the mode to percentage (%) mode. DEViation: Sets the mode to deviation percentage (ĸ%) mode.
Query | Returns the mode of the SUB parameter.
Example | Command | :BIN:SLIMit:MODE PERcent Selects percentage (%) mode.
Query | :BIN:SLIMit:MODE?
Response | :BIN:SLIMIT:MODE PERCENT (when HEADER ON) PERCENT (when HEADER OFF) The mode is set to percentage (%) mode.
Note |  |

### Setting and querying the upper and lower limit values of the SUB parameter of the BIN function (percentage (%) mode)

Syntax | Command | :BIN:SLIMit:PERcent <BIN number>,<OFF/ lower value>,<OFF/ upper value>
Query | :BIN:SLIMit:PERcent? <BIN number>
Response | <OFF/ lower value>, <OFF/ upper value>
Parameter | <BIN number> = 1 <Lower limit values> = -999.999% to +999.999% (NR2) <Upper limit values> = -999.999% to +999.999% (NR2)
Explanation | Command | Sets the upper and lower limit values of the SUB parameter in percentage (%) mode of the specified BIN number.
Query | Returns the upper and lower limit values of the SUB parameter in percentage (%) mode of the specified BIN number.
Example | Command | :BIN:SLIMit:PERcent 1,-10.000,10.000 Sets the lower and upper limit values of the SUB parameter in percentage (%) mode of BIN1 to -10% and 10%, respectively.
Query | :BIN:SLIMit:PERcent? 1
Response | :BIN:SLIMIT:PERCENT -10.000,10.000 (when HEADER ON) -10.000,10.000 (when HEADER OFF) The lower and upper limit values of the SUB parameter in percentage (%) mode of BIN1 are set to -10% and 10%, respectively.
Note |  | The instrument stores the upper and lower limit values for absolute mode and those for percentage (%) mode separately. The reference value and upper and lower limit values are common to percentage (%) mode and deviation percentage (ĸ%) mode. Enter 1 for the BIN number.

### Setting and querying the reference value of the SUB parameter of the BIN function (percentage (%) mode and deviation percentage (ĸ%) mode)

Syntax | Command | :BIN:SLIMit:REFerence <Reference value>
Query | :BIN:SLIMit:REFerence?
Response | <Reference value>
Parameter | <Reference value> = -9.99999E+09 to +9.99999E+09 (NR3)
Explanation | Command | Sets the reference value of the SUB parameter in percentage (%) mode or deviation percentage (ĸ%) mode.
Query | Returns the reference value of the SUB parameter in percentage (%) mode or deviation percentage (ĸ%) mode.
Example | Command | :BIN:SLIMit:REFerence 1.23456E-6 Sets the reference value of the SUB parameter in percentage (%) mode or deviation percentage (ĸ%) mode to 1.23456E-6.
Query | :BIN:SLIMit:REFerence?
Response | :BIN:SLIMIT:REFERENCE 1.23456E-06 (when HEADER ON) 1.23456E-06 (when HEADER OFF) The reference value of the SUB parameter in percentage (%) mode or deviation percentage (ĸ%) mode is set to 1.23456E-6.
Note |  | The reference value is common to percentage (%) mode and deviation percentage (ĸ%) mode. 0 cannot be set as a reference value.

### Setting of the upper and lower limit values of the BIN function and queries (absolute mode)

Syntax | Command | :BIN:ABSolute <Parameter number>, <BIN number>, <OFF/lower limit value>, <OFF/upper limit value>
Query | :BIN:ABSolute? <Parameter number>, <BIN number>
Response | <OFF/ lower limit value>, <OFF/ upper limit value>
Parameter | <Parameter number> = 1 to 4 (NR1) <BIN number> = 1 to 10 (NR1) <Lower limit values> = -9.99999E+09 to +9.99999E+09 (NR3) <Upper limit values> = -9.99999E+09 to +9.99999E+09 (NR3)
Explanation | Command | Sets the upper and lower limit values of the specified parameter number and BIN number in the absolute value mode.
Query | Returns the setting of the upper and lower limit values of the specified parameter number and BIN number in the absolute value mode.
Example | Command | :BIN:ABSolute 1,1,234.560E-06,1.23456 Sets the upper and lower limit values of the 1st parameter in the absolute value mode of BIN1 to 1.23456 and 234.560E-06, respectively.
Query | :BIN:ABSolute? 1,1
Response | :BIN:ABSOLUTE 234.560E-06, 1.23456E+00 (when HEADER ON) 234.560E-06, 1.23456E+00 (when HEADER OFF) The upper and lower values of the 1st parameter in the absolute value mode of BIN1 are set to 1.23456 and 234.560E-06, respectively.
Note |  | The instrument stores the upper and lower limit values for the absolute mode and those for percentage (%) mode separately. ?The reference, upper, and lower limit values are common to percentage (%) mode and deviation percentage (ĸ%) mode.

### Setting of the upper and lower limit values of the BIN function (deviation percentage (ĸ%) mode) and queries

Syntax | Command | :BIN:DEViation <Parameter number>, <BIN number>, <OFF/lower limit value>, <OFF/upper limit value>
Query | :BIN:DEViation? <Parameter number>, <BIN number>
Response | <OFF/ lower limit value>, <OFF/ upper limit value>
Parameter | <Parameter number> = 1 to 4 (NR1) <BIN number> = 1 to 10 (NR1) <Lower limit values> = -999.999% to +999.999% (NR2) <Upper limit values> = -999.999% to +999.999% (NR2)
Explanation | Command | Sets the upper and lower limit values of the specified BIN number and parameter number in deviation percentage (ĸ%) mode.
Query | Returns the upper and lower limit values of the specified BIN number and parameter number in deviation percentage (ĸ%) mode.
Example | Command | :BIN:DEViation 1,1,-10.000,10.000 Sets the upper and lower limit values of the 1st parameter in deviation percentage (ĸ%) mode of BIN1 to 10% and -10%, respectively.
Query | :BIN:DEViation? 1,1
Response | :BIN:DEVIATION -10.000,10.000 (when HEADER ON) -10.000,10.000 (when HEADER OFF) The upper and lower limit values of the 1st parameter in deviation percentage (ĸ%) mode of BIN1 are set to 10% and -10%, respectively.
Note |  | The instrument stores the upper and lower limit values for the absolute mode and deviation percentage (ĸ%) mode separately. ?The reference, upper, and lower limit values are common to percentage (%) mode and deviation percentage (ĸ%) mode.

### Setting of the judgment mode for the BIN function and queries

Syntax | Command | :BIN:MODE <Parameter number>, <ABSolute/PERcent/DEViation>
Query | :BIN:MODE? <Parameter number>
Response | <ABSolute/PERcent/DEViation>
Parameter | <Parameter number> = 1 to 4 (NR1)
Explanation | Command | Sets the mode for the specified parameter. ABSolute: Sets to the absolute (ABS) mode. PERcent: Sets to the percentage (%) mode. DEViation: Sets to the deviation percentage (ĸ%) mode.
Query | Returns the mode for the specified parameter.
Example | Command | :BIN:MODE 1,PERcent Selects the percentage (%) mode.
Query | :BIN:MODE? 1
Response | :BIN:MODE PERCENT (when HEADER ON) PERCENT (when HEADER OFF) The percentage (%) mode is set.
Note |  |

### Setting of the upper and lower limit values of the BIN function (percentage (%) mode) and queries

Syntax | Command | :BIN:PERcent <Parameter number>, <BIN number>, <OFF/lower limit value>, <OFF/upper limit value>
Query | :BIN:PERcent? <Parameter number>, <BIN number>
Response | <OFF/lower limit value>, <OFF/upper limit value>
Parameter | <Parameter number> = 1 to 4 (NR1) <BIN number> = 1 to 10 (NR1) <Lower limit values> = -999.999% to +999.999% (NR2) <Upper limit values> = -999.999% to +999.999% (NR2)
Explanation | Command | Sets the upper and lower limit values of the specified BIN number and parameter number in percentage (%) mode.
Query | Returns the upper and lower limit values of the specified BIN number and parameter number in percentage (%) mode.
Example | Command | :BIN:PERcent 1,1,-10.000,10.000 Sets the upper and lower limit values of the 1st parameter in percentage (%) mode of BIN1 to 10% and -10%, respectively.
Query | :BIN:PERcent? 1,1
Response | :BIN:PERCENT -10.000,10.000 (when HEADER ON) -10.000,10.000 (when HEADER OFF) The upper and lower limit values of the 1st parameter in percentage (%) mode of BIN1 are set to 10% and -10%, respectively.
Note |  | The instrument stores the upper and lower limit values for the absolute mode and those for percentage (%) mode separately. ?The reference, upper, and lower limit values are common to percentage (%) mode and deviation percentage (ĸ%) mode.

### Setting of the reference value of the BIN function (percentage (%) mode and deviation percentage (ĸ%) mode) and queries

Syntax | Command | :BIN:REFerence <Parameter number>, <reference value>
Query | :BIN:REFerence? <Parameter number>
Response | <Reference value>
Parameter | <Parameter number> = 1 to 4 (NR1) <Reference values> = -9.99999E+09 to +9.99999E+09 (NR3)
Explanation | Command | Sets the reference value of the specified parameter for the percentage (%) mode and deviation percentage (ĸ%) mode.
Query | Returns the reference value of the specified parameter for the percentage (%) mode and deviation percentage (ĸ%) mode.
Example | Command | :BIN:REFerence 1,1.23456E-6 Sets the reference value of the 1st parameter for the percentage (%) mode and deviation percentage (ĸ%) mode to 1.23456E-6.
Query | :BIN:REFerence? 1
Response | :BIN:REFERENCE 1.23456E-06 (when HEADER ON) 1.23456E-06 (when HEADER OFF) The reference value of the 1st parameter for the percentage (%) mode and deviation percentage (ĸ%) mode is set to 1.23456E-6.
Note |  | The reference value of this instrument is common to percentage (%) mode and deviation percentage (ĸ%) mode. 0 cannot be set for the reference value.

### Querying measurement data

Syntax | Command |
Query | :MEASure?
Response | <Measurement value>
Parameter |
Explanation | Command |
Query | For more detail, refer to "Querying measurement data".
Example | Command |
Query |
Response |
Note |  | If a setting has been changed, send the ":MEASure?" query after triggering.

### Queries for the contact check measurement data

Syntax | Command |
Query | :MEASure:RDC?
Response | <Measurement status>, <BEFORE measured value>, <BEFORE judgment>, <AFTER measured value>, <AFTER judgment>, <panel number>
Parameter |
Explanation | Command |
Query | Returns the measured value of the contact check. The measurement status has the same specification as the Measure? query status. Details of the judgment values are as follows. -1: LO judgment 0: IN judgment 1: HI judgment 2: Not judged
Example | Command |
Query | :MEASure:RDC?
Response | 0,4.9929E+03,0, 4.9957E+03,1,0 (when HEADER ON) 0,4.9929E+03,0, 4.9957E+03,1,0 (when HEADER OFF) Returns the BEFORE and AFTER measured values of the contact check. The judgment result shows BEFORE: IN and AFTER: HI.
Note |  | The output data follows the MEASure:VALid setting. The binary output is not supported.

### Setting and querying main sweep measurement signal mode

Syntax | Command | :SWEep:MAIN:SOURce <FREQuency/POWer/V/I>
Query | :SWEep:MAIN:SOURce?
Response | <FREQUENCY/POWER/V/I>
Parameter |
Explanation | Command | Sets the main sweep measurement signal type. FREQuency: Sets frequency. POWer: Sets power level. V: Sets voltage level. I: Sets current level.
Query | Returns the main sweep measurement signal type.
Example | Command | :SWEep:MAIN:SOURce V Sets the main sweep measurement signal type to V (voltage).
Query | :SWEep:MAIN:SOURce?
Response | :SWEEP:MAIN:SOURCE V (when HEADER ON) V (when HEADER OFF) The main sweep measurement signal type is set to V (voltage).
Note |  |

### Setting of the point delay and queries

Syntax | Command | :SWEep:PDELay <Sweep point No.>, <point delay time>
Query | :SWEep:PDELay? <Sweep point No.>
Response | <Point delay time>
Parameter | <Sweep point No.> = 1 to 801 (NR1) <Point delay time> = 0.00000 s to 9.99999 s (NR2)
Explanation | Command | Sets the point delay time for the analyzer mode.
Query | Returns the point delay time for the analyzer mode.
Example | Command | :SWEep:PDELay 1,0.0005 Sets the point delay interval for sweep point No. 1 to 0.5 ms.
Query | :SWEep:PDELay? 1
Response | :SWEEP:PDELAY 0.0005 (when HEADER ON) 0.0005 (when HEADER OFF) The point delay interval for sweep point No. 1 is set to 0.5 ms.
Note |  | The point delay setting is common to the interval setting during the interval measurement.

### Setting and querying trigger mode

Syntax | Command | :SWEep:TRIGger <SEQuential/REPeat/STEP>
Query | :SWEep:TRIGger?
Response | <SEQUENTIAL/REPEAT/STEP>
Parameter |
Explanation | Command | Sets the trigger mode of analyzer mode. SEQuential: Measures all sweep points when one trigger is input. REPeat: Repeats sweep measurement. STEP: Measures one of the sweep points when one trigger is input.
Query | Returns the trigger mode of analyzer mode.
Example | Command | :SWEep:TRIGger SEQuential Sets the trigger mode to sequential.
Query | :SWEep:TRIGger?
Response | :SWEEP:TRIGGER SEQUENTIAL (when HEADER ON) SEQUENTIAL (when HEADER OFF) The trigger mode is set to sequential.
Note |  |

### Setting of the display for the analyzer mode and queries

Syntax | Command | :SWEep:DISPlay <GRAPh/FGRAPh/XY/XY2/MULTi/NUMEric/PEAK>
Query | :SWEep:DISPlay?
Response | <GRAPH/FGRAPH/XY/XY2/MULTI/NUMERIC/PEAK>
Parameter |
Explanation | Command | Sets the display for the analyzer mode.
Query | Returns the setting of the display for the analyzer mode.
Example | Command | :SWEep:DISPlay NUMERIC Sets the display to the list display for the analyzer mode.
Query | :SWEep:DISPlay?
Response | :SWEEP:DISPLAY NUMERIC (when HEADER ON) NUMERIC (when HEADER OFF) The display is set to the list display for the analyzer mode.
Note |  |

### Setting and querying the sweep point

Syntax | Command | :POINt <Sweep point No.>,<Setting value>
Query | :POINt? <Sweep point No.>
Response | <Setting value>
Parameter | <Sweep point No.> = 1 to 801 (NR1) <Setting value> = The settable range varies depending on the conditions. (NR3)
Explanation | Command | Sets the sweep value.
Query | Returns the sweep value.
Example | Command | :POINt 5,23E6 Sets sweep value of sweep point number 5 to 23 M.
Query | :POINt? 5
Response | :POINT 23.000E+06 (when HEADER ON) 23000000 (when HEADER OFF) The sweep value of sweep point number 5 is set to 23 M.
Note |  | An execution error occurs when a value that is larger than the number of sweep points is set for the sweep point number.

### Adding a sweep point

Syntax | Command | :POINt:ADD <Sweep point No.>, <set value>
Query |
Response | <Set value>
Parameter | <Sweep point No.> = 1 to 801 (NR1) <Set value> = The settable range varies depending on the conditions. (NR3)
Explanation | Command | 1 point is added to the sweep value. When the sweep point is omitted, the sweep point is added at the very end.
Query |
Example | Command | :POINt:ADD 5,23E6 A sweep point of 23 MHz is added to the end of sweep point No. 5.
Query |
Response |
Note |  |

### Deletion of sweep point

Syntax | Command | :POINt:DELete <Sweep point No.>
Query |
Response |
Parameter | <Sweep point No.> = 1 to 801 (NR1)
Explanation | Command | The specified sweep point is deleted.
Query |
Example | Command | :POINt:DELete 5 Sweep point No. 5 is deleted.
Query |
Response |
Note |  |

### Setting and querying the sweep point settings of START-STOP mode

Syntax | Command | :LIST:STARt:STOP <START value>,<STOP value>,<Number of sweep points>,<LINear/ LOG>
Query | :LIST:STARt:STOP?
Response | <START value>,<STOP value>,<Number of sweep points>
Parameter | <START value> = The settable range varies depending on the type of sweep parameter. (NR2/NR3) <STOP value> = The settable range varies depending on the type of sweep parameter. (NR2/NR3) <Number of sweep points> = 1 to 801 (NR1)
Explanation | Command | Simultaneously sets the sweep point settings of the START-STOP method.
Query | Returns the sweep point settings of the START-STOP method.
Example | Command | :LIST:STARt:STOP 1.0000E+06,200.00E+06,801,LOG Sets the START value, STOP value, number of sweep points, and setting method of sweep points of the sweep point settings to 1 kHz, 200kHz, and 801 points, and LOG, respectively.
Query | :LIST:STARt:STOP?
Response | :LIST:START:STOP 1.0000E+06, 200.00E+06,801 (when HEADER ON) 1.0000E+06, 200.00E+06,801 (when HEADER OFF) The START value, STOP value, number of sweep points, and setting method of sweep points of the sweep point settings of the START-STOP method are set to 1 MHz, 200 MHz, and 801 points, and LOG, respectively.
Note |  | The valid ranges for the START value and STOP value differ depending on the type of sweep parameter. For each of the ranges, refer to the setting commands of the signal levels (frequency, constant voltage level, open-circuit voltage level, constant current level, and DC BIAS). The measurement speed takes priority during sweeping when the trigger setting is REPEAT, so if sweep points are changed by communication during sweeping, the first sweep result graph displayed after the change may appear in a disordered state. (In such a case, measurement is being performed without a problem.) Therefore, whenever possible change the trigger setting to SEQ or STEP when changing sweep points, and change the sweep points when sweeping is not being performed. An execution error occurs if the segment function is set to ON. When the setting of sweep source is V or I, some values of the query result may be different from setting.

### Setting and querying the sweep point settings of START-STEP mode

Syntax | Command | :LIST:STARt:STEP <START value>,<STEP value>,<Number of sweep points>
Query | :LIST:STARt:STEP?
Response | <START value>, <STEP value>, <Number of sweep points>
Parameter | <START value> = The settable range varies depending on the type of sweep parameter. (NR2/NR3) <STEP value> = The settable range varies depending on the type of sweep parameter. (NR2/NR3) <Number of sweep points> = 1 to 801 (NR1)
Explanation | Command | Simultaneously sets the sweep point settings of the START-STEP method.
Query | Returns the sweep point settings of the START-STEP method.
Example | Command | :LIST:STARt:STEP 1.0000E+06,200.00E+00,801 (When the type of sweep parameter is frequency) Sets the START value, STEP value, and number of sweep points of the sweep point settings to 1 MHz, 200 Hz, and 801 points, respectively.
Query | :LIST:STARt:STEP?
Response | :LIST:START:STEP 1.0000E+06, 200.00E+00,801 (when HEADER ON) 1.0000E+06, 200.00E+00,801 (when HEADER OFF) The START value, STEP value, and number of sweep points of the sweep point settings of the START-STEP method are set to 1 MHz, 200 Hz, and 801 points, respectively.
Note |  | The valid ranges for the START value and STEP value differ depending on the type of sweep parameter. For each of the ranges, refer to the setting commands of the signal levels (frequency, constant voltage level, open-circuit voltage level, constant current level, and DC BIAS). The measurement speed takes priority during sweeping when the trigger setting is REPEAT, so if sweep points are changed by communication during sweeping, the first sweep result graph displayed after the change may appear in a disordered state. (In such a case, measurement is being performed without a problem.) Therefore, whenever possible change the trigger setting to SEQ or STEP when changing sweep points, and change the sweep points when sweeping is not being performed. An execution error occurs if the segment function is set to ON. When the setting of sweep source is V or I, some values of the query result may be different from setting.

### Simultaneously setting and querying sweep point settings of the CENTER-SPAN method

Syntax | Command | :LIST:CENTerspan <CENTER value>,<SPAN value>,<Number of sweep points>
Query | :LIST:CENTerspan?
Response | <CENTER value>,<SPAN value>,<Number of sweep points>
Parameter | <CENTER value> = The settable range varies depending on the type of sweep parameter. (NR2/NR3) <SPAN value> = The settable range varies depending on the type of sweep parameter. (NR2/NR3) <Number of sweep points> = 1 to 801 (NR1)
Explanation | Command | Simultaneously sets the sweep point settings of the CENTER SPAN method.
Query | Returns the sweep point settings of the CENTER-SPAN method.
Example | Command | :LIST:CENTerspan 100.00E+06,200.00E+00,801 (When the type of sweep parameter is frequency) Sets the CENTER value, SPAN value, and number of sweep points of the sweep point settings to 100 MHz, 200 MHz, and 801 points, respectively.
Query | :LIST:CENTerspan?
Response | :LIST:CENTERSPAN 100.00E+06, 200.00E+00,801 (when HEADER ON) 100.00E+06, 200.00E+00,801 (when HEADER OFF) The CENTER value, SPAN value, and number of sweep points of the sweep point settings of the CENTER-SPAN method are set to 100 MHz, 200 Hz, and 801 points, respectively.
Note |  | The valid ranges for the CENTER value and SPAN value differ depending on the type of sweep parameter. For each of the ranges, refer to the setting commands of the signal levels (frequency, constant voltage level, open-circuit voltage level, constant current level, and DC BIAS). The measurement speed takes priority during sweeping when the trigger setting is REPEAT, so if sweep points are changed by communication during sweeping, the first sweep result graph displayed after the change may appear in a disordered state. (In such a case, measurement is being performed without a problem.) Therefore, whenever possible change the trigger setting to SEQ or STEP when changing sweep points, and change the sweep points when sweeping is not being performed. An execution error occurs if the segment function is set to ON. When the setting of sweep source is V or I, some values of the query result may be different from setting.

### Setting and querying the sweep point settings of INTERVAL mode

Syntax | Command | :LIST:INTerval <POINT value>,<INTERVAL value>,<Number of sweep points>
Query | :LIST:INTerval?
Response | <POINT value>,<INTERVAL value>,<Number of sweep points>
Parameter | <POINT value> = The settable range varies depending on the type of sweep parameter. (NR2/NR3) <INTERVAL value> = 0 to 1000 (NR2) <Number of sweep points> = 1 to 801 (NR1)
Explanation | Command | Simultaneously sets the sweep point settings of the INTERVAL method.
Query | Returns the sweep point settings of INTERVAL method.
Example | Command | :LIST:INTerval 1.0000E+06,1.50000,801 (When the type of sweep parameter is frequency) Sets the POINT value, INTERVAL value, and number of sweep points of the sweep point settings to 1 MHz, 1.5 s, and 801 points, respectively.
Query | :LIST:INTerval?
Response | :LIST:INTERVAL 1.0000E+06,1.50000,801 (when HEADER ON) 1.0000E+06,1.50000,801 (when HEADER OFF) The POINT value, INTERVAL value, and number of sweep points for the sweep point settings of the INTERVAL method are set to 1 MHz, 1.5 s, and 801 points, respectively.
Note |  | The valid ranges for the POINT value differ depending on the type of sweep parameter. For each of the ranges, refer to the setting commands of the signal levels (frequency, constant voltage level, open-circuit voltage level, constant current level, and DC BIAS). The measurement speed takes priority during sweeping when the trigger setting is REPEAT, so if sweep points are changed by communication during sweeping, the first sweep result graph displayed after the change may appear in a disordered state. (In such a case, measurement is being performed without a problem.) Therefore, whenever possible change the trigger setting to SEQ or STEP when changing sweep points, and change the sweep points when sweeping is not being performed. An execution error occurs if the segment function is set to ON. When the setting of sweep source is V or I, some values of the query result may be different from setting.

### Setting of the segment function and queries

Syntax | Command | :SEGMent <ON/OFF/INTerval>
Query | :SEGMent?
Response | <ON/OFF/INTERVAL>
Parameter |
Explanation | Command | Sets the segment sweep function. ON: Enables the segment sweep function. OFF: Disables the segment sweep function to perform the normal sweeping. INTerval: Enables the segment interval sweep function.
Query | Returns the segment sweep function setting.
Example | Command | :SEGMent ON Enables the segment sweep function.
Query | :SEGMent?
Response | :SEGMENT ON (when HEADER ON) ON (when HEADER OFF) The segment sweep function is enabled.
Note |  |

### Adding a segment

Syntax | Command | :SEGMent:ADD <Segment No./ no data>
Query |
Response |
Parameter |
Explanation | Command | Creates a new segment, and adds it to the specified segment number. If there are already segments with the specified segment number and subsequent numbers, the segments with the specified number and subsequent numbers are each shifted up by one. If a segment number is not specified, a new segment is added at the end of the current segments. If a segment number that is larger than the number of current segments is specified, a new segment is added at the end of the current segments.
Query |
Example | Command | :SEGMent:ADD 3 Creates a new segment for segment number 3.
Query |
Response |
Note |  | Each parameter (sweep point, measurement speed, etc.) of the newly created segment is set to the initial value. When you create a new segment, set each of the parameters.

### Deleting the specified segment

Syntax | Command | :SEGMent:DELete <Segment No.>
Query |
Response |
Parameter | <Segment No.> = 1 to 20
Explanation | Command | Deletes the specified segment.
Query |
Example | Command | :SEGMent:DELete 3 Deletes the segment created for number 3.
Query |
Response |
Note |  | A segment cannot be restored once it is deleted.

### Querying the number of segments

Syntax | Command |
Query | :SEGMent:NUM?
Response | <Segment count>
Parameter | <Segment count> = 1`20 (NR1)
Explanation | Command |
Query | Returns an NR1 numerical value for the number of segments currently created.
Example | Command |
Query | :SEGMent:NUM?
Response | SEGMENT:NUM 3 (when HEADER ON) 3 (when HEADER OFF) The three segments number 1 to number 3 have been created.
Note |  |

### Setting of the number of averaging times for the specified segment and queries

Syntax | Command | :SEGMent:AVERaging <Segment No.>, <OFF/number of averaging times>
Query | :SEGMent:AVERaging? <Segment No.>
Response | <Number of averaging times>
Parameter | <Segment No.> = 1 to 20 (NR1) <Number of averaging times> = 1 to 256 (NR1)
Explanation | Command | Sets the number of measurement averaging times for the specified segment No. OFF: Disables the averaging function.
Query | Returns the number of measurement averaging times for the specified segment No.
Example | Command | :SEGMent:AVERaging 3,32 Sets the number of measurement averaging times to 32 for segment No. 3.
Query | :SEGMent:AVERaging? 3
Response | :SEGMENT:AVERAGING 32 (when HEADER ON) 32 (when HEADER OFF) The number of measurement averaging times is set to 32 for segment No. 3.
Note |  |

### Setting and querying the point delay time of the specified segment

Syntax | Command | :SEGMent:PDELay <Segment No.>,<Delay time>
Query | :SEGMent:PDELay? <Segment No.>
Response | <Delay time>
Parameter | <Segment No.> = 1 to 20 <Delay time> = 0.00000s to 9.99999s (NR2)
Explanation | Command | Sets the point delay time of the specified segment.
Query | Returns the point delay time of the specified segment.
Example | Command | :SEGMent:PDELay 3, 0.0005 Sets the point delay time of segment number 3 to 0.5 ms.
Query | :SEGMent:PDELay? 3
Response | :SEGMENT:PDELAY 0.0005 (when HEADER ON) 0.0005 (when HEADER OFF) The point delay time of segment number 3 is set to 0.5 ms.
Note |  |

### Setting and querying the measurement speed of the specified segment

Syntax | Command | :SEGMent:SPEEd <Segment No.>,<FAST/MEDium/SLOW/SLOW2>
Query | :SEGMent:SPEEd? <Segment No.>
Response | <FAST/MEDium/SLOW/SLOW2>
Parameter | <Segment No.> = 1 to 20
Explanation | Command | Sets the measurement speed of the specified segment.
Query | Returns the measurement speed of the specified segment.
Example | Command | :SEGMent:SPEEd 3, MEDium Sets the measurement speed of segment number 3 to medium.
Query | :SEGMent:SPEEd? 3
Response | :SEGMENT:SPEED MEDIUM (when HEADER ON) MEDIUM (when HEADER OFF) The measurement speed of segment number 3 is set to medium.
Note |  |

### Setting of the measurement speed when the measurement speed is custom for the specified segment and queries

Syntax | Command | :SEGMent:SPEEd:WAVE <Segment No.>, <number of waveforms>
Query | :SEGMent:SPEEd:WAVE? <Segment No.>
Response | <Number of waveforms>
Parameter | <Segment No.> = 1 to 20 (NR1) <Number of waveforms> = 8 to 87 (NR1)
Explanation | Command | Sets the measurement speed of the specified segment using the number of waveforms.
Query | Returns the measurement speed of the specified segment using the number of waveforms.
Example | Command | :SEGMent:SPEEd:WAVE 3, 87 Sets the number of waveforms of the measurement speed to 87 for segment No. 3.
Query | :SEGMent:SPEEd:WAVE? 3
Response | :SEGMENT:SPEED:WAVE 87 (when HEADER ON) 87 (when HEADER OFF) The number of waveforms of the measurement speed is set to 87 for segment No. 3.
Note |  |

### Setting and querying measurement signal for when segment sweep

Syntax | Command | :SEGMent:SUB:SOURce <P/V/I>
Query | :SEGMent:SUB:SOURce?
Response | <P/V/I>
Parameter |
Explanation | Command | Sets the measurement signal type for when segment sweep to any one of power, voltage, and current. This setting is common to all segments. P : Sets powere. V : Sets voltage. I : Sets current.
Query | Returns the measurement signal type for when segment sweep.
Example | Command | :SEGMent:SUB:SOURce P Sets the measurement signal type for when segment sweep to P (power).
Query | :SEGMent:SUB:SOURce?
Response | :SEGMENT:SUB:SOURCE P (when HEADER ON) P (when HEADER OFF) The measurement signal type for when segment sweep is set to P (power).
Note |  | The measurement signal type for when segment sweep is common to all segments. If you set the measurement signal type for any segment, the setting is applied to all segments. The measurement signal type for when segment sweep can be set when the main sweep measurement signal mode is FREQ (frequency). An execution error occurs when the main sweep measurement signal is not FREQ.

### Setting and querying the measurement signal level of the specified segment

Syntax | Command | :SEGMent:SUB:SOURce:VALue <Segment No.>,<Signal source value>
Query | :SEGMent:SUB:SOURce:VALue? <Segment No.>
Response | <Segment No.>, <Signal source value>
Parameter | <Segment No.> = 1 to 20 <Signal source value> = The settable range varies depending on the measurement signal type for when segment sweep. (NR2/NR3)
Explanation | Command | Sets the signal source value of the specified segment. When the main sweep measurement signal mode is set to frequency: Level value When the main sweep measurement signal mode is set to P/V/I: Frequency
Query | Returns the signal source value of the specified segment.
Example | Command | :SEGMent:SUB:SOURce:VALue 3, 0.5 Sets the measurement signal level of segment number 3 to 0.5 V.
Query | :SEGMent:SUB:SOURce:VALue? 3
Response | :SEGMENT:SUB:SOURCE:VALUE 0.500 (when HEADER ON) 0.5 (when HEADER OFF) The measurement signal level of segment number 3 is set to 0.5 V.
Note |  |

### Simultaneously setting and querying sweep point settings of START-STOP method of specified segment

Syntax | Command | :SEGMent:STARt:STOP <Segment No.>,<START value>,<STOP value>,<Number of sweep points>, <LINear/LOG>
Query | :SEGMent:STARt:STOP? <Segment No.>
Response | <START value>,<STOP value>,<Number of sweep points>
Parameter | <Segment No.> = 1 to 20 <START value> = The settable range varies depending on the type of sweep parameter. (NR2/NR3) <STOP value> = The settable range varies depending on the type of sweep parameter. (NR2/NR3) <Number of sweep points> = 1 to 801 (NR1)
Explanation | Command | Simultaneously sets the sweep point settings of the START-STOP method of the specified segment.
Query | Returns the sweep point settings of the START-STOP method of the specified segment.
Example | Command | :SEGMent:STARt:STOP 3, 1.0000E+06, 200.00E+06, 50, LOG (When the type of sweep parameter is frequency) Sets the START value, STOP value, number of sweep points, and setting method of sweep points of the sweep point settings of segment number 3 to 1 MHz, 100 MHz, 50 points, and LOG, respectively.
Query | :SEGMent:STARt:STOP? 3
Response | :SEGMENT:START:STOP 1.0000E+06, 200.00E+06, 50 (when HEADER ON) 1.0000E+06, 200.00E+06, 50 (when HEADER OFF) The START value, STOP value, number of sweep points, and setting method of sweep points of the sweep point settings of the START-STOP method of segment number 3 are set to 1 MHz, 100 MHz, and 50 points, respectively.
Note |  | The valid ranges for the START value and STOP value differ depending on the type of main sweep measurement signal mode. For the valid ranges of each signal mode, refer to the setting command of each signal level (frequency, constant voltage level, open-circuit voltage level, and constant current level). If the main sweep measurement signal mode is V/CV/CC, the setting of the sweep point calculation method can only be set to LINear. An error occurs if LOG is selected.

### Setting of the interval time of the specified segment and queries

Syntax | Command | :SEGMent:INTerval <Segment No.>, <POINT value>, <interval time>, <Number of sweep points>
Query | :SEGMent:INTerval? <Segment No.>
Response | <POINT value>, <interval time>, <Number of sweep points>
Parameter | <Segment No.> = 1 to 20 (NR1) <POINT value> = The settable range varies depending on the type of sweep parameter. (NR2/NR3) <Interval time> = 0.00000 s to 9.99999 s (NR2) <Number of sweep points> = 1 to 801 (NR1)
Explanation | Command | Sets the interval time of the specified segment.
Query | Returns the interval time of the specified segment.
Example | Command | :SEGMent:INTerval 3, 1000000, 0.0005, 100 Sets the interval time of segment No. 3 to 0.5 ms.
Query | :SEGMent:INTerval? 3
Response | :SEGMENT:INTERVAL 3, 1000000, 0.0005, 100 (when HEADER ON) 3, 1000000, 0.0005, 100 (when HEADER OFF) The interval time of segment No. 3 is set to 0.5 ms.
Note |  |

### Executing auto scaling

Syntax | Command | :GRAPh:AUTOscale
Query |
Response |
Parameter |
Explanation | Command | Executes auto scaling.
Query |
Example | Command | :GRAPh:AUTOscale Executes auto scaling. This can be executed when the screen is set to graph display and the scaling mode is set to AUTO. An execution error occurs in other cases.
Query |
Response |
Note |  |

### Setting of the graph display color and queries

Syntax | Command | :GRAPh:COLor <Segment No.>, <parameter number>, <OFF/color No.>
Query | :GRAPh:COLor? <Segment No.>, <parameter number>
Response | <OFF/color No.>
Parameter | <Segment No.> = 1 to 20 (NR1) <Parameter number> = 1 to 4 (NR1) <Color No.> = 1 to 25 (NR1)
Explanation | Command | Sets the graph display color. Sets the graph display color for the 1st to 4th parameters of each segment. To change the graph display color when the segment function is OFF (normal sweeping), fix the segment No. to 1. (When the other segment number is specified, the segment No. is forcibly set to 1.) For colors No. 1 to 25, refer to the figure below.
Query | Returns the graph display color setting.
Example | Command | :GRAPh:COLor 1,2,15 Sets the graph display color to 15 for the 2nd parameter of segment 1.
Query | :GRAPh:COLor? 1,2
Response | :GRAPH:COLOR 15 (when HEADER ON) 15 (when HEADER OFF) The graph display color is set to 15 for the 2nd parameter of segment 1.
Note |  | Only the segment number that is currently created can be specified.

### Executing reset of the graph display colors of all segments

Syntax | Command | :GRAPh:COLor:RESet <Parameter No.>
Query |
Response |
Parameter | <Parameter No.> = 1 to 4 (NR1)
Explanation | Command | Resets the graph display colors of all segments. 1: Resets the graph display color of the first parameter. 2: Resets the graph display color of the second parameter. 3: Resets the graph display color of the third parameter. 4: Resets the graph display color of the fourth parameter.
Query |
Example | Command | :GRAPh:COLor:RESet 1 Resets the graph display color of the first parameter of all segments.
Query |
Response |
Note |  | An execution error occurs if the segment function is set to OFF.

### Reflecting the display color of segment 1 to all segments

Syntax | Command | :GRAPh:COLor:SEG1 <Parameter No.>
Query |
Response |
Parameter | <Parameter No.> = 1 to 4 (NR1)
Explanation | Command | Reflects the graph display color of segment 1 to all segments. 1: Reflects the graph display color of the first parameter of segment 1 to all segments. 2: Reflects the graph display color of the second parameter of segment 1 to all segments. 3: Reflects the graph display color of the third parameter of segment 1 to all segments. 4: Reflects the graph display color of the fourth parameter of segment 1 to all segments.
Query |
Example | Command | :GRAPh:COLor:SEG1 1 Reflects the graph display color of the first parameter of segment 1 to all segments.
Query |
Response |
Note |  | An execution error occurs if the segment function is set to OFF.

### Setting and querying the overwrite function

Syntax | Command | :GRAPh:OVERwrite <ON/OFF>
Query | :GRAPh:OVERwrite?
Response | <ON/OFF>
Parameter |
Explanation | Command | Sets the overwrite function.
Query | Returns the setting of the overwrite function.
Example | Command | :GRAPh:OVERwrite ON Enables the overwrite function so that a graph is overwritten.
Query | :GRAPh:OVERwrite?
Response | :GRAPH:OVERWRITE ON (when HEADER ON) ON (when HEADER OFF) The overwrite function is enabled, and a graph is set to be overwritten.
Note |  |

### Clearing of overdrawing

Syntax | Command | :GRAPh:OVERwrite:CLEar
Query |
Response |
Parameter |
Explanation | Command | Clears the overdrawing.
Query | Returns the setting of the overdrawing.
Example | Command | :GRAPh:OVERwrite:CLEar Clears the overdrawn waveforms.
Query |
Response |
Note |  |

### Setting and querying the horizontal axis display scale

Syntax | Command | :GRAPh:SCALe <LINear/LOG>
Query | :GRAPh:SCALe?
Response | <LINEAR/LOG>
Parameter |
Explanation | Command | Sets the horizontal axis display scale.
Query | Returns the setting of the horizontal axis display scale.
Example | Command | :GRAPh:SCALe LINear Sets the horizontal display scale to linear.
Query | :GRAPh:SCALe?
Response | :GRAPH:SCALE LINEAR (when HEADER ON) LINEAR (when HEADER OFF) The horizontal display scale is set to linear.
Note |  |

### Setting and querying the horizontal axis span format

Syntax | Command | :GRAPh:SPAN <SINGle/SEGMent>
Query | :GRAPh:SPAN?
Response | <SINGLE/SEGMENT>
Parameter |
Explanation | Command | Sets the horizontal axis span format. SINGle: Sets the whole measurement range to be drawn as a single span. SEGMent: Sets drawing to be performed for each segment.
Query | Returns the setting of the horizontal axis span format.
Example | Command | :GRAPh:SPAN SEGMent Sets the horizontal axis span format to segment.
Query | :GRAPh:SPAN?
Response | :GRAPH:SPAN SEGMENT (when HEADER ON) SEGMENT (when HEADER OFF) The horizontal axis span format is set to segment.
Note |  |

### Setting and querying the reference value and graduation width of the vertical axis display scale

Syntax | Command | :GRAPh:VERTical:CENTerdiv <Parameter No.>,<Reference value>,<One graduation width>
Query | :GRAPh:VERTical:CENTerdiv? <Parameter No.>
Response | <Reference value>,<One graduation width>
Parameter | <Parameter No.> = 1 to 4 (NR1) <Reference value> = -9.99999E+09 to +9.99999E+09 (NR3) <One graduation width> = -9.99999E+09 to +9.99999E+09 (NR3)
Explanation | Command | Sets the range of the vertical axis of the first parameter or second parameter with a reference value and the width of one graduation.
Query | Returns the range of the vertical axis of the first parameter or second parameter in the order of the reference value and the width of one graduation.
Example | Command | :GRAPh:VERTical:CENTerdiv 1, 100E+03, 100E+00 Sets range of the vertical axis of the first parameter to 100 k for the reference value and 100 for the width of one graduation.
Query | :GRAPh:VERTical:CENTerdiv? 1
Response | :GRAPH:VERTICAL:CENTERDIV 100.0000E+03, 100.0000E+00 (when HEADER ON) 100.0000E+03, 100.0000E+00 (when HEADER OFF) The range of the vertical axis of the first parameter is set to 100 k for the reference value and 100 for the width of one graduation.
Note |  | If this command is executed, the vertical display scale setting method is automatically set to the reference value and one graduation width. If the reference value and one graduation width are set with this command, the upper and lower limit values are automatically recalculated.

### Setting and querying the parameters to display grid

Syntax | Command | :GRAPh:VERTical:GRID <Graph No.>, <Parameter No.>
Query | :GRAPh:VERTical:GRID? <Graph No.>
Response | <Parameter No.>
Parameter | <Graph No.> = 1 or 2 (NR1) <Parameter No.> = 1 to 4 (NR1)
Explanation | Command | Sets the parameters for which to display a grid.
Query | Returns the parameters for which to display a grid.
Example | Command | :GRAPh:VERTical:GRID 1,2 Sets a grid to be displayed for the second parameter.
Query | :GRAPh:VERTical:GRID? 1
Response | :GRAPH:VERTICAL:GRID 2 (when HEADER ON) 2 (when HEADER OFF) A grid is set to be displayed for the second parameter.
Note |  |

### Setting and querying the setting method for the vertical axis display scale

Syntax | Command | :GRAPh:VERTical:METHod <Parameter No.>, <UPPer/CENTer>
Query | :GRAPh:VERTical:METHod? <Parameter No.>
Response | <UPPER/CENTER>
Parameter | <Parameter No.> = 1 to 4 (NR1)
Explanation | Command | Sets the setting method for the display range of the vertical axis. UPPer: Sets the display range of the vertical axis to be set with the upper and lower limit values. ENTer: Sets the display range of the vertical axis to be set with a reference value and the width of one graduation.
Query | Returns the setting method for the display range of the vertical axis.
Example | Command | :GRAPh:VERTical:METHod 1, UPPer Sets the display range of the vertical axis to be set with the upper and lower limit values.
Query | :GRAPh:VERTical:METHod? 1
Response | :GRAPH:VERTICAL:METHOD UPPER (when HEADER ON) UPPER (when HEADER OFF) The display range of the vertical axis is set to be set with the upper and lower limit values.
Note |  | Before executing this command, set MANUAL with the :GRAPh:VERTical:MODE command.

### Setting and querying the vertical axis display scale method

Syntax | Command | :GRAPh:VERTical:MODE <Parameter No.>, <AUTO/MANual>
Query | :GRAPh:VERTical:MODE? <Parameter No.>
Response | <AUTO/MANUAL>
Parameter | <Parameter No.> = 1 to 4 (NR1)
Explanation | Command | Sets the display range setting of the vertical axis to automatic or manual.
Query | Returns the display range setting of the vertical axis.
Example | Command | :GRAPh:VERTical:MODE 1, MANual Sets the display range setting of the vertical axis of the first parameter to manual.
Query | :GRAPh:VERTical:MODE? 1
Response | :GRAPH:VERTICAL:MODE MANUAL (when HEADER ON) MANUAL (when HEADER OFF) The display range setting of the vertical axis of the first parameter is set to manual.
Note |  |

### Setting and querying the reversing of the display scale along the vertical axis

Syntax | Command | :GRAPh:VERTical:REVerse <Graph No.>, <OFF/ON>
Query | :GRAPh:VERTical:REVerse? <Graph No.>
Response | <OFF/ON>
Parameter | <Graph No.> = 1 or 2 (NR1)
Explanation | Command | Sets the reversed display along the vertical axis for the second parameter during X-Y display. Set it to ON for Cole-Cole plot display. OFF: Display is not reversed along the axis. ON: Display is reversed along the axis.
Query | Returns the reversed display along the vertical axis for the second parameter during X-Y display.
Example | Command | :GRAPh:VERTical:REVerse 1,ON Sets the second parameter during X-Y display to the reverse display along the vertical axis.
Query | :GRAPh:VERTical:REVerse? 1
Response | :GRAPH:VERTICAL:REVERSE ON (when HEADER ON) ON (when HEADER OFF) The second parameter during X-Y display is set to reverse display along the vertical axis.
Note |  |

### Setting and querying the vertical axis display scale

Syntax | Command | :GRAPh:VERTical:SCALe <Parameter No.>, <LINear/LOG>
Query | :GRAPh:VERTical:SCALe? <Parameter No.>
Response | <LINEAR/LOG>
Parameter | <Parameter No.> = 1 to 4 (NR1)
Explanation | Command | Sets the vertical axis display scale.
Query | Returns the vertical axis display scale.
Example | Command | :GRAPh:VERTical:SCALe 1, LOG Sets the vertical axis display scale of the first parameter to log.
Query | :GRAPh:VERTical:SCALe? 1
Response | :GRAPH:VERTICAL:SCALE LOG (when HEADER ON) LOG (when HEADER OFF) The vertical axis display scale of the first parameter is set to log.
Note |  |

### Setting and querying the upper and lower limit values of the vertical axis display scale

Syntax | Command | :GRAPh:VERTical:UPPerlower <Parameter No.>,<Lower limit values>,<Upper limit values>
Query | :GRAPh:VERTical:UPPerlower? <Parameter No.>
Response | <Lower limit values>,<Upper limit values>
Parameter | <Parameter No.> = 1 to 4 (NR1) <Lower limit values> = -9.9999E+09 to +9.9999E+09 (NR3) <Upper limit values> = -9.9999E+09 to +9.9999E+09 (NR3)
Explanation | Command | Sets the range of the vertical axis of the first parameter or second parameter with the lower and upper limit values.
Query | Returns the range of the vertical axis of the first parameter or second parameter in the order of the lower limit value and the upper limit value.
Example | Command | :GRAPh:VERTical:UPPerlower 1, 1E+03, 100E+03 Sets the range of the vertical axis of the first parameter to 1 k for the lower limit value and 100 k for the upper limit value.
Query | :GRAPh:VERTical:UPPerlower? 1
Response | :GRAPH:VERTICAL:UPPERLOWER 1.0000E+03, 100.00E+03 (when HEADER ON) 1.0000E+03, 100.00E+03 (when HEADER OFF) The range of the vertical axis of the first parameter is set to 1 k for the lower limit value and 100 k for the upper limit value.
Note |  | If this command is executed, the vertical display scale setting method is automatically set to the upper and lower limit values. Specify a lower limit value that does not exceed the upper limit value. An execution error occurs if a lower limit value that is larger than the upper limit value is specified. If the upper and lower limit values are set with this command, the width of one graduation is automatically recalculated.

### Setting and querying the scaling method during automatic scaling for the X-Y display

Syntax | Command | :GRAPh:VERTical:XYGRaph <INDividual/SAME>
Query | :GRAPh:VERTical:XYGRaph?
Response | <INDIVIDUAL/SAME>
Parameter |
Explanation | Command | Sets the scaling method during automatic scaling for the X-Y display.
Query | Returns the setting of the scaling method during automatic scaling for the X-Y display.
Example | Command | :GRAPh:VERTical:XYGRaph SAME Adjusts the scaling of PARA1 and PARA2 to the same value during automatic scaling for the X-Y display.
Query | :GRAPh:VERTical:XYGRaph?
Response | :GRAPH:VERTICAL:XYGRAPH SAME (when HEADER ON) SAME (when HEADER OFF) The scaling method during automatic scaling for the X-Y display is set to SAME.
Note |  |

### Setting and querying the display cursor setting

Syntax | Command | :CURSor <OFF/A/AB>
Query | :CURSor?
Response | <OFF/A/AB>
Parameter |
Explanation | Command | Sets the display cursor. OFF: Displays no cursor. A: Displays only cursor A. AB: Displays cursors A and B.
Query | Returns the display cursor setting.
Example | Command | :CURSor AB Sets cursors A and B to be displayed.
Query | :CURSor?
Response | :CURSOR AB (when HEADER ON) AB (when HEADER OFF) Cursors A and B are set to be displayed.
Note |  | It is not possible to display only cursor B.

### Setting and querying the search method (# is A or B)

Syntax | Command | :CURSor:#SEARch <MAX/MIN/TARGet/LMAX/LMIN>
Query | :CURSor:#SEARch?
Response | <MAX/MIN/TARGET/LMAX/LMIN>
Parameter |
Explanation | Command | Sets the search mode for cursor A or cursor B. MAX: Sets a search for the maximum value to be performed. MIN: Sets a search for the minimum value to be performed. TARGet: Sets a search for any value to be performed. LMAX: Sets a search for the local maximum value to be performed. LMIN: Sets a search for the local minimum value to be performed.
Query | Returns the search mode for cursor A or cursor B.
Example | Command | :CURSor:BSEARch LMAX Sets the search mode for cursor B to local maximum value search.
Query | :CURSor:BSEARch?
Response | :CURSOR:BSEARCH LMAX (when HEADER ON) LMAX (when HEADER OFF) The search mode for cursor B is set to local maximum value search.
Note |  | When the search mode is set to TARGET, the target value can be set with the :CURSor:#SEARch:TARGet command. When the search mode is set to LMAX or LMIN, the filter value can be set with the :COMParator:PEAK:FILTer command.

### Setting and querying the search parameter (# is A or B)

Syntax | Command | :CURSor:#SEARch:PARameter <Parameter No.>
Query | :CURSor:#SEARch:PARameter?
Response | <Parameter No.>
Parameter | <Parameter No.> = 1 to 4 (NR1)
Explanation | Command | Sets the search parameter for cursor A or cursor B. 1: Performs a search for the measurement result of the first parameter. 2: Performs a search for the measurement result of the second parameter. 3: Performs a search for the measurement result of the third parameter. 4: Performs a search for the measurement result of the fourth parameter.
Query | Returns the setting of the search parameter for cursor A or cursor B.
Example | Command | :CURSor:ASEARch:PARameter 2 Sets the search parameter of cursor A to the second parameter.
Query | :CURSor:ASEARch:PARameter?
Response | :CURSOR:ASEARCH:PARAMETER 2 (when HEADER ON) 2 (when HEADER OFF) The search parameter of cursor A is set to the second parameter.
Note |  |

### Setting and querying the target value (# is A or B)

Syntax | Command | :CURSor:#SEARch:TARGet <TARGET value>
Query | :CURSor:#SEARch:TARGet?
Response | <TARGET value>
Parameter | <TARGET value> = -9.999999+E0 to +9.99999E+09 (NR3)
Explanation | Command | Sets the target value for when target search of cursor A or cursor B.
Query | Returns the target value for when target search of cursor A or cursor B.
Example | Command | :CURSor:BSEARch:TARGet 100E+03 Sets the target value for when target search of cursor B to 100 k.
Query | :CURSor:BSEARch:TARGet?
Response | :CURSOR:BSEARCH:TARGET 100.000E+03 (when HEADER ON) 100000 (when HEADER OFF) The target value for when target search of cursor B is set to 100 k.
Note |  | When you want to perform a target search, set the search mode to TARGET with the :CURSor:#SEARch command.

### Setting of the target slope and queries (# indicates A or B)

Syntax | Command | :CURSor:#SEARch:TARGet:SLOPe <UP/DOWN>
Query | :CURSor:#SEARch:TARGet:SLOPe?
Response | <UP/DOWN>
Parameter |
Explanation | Command | Sets the target slope of the A or B cursor. UP: Searches on the rising waveforms. DOWN: Searches on the falling waveforms.
Query | Returns the target slope of the A or B cursor.
Example | Command | :CURSor:AEARch:TARGet:SLOPe UP Sets the target slope of the A cursor to search from the rising waveforms.
Query | :CURSor:ASEARch:TARGet:SLOPe?
Response | :CURSOR:ASEARCH:TARGET:SLOPE UP (when HEADER ON) UP (when HEADER OFF) The target slope of the A cursor is set to search from the rising waveforms.
Note |  |

### Setting and querying the cursor to move or perform searches.

Syntax | Command | :CURSor:MOVE <A/B>
Query | :CURSor:MOVE?
Response | <A/B>
Parameter |
Explanation | Command | Sets the cursor to move or perform searches. A: Cursor A can move or search. B: Cursor B can move or search.
Query | Returns the setting of the cursor to move or perform searches.
Example | Command | :CURSor:MOVE B Sets the cursor to move or perform searches to cursor B.
Query | :CURSor:MOVE?
Response | :CURSOR:MOVE B (when HEADER ON) B (when HEADER OFF) The cursor to move or perform searches is set to cursor B.
Note |  | This command results in an execution error if display cursor is set to OFF. Furthermore, if the display cursor is set to A, the cursor to move or perform searches is fixed to cursor A and cannot be set to cursor B.

### Setting and querying the auto search

Syntax | Command | :CURSor:SEARch:AUTO <ON/OFF>
Query | :CURSor:SEARch:AUTO?
Response | <ON/OFF>
Parameter |
Explanation | Command | Sets the auto search function.
Query | Returns the auto search function.
Example | Command | :CURSor:SEARch:AUTO ON Sets the auto search function to ON.
Query | :CURSor:SEARch:AUTO?
Response | :CURSOR:SEARCH:AUTO ON (when HEADER ON) ON (when HEADER OFF) The auto search function is set to ON.
Note |  |

### Executing the search function

Syntax | Command | :SEARch
Query | :SEARch? <A/B>
Response | <Point data>, <Measured value>, ..., (Repeated the same number of times as the search results)
Parameter |
Explanation | Command | Executes the search function and moves the display cursor.
Query | Executes the search function (during the manual seach setting) and returns the search result.
Example | Command | :SEARch Executes the search function.
Query | :SEARch? A
Response | 300.00E+06, 2.00000E+00 (when HEADER ON) 300.00E+06, 2.00000E+00 (when HEADER OFF) The search result for cursor A is that the measured value is 2 at a frequency of 300 MHz.
Note |  | An execution error occurs if the sweep measurement is unfinished.

### Setting and querying comparator judgment mode

Syntax | Command | :COMParator:ANALyzer <OFF/AREA/PEAK>
Query | :COMParator:ANALyzer?
Response | <OFF/AREA/PEAK>
Parameter |
Explanation | Command | Sets the comparator judgment mode in analyzer mode. OFF: Sets the comparator function to OFF. AREA:Sets the comparator judgment mode to area judgment. PEAK: Sets the comparator judgment mode to peak judgment.
Query | Returns the setting of the comparator judgment mode in analyzer mode.
Example | Command | :COMParator:ANALyzer AREA Sets the comparator judgment mode in analyzer mode to area judgment.
Query | :COMParator:ANALyzer?
Response | :COMPARATOR:ANALYZER AREA (when HEADER ON) AREA (when HEADER OFF) The comparator judgment mode in analyzer mode is set to area judgment.
Note |  |

### Setting and querying drawing of judgment area

Syntax | Command | :COMParator:AREA <Graph No.>, <OFF/1/2/3/4>
Query | :COMParator:AREA? <Graph No.>
Response | <OFF/1/2/3/4>
Parameter | <Graph No.> = 1 or 2 (NR1)
Explanation | Command | Sets the parameter for which to draw the comparator range. OFF: The comparator range is not drawn. 1: Draws the comparator range for the first parameter. 2: Draws the comparator range for the second parameter. 3: Draws the comparator range for the third parameter. 4: Draws the comparator range for the fourth parameter.
Query | Returns the setting of the parameter for which to draw the comparator range.
Example | Command | :COMParator:AREA 2, 1 Sets the parameter for which to draw the comparator range to the main parameter.
Query | :COMParator:AREA? 2
Response | :COMPARATOR:AREA 1 (when HEADER ON) 1 (when HEADER OFF) The parameter for which to draw the comparator range is set to the first parameter.
Note |  | The parameter that can be set with this command varies depending on the setting for the parameter subject to comparator judgment. The comparator range can only be drawn for a parameter that is set to be subject to judgment. The comparator range cannot be drawn for both the first parameter and second parameter.

### Setting and querying area judgment (reference value manual setting)

Syntax | Command | :COMParator:AREA:FIX <Segment No.>,<Parameter No.>,<PERcent/VALue>,<Reference value>,<Lower limit values>,<Upper limit values>
Query | :COMParator:AREA:FIX? <Segment No.>,<Parameter No.>
Response | <PERCENT/VALUE>,<Reference value>,<Lower limit values>,<Upper limit values>
Parameter | <Segment No.> = 1 to 20 <Parameter No.> = 1 to 4 (NR1) <Reference value> = -9.99999E+09 to +9.99999E+09 (NR3) <Upper limit values> = -999.999% to +999.999% (NR2)/-9.99999E+09 to +9.99999E+09 (NR3) <Upper limit values> = -999.999% to +999.999% (NR2)/-9.99999E+09 to +9.99999E+09 (NR3)
Explanation | Command | Specifies the reference value and simultaneously sets the area judgment settings.
Query | Returns the area judgment settings in the order of the mode, reference value, lower limit value, and upper limit value.
Example | Command | :COMParator:AREA:FIX 2,1,PERcent,1.2345E-06,-20,20 Sets the comparator range of the first parameter of segment 2 as a percentage to the reference value of 1.2345E-06, lower limit value of -20%, and upper limit value of 20%.
Query | :COMParator:AREA:FIX? 2,1
Response | :COMPARATOR:AREA:FIX PERCENT,1.23450E-06,-20.000,20.000 (when HEADER ON) PERCENT,1.23450E-06,-20.000,20.000 (when HEADER OFF) The comparator range of the first parameter of segment 2 is set as a percentage to the reference value of 1.2345E-06, lower limit value of -20%, and upper limit value of 20%.
Note |  | When the segment sweep setting is set to OFF, the segment number setting is disabled and fixed to segment 1.

### Setting and querying the upper and lower limit values for area judgment

Syntax | Command | :COMParator:AREA:LIMit <Sweep point No.>,<Parameter No.>,<Lower limit values>,<Upper limit values>
Query | :COMParator:AREA:LIMit? <Sweep point No.>,<Parameter No.>
Response | <Lower limit values>,<Upper limit values>
Parameter | <Sweep point No.> = 1 to 801 (NR1) <Parameter No.> = 1 to 4 (NR1) <Lower limit values> = OFF/-9.99999E+09 to +9.99999E+09 (NR3) <Upper limit values> = OFF/-9.99999E+09 to +9.99999E+09 (NR3)
Explanation | Command | Sets the upper and lower limit values for area judgment.
Query | Returns the upper and lower limit values for area judgment.
Example | Command | :COMParator:AREA:LIMit 10,1,10E3,20E3 Sets the lower and upper limit values for the first parameter of Sweep point No. 10 to 10 k and 20 k, respectively.
Query | :COMParator:AREA:LIMit? 10,1
Response | :COMPARATOR:AREA:LIMIT 10.0000E+03,20.0000E+03 (when HEADER ON) 10.0000E+03,20.0000E+03 (when HEADER OFF) The lower and upper limit values for the first parameter of sweep point number 10 are set to 10 k and 20 k, respectively.
Note |  | An execution error occurs in the following cases. When a value that is larger than the number of sweep points is set for the sweep point number When the mode is not area judgment mode When the parameter to be set is not set as a judgment parameter

### Setting and querying area judgment (reference value automatic setting)

Syntax | Command | :COMParator:AREA:MEAS <Segment No.>,<Parameter No.>,<PERcent/ VALue>,<Lower limit values>,<Upper limit values>
Query | :COMParator:AREA:MEAS? <Segment No.>,<Parameter No.>
Response | <PERCENT/ VALUE>,<Lower limit values>,<Upper limit values>
Parameter | <Segment No.> = 1 to 20 <Parameter No.> = 1 to 4 (NR1) <Lower limit values> = -999.999% to +999.999% (NR2)/-9.99999E+09 to +9.99999E+09 (NR3) <Upper limit values> = -999.999% to +999.999% (NR2)/-9.99999E+09 to +9.99999E+09 (NR3)
Explanation | Command | Acquires the reference value from the current measurement value and simultaneously sets the area judgment settings.
Query | Returns the area judgment settings in the order of the mode, lower limit value, and upper limit value.
Example | Command | :COMParator:AREA:MEAS 2,1,PERcent,-20,20 Sets the comparator range of the first parameter of segment 2 as a percentage to the lower limit value of -20% and the upper limit value of 20% based on the current measurement value.
Query | :COMParator:AREA:MEAS? 2,1
Response | :COMPARATOR:AREA:MEAS PERCENT,-20.000,20.000 (when HEADER ON) PERCENT,-20.000,20.000 (when HEADER OFF) The comparator range of the first parameter of segment 2 is set as a percentage to the lower limit value of -20% and the upper limit value of 20% based on the current measurement value.
Note |  | When the segment sweep setting is set to OFF, the segment number setting is disabled and .fixed to segment 1.

### Setting and querying judgment parameter

Syntax | Command | :COMParator:PARAmeter <Parameter No./ALL>, <ON/OFF>
Query | :COMParator:PARAmeter? <Parameter No.>
Response | <ON/OFF>
Parameter | <Parameter No.> = 1 to 4 (NR1)
Explanation | Command | Sets the parameter subject to comparator judgment. ALL: Sets all(1`4) parameter to be subject to comparator judgment. ON: Sets the selected parameter to be subject to comparator judgment. OFF: Clears the selected parameter to be subject to comparator judgment.
Query | Returns the setting of the parameter subject to comparator judgment.
Example | Command | :COMParator:PARAmeter 1 ON Sets the parameter subject to comparator judgment to the first parameter.
Query | :COMParator:PARAmeter? 1
Response | :COMPARATOR:PARAMETER ON (when HEADER ON) ON (when HEADER OFF) The parameter subject to comparator judgment is set to the first parameter.
Note |  | Sets all parameters when Parameter No. is set ALL.

### Setting and querying peak judgment

Syntax | Command | :COMParator:PEAK <Segment No.>,<Parameter No.>,<MAX/MIN>,<OFF/Left limit value>,<OFF/Right limit value>,<OFF/Lower limit values>,<OFF/Upper limit values>
Query | :COMParator:PEAK? <Segment No.>,<Parameter No.>,<MAX/MIN>
Response | <OFF/Left limit value>,<OFF/Right limit value>,<OFF/Lower limit values>,<OFF/Upper limit values>
Parameter | <Segment No.> = 1 to 20 <Parameter No.> = 1 to 4 (NR1) <Left limit value> = The settable range varies depending on the conditions. (NR3) <Right limit value> = The settable range varies depending on the conditions. (NR3) <Lower limit values> = OFF/-9.99999E+09 to +9.99999E+09 (NR3) <Upper limit values> = OFF/-9.99999E+09 to +9.99999E+09 (NR3)
Explanation | Command | Simultaneously sets the peak judgment settings. The valid setting range for the left and right limit values differs depending on the type of main sweep measurement signal mode. Please refer to each signal level setting command (Frequency mode, Power mode, Voltage mode, Current mode) about each effective range.
Query | Returns the area judgment settings in the order of the left limit value, right limit value, lower limit value, and upper limit value.
Example | Command | :COMParator:PEAK 1,1,MAX,40,1.0000E3,1.1234E+06,1.2345E+06 Sets the left limit value, right limit value, lower limit value, and upper limit value of the local maximum values of the first parameter of segment 1 to 40, 1.0000E3, 1.1234E+06, and 1.2345E+06, respectively.
Query | :COMParator:PEAK? 1,1,MAX
Response | :COMPARATOR:PEAK 40.00000E+00,1.000000E+03,1.123400E+06,1.234500E+06 (when HEADER ON) 40.00000E+00,1.000000E+03,1.123400E+06,1.234500E+06 (when HEADER OFF) The left limit value, right limit value, lower limit value, and upper limit value of the local maximum values of the first parameter of segment 1 are set to 40, 1.0000E3, 1.1234E+06, and 1.2345E+06, respectively.
Note |  | When the segment sweep setting is set to OFF, the segment number setting is disabled and fixed to segment 1.

### Setting and querying the filter value

Syntax | Command | :COMParator:PEAK:FILTer <ON/OFF>
Query | :COMParator:PEAK:FILTer?
Response | <ON/OFF>
Parameter |
Explanation | Command | Sets the filter for when peak judgment.
Query | Returns the filter for when peak judgment.
Example | Command | :COMParator:PEAK:FILTer ON Sets the filter value for when peak judgment to ON.
Query | :COMParator:PEAK:FILTer?
Response | :COMPARATOR:PEAK:FILTER ON (when HEADER ON) ON (when HEADER OFF) The filter value for when peak judgment is set to ON.
Note |  | The filter setting is common to the filter setting of the search by cursor function.

### Setting and querying the local maximum number and local minimum number

Syntax | Command | :COMParator:PEAK:NO <Local minimum No.>, <Local maximum No.>
Query | :COMParator:PEAK:NO?
Response | <Local minimum No.>,<Local maximum No.>
Parameter | <Local minimum No.> = 1 to 5 (NR1) <Local maximum No.> = 1 to 5 (NR1)
Explanation | Command | Sets the local minimum number and local maximum number to be the targets when performing peak judgment.
Query | Returns the local minimum number and local maximum number to be the targets when performing peak judgment.
Example | Command | :COMParator:PEAK:NO 2,3 Sets peak judgment to be performed with the second local minimum value and third local maximum value as the targets.
Query | :COMParator:PEAK:NO?
Response | :COMPARATOR:PEAK:NO 2,3 (when HEADER ON) 2,3 (when HEADER OFF) Peak judgment is set to be performed with the second local minimum value and third local maximum value as the targets.
Note |  |

### Querying measurement data

Syntax | Command |
Query | :MEASure? <No data>
Response |
Parameter |
Explanation | Command |
Query | For more detail, refer to "Querying measurement data".
Example | Command |
Query |
Response |
Note |  | If a setting has been changed, send the ":MEASure?" query after triggering.

### Queries for the contact check measurement data

Syntax | Command |
Query | :MEASure:RDC?
Response | <Measurement status>, <BEFORE measured value>, <BEFORE judgment>, <AFTER measured value>, <AFTER judgment>, <panel number>
Parameter |
Explanation | Command |
Query | Returns the measured value of the contact check. The measurement status has the same specification as the Measure? query status. Details of the judgment values are as follows. -1: LO judgment 0: IN judgment 1: HI judgment 2: Not judged
Example | Command |
Query | :MEASure:RDC?
Response | 0,4.9929E+03,0, 4.9957E+03,1,0 (when HEADER ON) 0,4.9929E+03,0, 4.9957E+03,1,0 (when HEADER OFF) Returns the BEFORE and AFTER measured values of the contact check. The judgment result shows BEFORE: IN and AFTER: HI.
Note |  | The output data follows the MEASure:VALid setting. The binary output is not supported.

### Querying the overall judgment result when peak comparator measurement

Syntax | Command |
Query | :MEASure:COMParator:PEAK?
Response | <Judgment result>
Parameter | <Judgment result> = 0,1 (NR1)
Explanation | Command |
Query | Returns the overall judgment result when peak comparator measurement.
Example | Command |
Query | :MEASure:COMParator:PEAK?
Response | :MEASURE:COMPARATOR:PEAK 1 (when HEADER ON) 1 (when HEADER OFF) The peak overall judgment result is IN.
Note |  |

### Querying the judgment result of the local maximum value when peak comparator measurement

Syntax | Command |
Query | :MEASure:COMParator:PEAK:LMAX? <Segment No.>,<Parameter No.>
Response |
Parameter | <Segment No.> = 1 to 20 (NR1) <Parameter No.> = 1 to 4 (NR1) <Judgment result> = 1 to 9 (NR1)
Explanation | Command |
Query | Returns the judgment result of the local maximum value and the measurement data when peak comparator measurement. The judgment results indicate the positional relationship between the judgment area and peak. If the peak is within the judgment area (IN), 5 is returned. When the judgment area setting is OFF, 0 is returned for the judgment result. For details on the judgment result values, see the following figure.
Example | Command |
Query | :MEASure:COMParator:PEAK:LMAX? 1,1
Response | :MEASURE:COMPARATOR:PEAK:LMAX 5, 24.831E+03,Z 4.082196E+03 (when HEADER ON) 5, 24.831E+03, 4.082196E+03 (when HEADER OFF) The peak comparator judgment result of the local maximum value of segment 1 and the first parameter is IN, the frequency of the sweep point is 24.831 kHz, and the measurement value is 4.082196 kļ.
Note |  | When the segment sweep setting is set to OFF, the segment number setting is disabled and fixed to segment 1. An execution error occurs when the peak could not be detected. The output data follows the MEASure:VALid setting.

### Querying the judgment result of the local minimum value when peak comparator measurement

Syntax | Command |
Query | :MEASure:COMParator:PEAK:LMIN? <Segment No.>,<Parameter No.>
Response |
Parameter | <Segment No.> = 1 to 20 (NR1) <Parameter No.> = 1 to 4 (NR1) <Judgment result> = 1 to 9 (NR1)
Explanation | Command |
Query | Returns the judgment result of the local minimum value and the measurement data when peak comparator measurement. The judgment results indicate the positional relationship between the judgment area and peak. If the peak is within the judgment area (IN), 5 is returned. When the judgment area setting is OFF, 0 is returned for the judgment result. For details on the judgment result values, see the following figure.
Example | Command |
Query | :MEASure:COMParator:PEAK:LMIN? 1,1
Response | :MEASURE:COMPARATOR:PEAK:LMIN 5, 901.57E+03,Z 11.20888E+03 (when HEADER ON) 5, 901.57E+03, 11.20888E+03 (when HEADER OFF) The peak comparator judgment result of the local minimum value of segment 1 and the first parameter is IN, the frequency of the sweep point is 901.57 kHz, and the measurement value is 11.20888 kļ.
Note |  | When the segment sweep setting is set to OFF, the segment number setting is disabled and fixed to segment 1. An execution error occurs when the peak could not be detected. The output data follows the MEASure:VALid setting.

### Querying the measurement data of the cursor position

Syntax | Command |
Query | :MEASure:CURSor? <A/B>
Response | This is in accordance with the :MEASure? response format.
Parameter |
Explanation | Command |
Query | Returns the measurement data of the specified cursor.
Example | Command |
Query | :MEASure:CURSor? A
Response | 16.406E+03,Z 96.85033E+00,PHASE -89.954 (when HEADER ON) 16.406E+03, 96.85033E+00, -89.954 (when HEADER OFF) The sweep frequency of the sweep point of cursor A is 16.406 kHz, the measurement value of the first parameter is 96.85033, and the measurement value of the second parameter is -89.954.
Note |  |

### Querying the measurement data of the specified sweep point

Syntax | Command |
Query | :MEASure:POINt? <Sweep point>
Response | This is in accordance with the :MEASure? response format.
Parameter | <Sweep point> = 1 to 801
Explanation | Command |
Query | Returns the measurement data of the specified sweep point.
Example | Command |
Query | :MEASure:POINt? 100
Response | 30.549E+03,Z 52.00423E+00,PHASE -89.916 (when HEADER ON) 30.549E+03, 52.00423E+00, -89.916 (when HEADER OFF) The sweep frequency of the 100th sweep point is 30.549 kHz, the measurement result of the first parameter is 52.00423, and the measurement value of the second parameter is - 89.916.
Note |  | An execution error occurs if a sweep point with no measurement data is specified. The output data follows the MEASure:VALid setting.

### Setting of the equivalent circuit analysis function and queries

Syntax | Command | :CIRCuit:ANALysis <OFF/HOLD/AUTO>
Query | :CIRCuit:ANALysis?
Response | <OFF/HOLD/AUTO>
Parameter |
Explanation | Command | Sets the model of the equivalent circuit analysis. OFF: Does not perform the equivalent circuit analysis. HOLD: Selects the equivalent circuit model manually for analysis. AUTO: Selects the optimum equivalent circuit model automatically for analysis.
Query | Returns the setting of the model of the equivalent circuit analysis.
Example | Command | :CIRCuit:ANALysis HOLD Sets to the manual selection of the equivalent circuit model.
Query | :CIRCuit:ANALysis?
Response | :CIRCUIT:ANALYSIS HOLD (when HEADER ON) HOLD (when HEADER OFF) The manual selection of the equivalent circuit model is set.
Note |  |

### Setting of the frequency range of the equivalent circuit analysis and queries

Syntax | Command | :CIRCuit:ANALysis:FREQuency <Analysis start frequency>, <analysis end frequency>
Query | :CIRCuit:ANALysis:FREQuency?
Response | <Analysis start frequency>, <analysis end frequency>
Parameter | <Analysis start frequency> = 1.0000E+06 to 300.00E+06 (NR3) <Analysis end frequency> = 1.0000E+06 to 300.00E+06 (NR3)
Explanation | Command | Sets the frequency range for which equivalent circuit analysis is performed.
Query | Returns the setting of the frequency range for which equivalent circuit analysis is performed.
Example | Command | :CIRCuit:ANALysis:FREQuency 1E6, 300E6 Performs setting so that the equivalent circuit analysis is performed using a measured value with a frequency of 1 MHz to 300 MHz.
Query | :CIRCuit:ANALysis:FREQuency?
Response | :CIRCUIT:ANALYSIS:FREQUENCY 1.0000E+06, 300.00E+06 (when HEADER ON) 1.0000E+06, 300.00E+06 (when HEADER OFF) It is set to perform the equivalent circuit analysis using a measured value with a frequency of 1 MHz to 300 MHz.
Note |  | Restricts the analysis range for normal sweeping. Set the frequency to include an extreme value in the analysis range. The analysis range of the above command is disabled during segment sweeping. The analysis range can be restricted on a segment basis using the communication command: CIRCuit:ANALysis:SEGMent.

### Setting and querying the vibration mode for calculation of the coupling coefficient (K) of an electric machine

Syntax | Command | :CIRCuit:ANALysis:K:MODE <KR/K31/K33/KT/K15>
Query | :CIRCuit:ANALysis:K:MODE?
Response | <KR/K31/K33/KT/K15>
Parameter |
Explanation | Command | Sets the vibration mode for calculation of the coupling coefficient (K) of an electric machine. KR: Calculates the coupling coefficient of an electric machine for the radial vibration. K31: Calculates the coupling coefficient of an electric machine for the extensional vibration in the longitudinal direction. K33: Calculates the coupling coefficient of an electric machine for the vertical vibration. KT: Calculates the coupling coefficient of an electric machine for the thickness vibration. K15: Calculates the coupling coefficient of an electric machine for the slip vibration.
Query | Returns to the vibration mode for calculation of coupling coefficient (K) of an electric machine.
Example | Command | :CIRCuit:ANALysis:K:MODE KR Sets the vibration mode for calculation of coupling coefficient (K) of an electric machine to the radial vibration.
Query | :CIRCuit:ANALysis:K:MODE?
Response | :CIRCUIT:ANALYSIS:K:MODE KR (when HEADER ON) KR (when HEADER OFF) The vibration mode for calculation of coupling coefficient (K) of an electric machine is set to the radial vibration.
Note |  |

### Setting and querying the frequency type for calculation of the coupling coefficient (K) of an electric machine

Syntax | Command | :CIRCuit:ANALysis:K:TYPE <FSFP/FRFA>
Query | :CIRCuit:ANALysis:K:TYPE?
Response | <FSFP/FRFA>
Parameter |
Explanation | Command | Sets the frequency type for calculation of the coupling coefficient (K) of an electric machine. FSFP: Calculates the coupling coefficient (K) of an electric machine using serial/parallel resonant frequencies. FRFA: Calculates the coupling coefficient (K) of an electric machine using resonant/antiresonant frequencies.
Query | Returns to the frequency type for calculation of coupling coefficient (K) of an electric machine.
Example | Command | :CIRCuit:ANALysis:K:TYPE FSFP Sets the frequency type for calculation of coupling coefficient (K) of an electric machine to the serial/parallel resonant frequencies.
Query | :CIRCuit:ANALysis:K:TYPE?
Response | :CIRCUIT:ANALYSIS:K:TYPE FSFP (when HEADER ON) FSFP (when HEADER OFF) The frequency type for calculation of coupling coefficient (K) of an electric machine is set to the serial/parallel resonant frequencies.
Note |  |

### Setting and querying the coefficient for calculation of the coupling coefficient (K) of an electric machine

Syntax | Command | :CIRCuit:ANALysis:K:COEFficient <Coefficient a>, <Coefficient b>
Query | :CIRCuit:ANALysis:K:COEFficient?
Response | <Coefficient a>, <Coefficient b>
Parameter | <Coefficient a> = 0.000001 to 1.000000 (NR2) <Coefficient b> = 0.000001 to 1.000000 (NR2)
Explanation | Command | Sets a different coefficient to Poisson ratio when selecting KR (radial vibration) in the vibration mode.
Query | Returns to the coefficient.
Example | Command | :CIRCuit:ANALysis:K:COEFficient 0.000001,1.000000 Sets coefficient a to 0.000001 and coefficient b to 1.000000.
Query | :CIRCuit:ANALysis:K:COEFficient?
Response | :CIRCUIT:ANALYSIS:K:COEFFICIENT 0.000001,1.000000 (when HEADER ON) 0.000001,1.000000 (when HEADER OFF) Coefficient a is set to 0.000001, and coefficient b is set to 1.000000.
Note |  |

### Setting of the equivalent circuit model and queries

Syntax | Command | :CIRCuit:ANALysis:MODel <A/B/C/D/E>
Query | :CIRCuit:ANALysis:MODel?
Response |
Parameter |
Explanation | Command | Sets the equivalent circuit model.
Query | Returns the setting of the equivalent circuit model.
Example | Command | :CIRCuit:ANALysis:MODel E Sets the equivalent circuit model to model E.
Query | :CIRCuit:ANALysis:MODel?
Response | :CIRCUIT:ANALYSIS:MODEL E (when HEADER ON) E (when HEADER OFF) The equivalent circuit model is set to model E.
Note |  |

### Queries of the R1, C1, L1, and C0 values.

Syntax | Command |
Query | :CIRCuit:ANALysis:RESult? <R1/C1/L1/C0/QM/K>
Response | <Constant>
Parameter |
Explanation | Command |
Query | Returns the R1, C1, L1, C0, Qm, and K values. Uses this query to obtain the value acquired by the equivalent circuit analysis.
Example | Command |
Query | :CIRCuit:ANALysis:RESult? L1
Response | :CIRCUIT:ANALYSIS:RESULT L1, 120.0000E-06 (when HEADER ON) 0.00012 (when HEADER OFF) The L1 value is 120 ĘH.
Note |  | When the equivalent circuit analysis is executed, each value is overwritten according to the analysis results.

### Setting of the display position of the analysis result and queries

Syntax | Command | :CIRCuit:ANALysis:RESult:POSition <UL/UR/LL/LR>
Query | :CIRCuit:ANALysis:RESult:POSition?
Response | <UL/UR/LL/LR>
Parameter |
Explanation | Command | Sets the position at which the equivalent circuit analysis result is displayed. UL: Displays the analysis result on the upper left of the graph display area. UR: Displays the analysis result on the upper right of the graph display area. LL: Displays the analysis result on the lower left of the graph display area. LR: Displays the analysis result on the lower right of the graph display area.
Query | Returns the setting of the position at which the equivalent circuit analysis result is displayed.
Example | Command | :CIRCuit:ANALysis:RESult:POSition UR Sets the position at which the equivalent circuit analysis result is displayed to the upper right.
Query | :CIRCuit:ANALysis:RESult:POSition?
Response | :CIRCUIT:ANALYSIS:RESULT:POSITION UR (when HEADER ON) UR (when HEADER OFF) The position at which the equivalent circuit analysis result is displayed is set to the upper right.
Note |  |

### Setting of the equivalent circuit analysis segment range and queries

Syntax | Command | :CIRCuit:ANALysis:SEGMent <Segment No./ALL>
Query | :CIRCuit:ANALysis:SEGMent?
Response | <Segment No./ALL>
Parameter | <Segment No.> = 1 to 20 (NR1)
Explanation | Command | Sets the segment No. for which the equivalent circuit analysis is performed.
Query | Returns the segment No. for which the equivalent circuit analysis is performed.
Example | Command | :CIRCuit:ANALysis:SEGMent 2 Performs setting so that the equivalent circuit analysis is performed using the measured value of segment No. 2.
Query | :CIRCuit:ANALysis:SEGMent?
Response | :CIRCUIT:ANALYSIS:SEGMENT 2 (when HEADER ON) 2 (when HEADER OFF) It is set to perform the equivalent circuit analysis using the measured value of segment No. 2.
Note |  | Restricts the analysis range for segment sweeping. Sets the segment No. to include an extreme value in the analysis segment. The analysis range of the above command is disabled during normal sweeping. Communication command: The analysis range can be restricted using the communication command: CIRCuit:ANALysis:SEGMent.

### Execution of frequency characteristics simulation

Syntax | Command | :CIRCuit:ANALysis:SIMulation
Query |
Response |
Parameter |
Explanation | Command | Simulates frequency characteristics using the selected equivalent circuit model and sweep range.
Query |
Example | Command | :CIRCuit:ANALysis:SIMulation Simulates frequency characteristics.
Query |
Response |
Note |  | A simulation graph will not be generated if there are no measured values.

### Execution of frequency characteristics simulation

Syntax | Command | :CIRCuit:ANALysis:SIMulation:GET
Query |
Response |
Parameter |
Explanation | Command | Acquires the result of the equivalent circuit analysis, setting it as a simulation value.
Query |
Example | Command | :CIRCuit:ANALysis:SIMulation:GET Acquires the result of the equivalent circuit analysis, setting it as a simulation value.
Query |
Response |
Note |  | Executing this command will clear the simulation result.

### Setting of frequency characteristics simulation and queries

Syntax | Command | :CIRCuit:ANALysis:SIMulation:DEFine <R1/C1/L1/C0>, <Constant>
Query | :CIRCuit:ANALysis:SIMulation:DEFine? <R1/C1/L1/C0>
Response | <Constant>
Parameter | <Constant> = 1.0E-18`+9.99999E+09 (NR3)
Explanation | Command | Sets the value of simuration.
Query | Returns the value of simuration.
Example | Command | :CIRCuit:ANALysis:SIMulation:DEFine L1, 120E-6 Sets the value of L1 to 120 uH.
Query | :CIRCuit:ANALysis:SIMulation:DEFine? L1
Response | :CIRCUIT:ANALYSIS:SIMULATION:DEFINE L1, 120.000E-06 The value of L1 is set to 120 uH.
Note |  |

### Executes the equivalent circuit analysis.

Syntax | Command | :CIRCuit:ANALysis:TRIGger
Query |
Response |
Parameter |
Explanation | Command | Executes the equivalent circuit analysis using this command when automatic equivalent circuit analysis is OFF.
Query |
Example | Command | :CIRCuit:ANALysis:TRIGger Executes the equivalent circuit analysis.
Query |
Response |
Note |  | If the equivalent circuit analysis cannot be performed, an execution error occurs.

### Setting of the automatic equivalent circuit analysis and queries

Syntax | Command | :CIRCuit:ANALysis:TRIGger:AUTO <ON/OFF>
Query | :CIRCuit:ANALysis:TRIGger:AUTO?
Response | <ON/OFF>
Parameter |
Explanation | Command | Sets the automatic equivalent circuit analysis. OFF: Does not perform the equivalent circuit analysis after measurement. ON: Performs the equivalent circuit analysis automatically after measurement.
Query | Returns the setting of the automatic equivalent circuit analysis.
Example | Command | CIRCuit:ANALysis:TRIGger:AUTO ON Sets to perform the equivalent circuit analysis automatically after measurement.
Query | :CIRCuit:ANALysis:TRIGger:AUTO?
Response | :CIRCUIT:ANALYSIS:TRIGGER:AUTO ON (when HEADER ON) ON (when HEADER OFF) It is set to perform the equivalent circuit analysis automatically after measurement.
Note |  |

### Comparator function on/off setting for analysis results and inquiry

Syntax | Command | :COMParator:CIRCuit:ANALysis <ON/OFF>
Query | :COMParator:CIRCuit:ANALysis?
Response | <ON/OFF>
Parameter |
Explanation | Command | Configures the comparator function setting for equivalent circuit analysis results.
Query | Returns the comparator function setting for equivalent circuit analysis results.
Example | Command | :COMParator:CIRCuit:ANALysis ON Turns on the comparator function for equivalent circuit analysis results.
Query | :COMParator:CIRCuit:ANALysis?
Response | :COMPARATOR:CIRCUIT:ANALYSIS ON (when HEADER ON) ON (when HEADER OFF) The comparator function for equivalent circuit analysis results has been set to on.
Note |  |

### Comparator upper and lower value settings for analysis results and inquiry

Syntax | Command | :COMParator:CIRCuit:ANALysis:ABSolute <L1/C1/R1/QM/C0>, <Off/lower limit value>, <Off/upper limit value>
Query | :COMParator:CIRCuit:ANALysis:ABSolute? <L1/C1/R1/QM/C0>
Response | <L1/C1/R1/QM/C0>, <Off/lower limit value>, <Off/upper limit value>
Parameter | <Lower limit value> = -9.99999E+09 to 9.99999E+09 (NR3) <Upper limit value> = -9.99999E+09 to 9.99999E+09 (NR3)
Explanation | Command | Sets the upper and lower limit values for the comparator function for equivalent circuit analysis results. No judgment is made if both the upper and lower limit values are set to off.
Query | Returns the upper and lower limit values for the comparator function for equivalent circuit analysis results.
Example | Command | :COMParator:CIRCuit:ANALysis:ABSolute R1, 20, 23 Sets the upper and lower limit values for the comparator function for equivalent circuit analysis results to 23ļ and 20ļ, respectively.
Query | :COMParator:CIRCuit:ANALysis:ABSolute? R1
Response | :COMPARATOR:CIRCUIT:ANALYSIS:ABSOLUTE R1,20.00000E+00,23.00000E+00 (when HEADER ON) R1,20.00000E+00,23.00000E+00 (when HEADER OFF) The upper and lower limit values for the comparator function for equivalent circuit analysis have been set to 23ļ and 20ļ, respectively.
Note |  |

### Comparator judgment results for analysis results inquiry

Syntax | Command |
Query | :MEASure:ANALysis:COMParator?
Response | ModelA to D: <Equivalent circuit analysis overall judgment result>, <R1 judgment result>, <L1 judgment result>, <C1 judgment result>,<Qm judgment result> ModelE: <Equivalent circuit analysis overall judgment result>, <R1 judgment result>, <L1 judgment result>, <C1 judgment result>, <C0 judgment result>, <Qm judgment result>
Parameter | <Judgment result> = -1/0/1/2
Explanation | Command |
Query | Returns the comparator function judgment result for the equivalent circuit analysis result. -1: LO judgment. 0: IN judgment. 1: HI judgment. 2: Comparator is not judged.
Example | Command |
Query | :MEASure:ANALysis:COMParator?
Response | 1,2,0,2,2 (when HEADER ON) 1,2,0,2,2 (when HEADER OFF) The comparator function judgment result for the equivalent circuit analysis result for model A is as follows. Total equivalent circuit analysis judgment result: IN R1 judgment result: Not judged L1 judgment result: IN C1 judgment result: Not judged Qm judgment result: Not judged
Note |  |

### Difference between measured value and simulation value inquiry

Syntax | Command |
Query | :MEASure:ANALysis:DELTa?
Response | <Parameter 1 difference>, <Parameter 2 difference>, <Parameter 3 difference>, <Parameter 4 difference>
Parameter |
Explanation | Command |
Query | Returns the difference between the measured value and simulation value.
Example | Command |
Query | :MEASure:ANALysis:DELTa?
Response | 18.18248E-03, 10.36238E+00, OFF, OFF (when HEADER OFF) The difference between the measured value of the 1st parameter and simulation value is 18.18248E-03, and the measured value of the 2nd parameter and simulation value is 10.36238E+00. Simulation is not performed for the 3rd and 4th parameters.
Note |  | The frequency range that was analyzed or the frequency range for the segment number that was analyzed is used as the range for calculating this difference. Executing this query while no simulation is being performed will return the value "OFF". The response message does not include a header.

### Acquisition of local extreme value frequency and measured values (models A to E only)

Syntax | Command |
Query | :MEASure:ANALysis:PEAK? <Z/G/B/RS>, <LMAX/LMIN>
Response | <Frequency>, <Measurement value>
Parameter |
Explanation | Command |
Query | Searches extreme values and returns the frequency and measured value. This query allows you to acquire the extreme value for the parameter specified by the command data, regardless of the currently set measurement parameter. Z: Impedance (ļ) G: Conductance (S) B: Susceptance (S) RS: Series equivalent circuit mode execution resistance = ESR (ļ)
Example | Command |
Query | :MEASure:ANALysis:PEAK? G, LMAX
Response | 10.000E+03,500.000E+03 The G (conductance) maximum frequency is 10 kHz, and the value is 500 kS.
Note |  | An execution error occurs when the main sweep measurement signal is not FREQ. The frequency range that was analyzed or the frequency range for the segment number that was analyzed is used as the range for searching. If an external value cannot be detected, "99999E+28" and "9999999E+28" are returned. A header is not attached to the response message.

### Simulation value inquiry

Syntax | Command |
Query | :MEASure:ANALysis:SIMulation? <Parameter No.>
Response | <Simulation value>, <Simulation value>, ... , (repeated for each sweep point)
Parameter | <Parameter No.> = 1 to 4 (NR1)
Explanation | Command |
Query | Returns the simulation values for the frequency characteristics. Values are comma-delimited.
Example | Command |
Query | :MEASure:ANALysis:SIMulation? 1
Response | 753.982E-03, 780.447E-03, 807.892E-03, 836.317E-03, c Acquires the PARA1 simulation value.
Note |  | The response message does not include a header.

### Setting of the display method of the open calibration and compensation and queries

Syntax | Command | :CORRection:FORMat:OPEN <Display method>
Query | :CORRection:FORMat:OPEN?
Response | <Display method>
Parameter | <Display method> = 1/2 (NR1)
Explanation | Command | Sets the display method of the open calibration and compensation. 1:G-Cp 2:G-B
Query | Returns the setting of the display method of the open calibration and compensation.
Example | Command | :CORRection:FORMat:OPEN 2 Sets the display method of the open calibration and compensation to G-B.
Query | :CORRection:FORMat:OPEN?
Response | :CORRECTION:FORMAT:OPEN 2 (when HEADER ON) 2 (when HEADER OFF) The display method of the open calibration and compensation is set to G-B.
Note |  |

### Setting of the display method of the short calibration and compensation and queries

Syntax | Command | :CORRection:FORMat:SHORt <Display method>
Query | :CORRection:FORMat:SHORt?
Response | <Display method>
Parameter | <Display method> = 1/2 (NR1)
Explanation | Command | Sets the display method of the short calibration and compensation. 1:Rs-Ls 2:Rs-X
Query | Returns the setting of the display method of the short calibration and compensation.
Example | Command | :CORRection:FORMat:SHORt 2 Sets the display method of the short calibration and compensation to Rs-X.
Query | :CORRection:FORMat:SHORt?
Response | :CORRECTION:FORMAT:SHORT 2 (when HEADER ON) 2 (when HEADER OFF) The display method of the short calibration and compensation is set to Rs-X.
Note |  |

### Setting of the display method of the load calibration and compensation and queries

Syntax | Command | :CORRection:FORMat:LOAD <Display method>
Query | :CORRection:FORMat:LOAD?
Response | <Display method>
Parameter | <Display method> = 1/2/3/4/5/6/7/8/9/10 (NR1)
Explanation | Command | Sets the display method of the load calibration and compensation. 1:Z-Æ 2:Cs-D 3:Rs-Cs 4:Cp-D 5:Rp-Cp 6:Ls-Q 7:Rs-Ls 8:Lp-Q 9:Rp-Lp 10:Rs-X
Query |
Example | Command | :CORRection:FORMat:LOAD 2 Sets the display method of the load calibration and compensation to Cs-D.
Query | :CORRection:FORMat:LOAD?
Response | :CORRECTION:FORMAT:LOAD 2 (when HEADER ON) 2 (when HEADER OFF) The display method of the load calibration and compensation is set to Cs-D.
Note |  |

### Setting of the frequency range of the ALL calibration and compensation and queries

Syntax | Command | :CORRection:LIMit:POINt <Compensation minimum frequency>, <Compensation maximum frequency>
Query | :CORRection:LIMit:POINt?
Response | <Compensation minimum frequency>, <Compensation maximum frequency>
Parameter | <Frequency> = 1.0000E+06 to 300.00E+06 (NR1) <Frequency> = 1.0000E+06 to 300.00E+06 (NR3)
Explanation | Command | Sets the frequency range of the ALL calibration and compensation. An error occurs during SPOT calibration and compensation selection.
Query | Returns the setting of the frequency range of the ALL calibration and compensation. An error occurs during SPOT calibration and compensation selection.
Example | Command | :CORRection:LIMit:POINt 1E6, 300E6 Sets the frequency range of the ALL calibration and compensation to 1 MHz to 300 MHz.
Query | :CORRection:LIMit:POINt?
Response | :CORRECTION:LIMIT:POINT 1.0000E+06, 300.00E+06 (when HEADER ON) 1.0000E+06, 300.00E+06 (when HEADER OFF) The frequency range of the ALL calibration and compensation is set to 1 MHz to 300 MHz.
Note |  |

### Setting of the electrical length for calibration and compensation and queries

Syntax | Command | :CORRection:DISTance <Electrical length>
Query | :CORRection:DISTance?
Response | <Electrical length>
Parameter | <Electrical length> = 0.0000 to 100.000E-03 (NR3)
Explanation | Command | Sets the electrical length for calibration and compensation.
Query | Returns the setting of the electrical length for calibration and compensation.
Example | Command | :CORRection:DISTance 10E-3 Sets the electrical length for calibration and compensation to 100 mm.
Query | :CORRection:DISTance?
Response | :CORRECTION:DISTANCE 100.000E-03 (when HEADER ON) 100.000E-03 (when HEADER OFF) The electrical length for calibration and compensation is set to 100 mm.
Note |  |

### Queries for the calibration and compensation execution result

Syntax | Command |
Query | :CORRection:ERRor?
Response | <Result>
Parameter | <Result> = 0/1/2 (NR1)
Explanation | Command |
Query | Returns the result of the last calibration and compensation. 0F Calibration and compensation finished normally. 1F Calibration and compensation are finished due to an error. 2F Calibration and compensation are canceled.
Example | Command |
Query | :CORRection:ERRor?
Response | :CORRECTION:ERROR 0 (when HEADER ON) 0 (when HEADER OFF) The last calibration and compensation finished normally.
Note |  | Returns 1 when calibration and compensation are not executed after startup.

### Setting of the calibration and queries

Syntax | Command | :CORRection:CALIbration:RETurn LCR mode: <OFF/ALL/SPOT> / analyzer mode: <OFF/SPOT>
Query | :CORRection:CALIbration:RETurn?
Response | LCR mode: <OFF/ALL/SPOT> Analyzer mode: <OFF/SPOT>
Parameter |
Explanation | Command | Sets the calibration function. OFF: Does not perform a calibration. ALL: Performs an ALL calibration. SPOT: Performs a SPOT calibration.
Query | Returns the setting of the calibration function.
Example | Command | :CORRection:CALIbration:RETurn SPOT Sets to perform the SPOT calibration.
Query | :CORRection:CALIbration:RETurn?
Response | :CORRECTION:CALIBRATION:RETURN SPOT (when HEADER ON) SPOT (when HEADER OFF) It is set to perform the SPOT calibration.
Note |  |

### Calibration resetting

Syntax | Command | :CORRection:CALIbration:RESet <Calibration No./ALL/DC>, <DATA/REFerence>
Query |
Response |
Parameter | <Calibration No.> = 1 to 5((LCR mode, SPOT), 1`801(analyzer mode, SPOT), 1`102(ALL) / <ALL> = All calibration point / <DC> = DC calibration <DATA> = Measurement value / <REFerence> = Reference value
Explanation | Command | Clears the reference value and measured value of the calibration.
Query |
Example | Command | :CORRection:CALIbration:RESet ALL,DATA Clears the measured values for all calibration points.
Query |
Response |
Note |  | Command examples are as follows: :CORRection:CALIbration:RESet@3, DATA Clears the measured value for the third calibration points. :CORRection:CALIbration:RESet@3, REFerence Clears the reference value for the third calibration points. :CORRection:CALIbration:RESet@DC, DATA Clears the measured value for the DC calibration. :CORRection:CALIbration:RESet@DC, REFerence Clears the reference value for the DC calibration.

### Setting of the frequency for the calibration point and queries

Syntax | Command | :CORRection:CALIbration:FREQuency <Calibration No.>, <frequency/OFF>
Query | :CORRection:CALIbration:FREQuency? <Calibration No.>
Response | <Frequency/OFF>
Parameter | <Calibration No.> = 1 to 5 (LCR mode, SPOT)/1 to 801 (analyzer mode, SPOT)/1 to 102 (ALL) (NR1) <Frequency> = 1.0000E+06 to 300.00E+06 (NR3)
Explanation | Command | For the SPOT calibration, sets the frequency of the specified calibration No. For the ALL calibration, the frequency cannot be set. An execution error occurs. ?OFF: Disables the SPOT calibration of the specified calibration No. Frequency: Sets the SPOT calibration frequency of the specified calibration No.
Query | Returns the frequency of the specified calibration No. OFF: The frequency of the specified calibration No. is not set. Frequency: Returns the frequency of the specified calibration No.
Example | Command | :CORRection:CALIbration:FREQuency 1, 2E6 Sets the calibration frequency to 2 MHz for calibration No. 1.
Query | :CORRection:CALIbration:FREQuency? 1
Response | :CORRECTION:CALIBRATION:FREQUENCY 2.0000E+06 (when HEADER ON) 2000000 (when HEADER OFF) The calibration frequency is set to 2 MHz for calibration No. 1.
Note |  |

### Setting of the level value for the calibration point and queries

Syntax | Command | :CORRection:CALIbration:LEVel <P/V/I>, <Calibration No./ALL>, <level value/OFF>
Query | :CORRection:CALIbration:LEVel? <P/V/I>, <Calibration No.>
Response | <Level value/OFF>
Parameter | <Level mode.> = P:Power / V:Voltage / I:Current <Calibration No.> = 1 to 5 (LCR mode, SPOT)/1 to 801 (analyzer mode, SPOT) (NR1) <Level value> = -40.0 to 7.0 dBm(P) / 4 to 1001 mV(V) / 0.09 to 20.02 mA(I) (NR2)
Explanation | Command | Sets the level for the SPOT calibration. This command is enabled only in the LCR mode. When the calibration No. is ALL, sets the level values for all calibration points.
Query | The query command is enabled only in the LCR and analyzer modes. Returns the level value for the SPOT calibration.
Example | Command | :CORRection:CALIbration:LEVel P, 1, 1.0 Sets the level value to 1 dBm for the SPOT calibration for calibration No. 1.
Query | :CORRection:CALIbration:LEVel? V, 1
Response | :CORRECTION:CALIBRATION:LEVEL 502E-03 (when HEADER ON) 0.502 (when HEADER OFF) The level value for the SPOT calibration for calibration No. 1 is set to 502mV(Voltage mode).
Note |  |

### Setting of the calibration point speed and queries

Syntax | Command | :CORRection:CALIbration:SPEEd SPOT calibration: <calibration No./ALL>, <FAST/MEDium/SLOW/SLOW2/CUSTom>, ALL calibration: <FAST/MEDium/SLOW/SLOW2/CUSTom>
Query | :CORRection:CALIbration:SPEEd? SPOT calibration: <calibration No.>/ ALL calibration: none
Response | <FAST/MEDIUM/SLOW/SLOW2/CUSTOM/OFF>
Parameter | <Calibration No.> = 1 to 5 (LCR)/1 to 801 (analyzer) (NR1)
Explanation | Command | Sets the measurement speed for calibration. This command is enabled only in the LCR mode. When the calibration No. is ALL, sets the measurement speed for all calibration points.
Query | Returns the setting of the measurement speed for calibration. The query command is enabled for the LCR and analyzer mode.
Example | Command | :CORRection:CALIbration:SPEEd 1, MEDium Sets the measurement speed to medium for the calibration No. 1 point.
Query | :CORRection:CALIbration:SPEEd? 1
Response | :CORRECTION:CALIBRATION:SPEED MEDIUM The measurement speed is set to medium for the calibration No. 1 point.
Note |  |

### Setting of the number of waveforms for the calibration point and queries

Syntax | Command | :CORRection:CALIbration:WAVE SPOT calibration: <calibration No./ALL>, <number of waveforms>, ALL calibration: <number of waveforms>
Query | :CORRection:CALIbration:WAVE? SPOT calibration: <calibration No.>/ ALL calibration: none
Response | <Number of waveforms>
Parameter | <Calibration No.> = 1 to 5 (LCR mode)/1 to -801 (analyzer mode) (NR1) <Number of waveforms> = 8 to 87 (NR1)
Explanation | Command | Sets the measurement speed for the calibration No. point using the number of waveforms. (When the measurement speed is custom) This command is enabled only in the LCR mode. When the calibration No. is ALL, sets the measurement speed for all calibration points.
Query | Returns the measurement speed setting for the calibration No. point using the number of waveforms. (When the measurement speed is custom)
Example | Command | :CORRection:CALIbration:WAVE 1, 8 Sets the number of waveforms of the measurement speed for calibration to 8.
Query | :CORRection:CALIbration:WAVE? 1
Response | :CORRECTION:CALIBRATION:WAVE 8 (when HEADER ON) 8 (when HEADER OFF) The number of waveforms of the measurement speed for calibration is set to 8.
Note |  |

### Execution and cancellation of open calibration

Syntax | Command | :CORRection:CALIbration:OPEN <AC/DC/ACDC/CANCel>
Query |
Response |
Parameter |
Explanation | Command | Performs setting of the open calibration function, loading of the calibration value, and cancellation of loading. AC: Performs the AC measurement. DC: Performs the DC measurement. ACDC: Performs the AC+DC measurement. CANCEL: Cancels the acquisition of the calibration value.
Query |
Example | Command | :CORRection:CALIbration:OPEN ACDC Obtains the open calibration value for the ACDC measurement.
Query |
Response |
Note |  | Calibration cannot be executed during measurement, and an execution error occurs. Execute the command after changing to an external trigger for the LCR mode, or to sequential sweep or step sweep for the analyzer mode. An execution error occurs if the command for changing the environment settings is executed during calibration. Also, be sure to avoid executing commands other than ones for checking each status register (*ESR?, ESR0?, etc.).

### Setting of the reference value for open calibration and queries

Syntax | Command | :CORRection:CALIbration:OPEN:REFerence <Calibration No./ALL/DC>, <reference value 1>, <reference value 2 *disabled for DC>
Query | :CORRection:CALIbration:OPEN:REFerence? <Calibration No./DC>
Response | <Reference value 1>, <reference value 2 *no for DC>
Parameter | <Calibration No.> = SPOT: 1 to 5 (LCR mode)/1 to 801 (analyzer mode), ALL: 1 to 102 (NR1) <Reference value 1> = The settable range varies depending on the reference value mode. (NR3) <Reference value 2> = The settable range varies depending on the reference value mode. (NR2/NR3)
Explanation | Command | Sets the reference value for open calibration. When the calibration No. is ALL, sets the reference values for all calibration points. When the calibration No. is DC, sets the reference values for DC measurement.
Query | Returns the reference value for open calibration. When the calibration No. is DC, returns the reference values for DC measurement.
Example | Command | :CORRection:CALIbration:OPEN:REFerence 1, 10e-9, 0.00014 Sets reference value 1 for calibration No. 1 to 10 nF, and reference value 2 to 0.00014.
Query | :CORRection:CALIbration:OPEN:REFerence? 1
Response | :CORRECTION:CALIBRATION:OPEN:REFERENCE 10.0000E-09, 140.000E-06 (when HEADER ON) 10.0000E-09, 140.000E-06 (when HEADER OFF) Reference value 1 for calibration No. 1 is set to 10 nF, and reference value 2 to 0.00014.
Note |  |

### Queries for the calibration value for open calibration

Syntax | Command |
Query | :CORRection:CALIbration:OPEN:DATA? SPOT compensation: <compensation No./DC>/ ALL compensation: <compensation No./ALL/DC>
Response | SPOT calibration: <frequency>, <calibration value 1>, <calibration value 2> Note: For DC, calibration value 1 only ALL calibration: <frequency>, <+7 dBm: calibration value 1>, <+7 dBm: calibration value 2>, <-3 dBm: calibration value 1>, <-3 dBm: calibration value 2>, <-23 dBm: calibration value 1>, <-23 dBm: calibration value 2>, <-30 dBm: calibration value 1>, <-30 dBm: calibration value 2> Note: For DC, one calibration value only.
Parameter | <Calibration No.> = SPOT: 1 to 5 (LCR mode)/1 to 801 (analyzer mode), ALL: 1 to 102 (NR1) <Frequency> = 1.0000E+06 to 300.00E+06 (NR3) <Calibration values> = -9.99999E+09 to 9.99999E+09 (NR3)
Explanation | Command |
Query | Returns the open calibration value. When calibration is not executed, the calibration value is "0.0000E+00". When the frequency is not set, the frequency is "OFF". When ALL is specified for an argument for ALL calibration, all point data is output as a comma-delimited file.
Example | Command |
Query | :CORRection:CALIbration:OPEN:DATA? 1
Response | 1.0000E+06,-168.329E-03,-17.2696E-03,-168.131E-03,-17.2370E-03,-167.867E-03,-17.3651E-03,-167.751E-03,-17.3997E-03 Returns the calibration value for open calibration of calibration No. 1.
Note |  | The calibration value output format differs depending on the display method setting for the open calibration and compensation. A header is not provided for the response message.

### Setting of the lower limit value for open calibration and queries

Syntax | Command | :CORRection:CALIbration:OPEN:LIMit <OFF/lower limit value>
Query | :CORRection:CALIbration:OPEN:LIMit?
Response | <OFF/lower limit value>
Parameter | <Lower limit values> = -9.99999E+09 to +9.99999E+09 (NR3)
Explanation | Command | Sets the lower limit value for open calibration.
Query | Returns the lower limit value for open calibration.
Example | Command | :CORRection:CALIbration:OPEN:LIMit 234.560E-06 Sets the lower limit value for open calibration to 234.560E-06.
Query | :CORRection:CALIbration:OPEN:LIMit?
Response | :CORRECTION:CALIBRATION:OPEN:LIMIT 234.560E-06 (when HEADER ON) 234.560E-06 (when HEADER OFF) The lower limit value for open calibration is set to 234.560E-06.
Note |  |

### Execution and cancellation of short calibration

Syntax | Command | :CORRection:CALIbration:SHORt <AC/DC/ACDC/CANCel>
Query |
Response |
Parameter |
Explanation | Command | Performs setting of the short calibration function, loading of the calibration value, and cancellation of loading. AC: Performs the AC measurement. DC: Performs the DC measurement. ACDC: Performs the AC+DC measurement. CANCEL: Cancels the acquisition of the calibration value.
Query |
Example | Command | :CORRection:CALIbration:SHORt ACDC Obtains the short calibration value using the ACDC measurement.
Query |
Response |
Note |  | Calibration cannot be executed during measurement, and an execution error occurs. Execute the command after changing to an external trigger for the LCR mode, or to sequential sweep or step sweep for the analyzer mode. An execution error occurs if the command for changing the environment settings is executed during calibration. Also, be sure to avoid executing commands other than ones for checking each status register (*ESR?, ESR0?, etc.).

### Setting of the reference value for short calibration and queries

Syntax | Command | :CORRection:CALIbration:SHORt:REFerence <Calibration No./ALL/DC>, <reference value 1>, <reference value 2 *disabled for DC>
Query | :CORRection:CALIbration:SHORt:REFerence? <Calibration No./DC>
Response | <Reference value 1>, <reference value 2 *no for DC>
Parameter | <Calibration No.> = SPOT: 1 to 5 (LCR mode)/1 to 801 (analyzer mode), ALL: 1 to 102 (NR1) <Reference value 1> = The settable range varies depending on the reference value mode. (NR3) <Reference value 2> = The settable range varies depending on the reference value mode. (NR2/NR3)
Explanation | Command | Sets the reference value for short calibration. When the calibration No. is ALL, sets the reference values for all calibration points. When the calibration No. is DC, sets the reference values for DC measurement.
Query | Returns the reference value for short calibration. When the calibration No. is DC, returns the reference values for DC measurement.
Example | Command | :CORRection:CALIbration:SHORt:REFerence 1, 10e-9, 0.00014 Sets reference value 1 for calibration No. 1 to 10 nF, and reference value 2 to 0.00014.
Query | :CORRection:CALIbration:SHORt:REFerence? 1
Response | :CORRECTION:CALIBRATION:SHORT:REFERENCE 10.0000E-09, 140.000E-06 (when HEADER ON) 10.0000E-09, 140.000E-06 (when HEADER OFF) Reference value 1 for calibration No. 1 is set to 10 nF, and reference value 2 to 0.00014.
Note |  |

### Queries for the short calibration value

Syntax | Command |
Query | :CORRection:CALIbration:SHORt:DATA? SPOT compensation: <compensation No./DC>/ ALL compensation: <compensation No./ALL/DC>
Response | SPOT calibration: <frequency>, <calibration value 1>, <calibration value 2> Note: For DC, calibration value 1 only ALL calibration: <frequency>, <+7 dBm: calibration value 1>, <+7 dBm: calibration value 2>, <-3 dBm: calibration value 1>, <-3 dBm: calibration value 2>, <-23 dBm: calibration value 1>, <-23 dBm: calibration value 2>, <-30 dBm: calibration value 1>, <-30 dBm: calibration value 2> Note: For DC, one calibration value only.
Parameter | <Calibration No.> = SPOT: 1 to 5 (LCR mode)/1 to 801 (analyzer mode), ALL: 1 to 102 (NR1) <Frequency> = 1.0000E+06 to 300.00E+06 (NR3) <Calibration values> = -9.99999E+09 to 9.99999E+09 (NR3)
Explanation | Command |
Query | Returns the calibration value for short calibration. When calibration is not executed, the calibration value is "0.0000E+00". When the frequency is not set, the frequency is "OFF". When ALL is specified for an argument for ALL calibration, all point data is output as a comma-delimited file.
Example | Command |
Query | :CORRection:CALIbration:SHORt:DATA? 1
Response | 1.0000E+06,-5.87981E+00, 602.905E-03,-5.88537E+00, 603.450E-03,-5.89728E+00, 606.276E-03,-5.89881E+00, 615.916E-03 Returns the calibration value for short calibration of calibration No. 1.
Note |  | The calibration value output format differs depending on the display method setting for the short calibration and compensation. A header is not provided for the response message.

### Setting of the upper limit value for short calibration and queries

Syntax | Command | :CORRection:CALIbration:SHORt:LIMit <OFF/upper limit value>
Query | :CORRection:CALIbration:SHORt:LIMit?
Response | <OFF/upper limit value>
Parameter | <Upper limit values> = -9.99999E+09 to +9.99999E+09 (NR3)
Explanation | Command | Sets the upper limit value for short calibration.
Query | Returns the setting of the upper limit value for short calibration.
Example | Command | :CORRection:CALIbration:SHORt:LIMit 1.23456 Sets the upper limit value for short calibration to 1.23456.
Query | :CORRection:CALIbration:SHORt:LIMit?
Response | :CORRECTION:CALIBRATION:SHORT:LIMIT 1.23456E+00 (when HEADER ON) 1.23456E+00 (when HEADER OFF) The upper limit value for short calibration is set to 1.23456.
Note |  |

### Execution and cancellation of load calibration

Syntax | Command | :CORRection:CALIbration:LOAD <AC/DC/ACDC/CANCel>
Query |
Response |
Parameter |
Explanation | Command | Performs setting of the load calibration function, loading of the calibration value, and cancellation of loading. AC: Performs the AC measurement. DC: Performs the DC measurement. AC+DC: Performs the AC+DC measurement. CANCEL: Cancels the acquisition of the calibration value.
Query |
Example | Command | :CORRection:CALIbration:LOAD ACDC Obtains the load calibration value using the ACDC measurement.
Query |
Response |
Note |  | Calibration cannot be executed during measurement, and an execution error occurs. Execute the command after changing to an external trigger for the LCR mode, or to sequential sweep or step sweep for the analyzer mode. An execution error occurs if the command for changing the environment settings is executed during calibration. Also, be sure to avoid executing commands other than ones for checking each status register (*ESR?, ESR0?, etc.).

### Setting of the reference value for load calibration and queries

Syntax | Command | :CORRection:CALIbration:LOAD:REFerence <Calibration No./ALL/DC>, <reference value 1>, <reference value 2 *disabled for DC>
Query | :CORRection:CALIbration:LOAD:REFerence? <Calibration No./DC>
Response | <Reference value 1>, <reference value 2 *disabled for DC>
Parameter | <Calibration No.> = SPOT: 1 to 5 (LCR mode)/1 to 801 (analyzer mode), ALL: 1 to 102 (NR1) <Reference value 1> = The settable range varies depending on the reference value mode. (NR3) <Reference value 2> = The settable range varies depending on the reference value mode. (NR2/NR3)
Explanation | Command | Sets the reference value for load calibration. When the calibration No. is ALL, sets the reference values for all calibration points. When the calibration No. is DC, sets the reference values for DC measurement.
Query | Returns the reference value for load calibration. When the calibration No. is DC, returns the reference values for DC measurement.
Example | Command | :CORRection:CALIbration:LOAD:REFerence 1, 10e-9, 0.00014 Sets reference value 1 for calibration No. 1 to 10 nF, and reference value 2 to 0.00014.
Query | :CORRection:CALIbration:LOAD:REFerence? 1
Response | :CORRECTION:CALIBRATION:LOAD:REFERENCE 10.0000E-09, 140.000E-06 (when HEADER ON) 10.0000E-09, 140.000E-06 (when HEADER OFF) Reference value 1 for calibration No. 1 is set to 10 nF, and reference value 2 to 0.00014.
Note |  |

### Queries for the load calibration value

Syntax | Command |
Query | :CORRection:CALIbration:LOAD:DATA? SPOT compensation: <compensation No./DC>/ ALL compensation: <compensation No./ALL/DC>
Response | SPOT calibration: <frequency>, <calibration value 1>, <calibration value 2> Note: For DC, calibration value 1 only ALL calibration: <frequency>, <+7 dBm: calibration value 1>, <+7 dBm: calibration value 2>, <-3 dBm: calibration value 1>, <-3 dBm: calibration value 2>, <-23 dBm: calibration value 1>, <-23 dBm: calibration value 2>, <-30 dBm: calibration value 1>, <-30 dBm: calibration value 2> Note: For DC, one calibration value only.
Parameter | <Calibration No.> = SPOT: 1 to 5 (LCR mode)/1 to 801 (analyzer mode), ALL: 1 to 102 (NR1) <Frequency> = 1.0000E+06 to 300.00E+06 (NR3) <Calibration values> = -9.99999E+09 to 9.99999E+09 (NR3)
Explanation | Command |
Query | Returns the load calibration value. When calibration is not executed, the calibration value is "0.0000E+00". When the frequency is not set, the frequency is "OFF". When ALL is specified for an argument for ALL calibration, all point data is output as a comma-delimited file.
Example | Command |
Query | :CORRection:CALIbration:LOAD:DATA? 1
Response | 1.0000E+06,-268.072E-09,-9.91283E+00,-268.149E-09,-9.92681E+00,-264.962E-09,-9.82472E+00,-264.493E-09,-9.80054E+00 Returns the calibration value for load calibration of calibration No. 1.
Note |  | The calibration value output format differs depending on the display method setting for the load calibration and compensation. A header is not provided for the response message.

### Setting of the upper and lower limit values for load calibration and queries

Syntax | Command | :CORRection:CALIbration:LOAD:LIMit <OFF/lower limit value>, <OFF/upper limit value>
Query | :CORRection:CALIbration:LOAD:LIMit?
Response | <OFF/lower limit value>, <OFF/upper limit value>
Parameter | <Lower limit values> = -9.99999E+09 to +9.99999E+09 (NR3) <Upper limit values> = -9.99999E+09 to +9.99999E+09 (NR3)
Explanation | Command | Sets the upper and lower limit values for load calibration.
Query | Returns the upper and lower limit values for load calibration.
Example | Command | :CORRection:CALIbration:LOAD:LIMit 234.560E-06,1.23456 Sets the upper and lower limit values for load calibration to 1.23456 and 234.560E-06, respectively.
Query | :CORRection:CALIbration:LOAD:LIMit?
Response | :CORRECTION:CALIBRATION:LOAD:LIMIT 234.560E-06, 1.23456E+00 (when HEADER ON) 234.560E-06, 1.23456E+00 (when HEADER OFF) The upper and lower limit values for load calibration are set to 1.23456 and 234.560E-06, respectively.
Note |  |

### Setting of compensation and queries

Syntax | Command | :CORRection:COMPensation:RETurn <OFF/ON>
Query | :CORRection:COMPensation:RETurn?
Response | <OFF/ON>
Parameter |
Explanation | Command | Sets the compensation function. OFF: Does not perform a compensation. ON: Performs a compensation.
Query | Returns the setting of the compensation function.
Example | Command | :CORRection:COMPensation:RETurn ON Executes setting to perform a compensation.
Query | :CORRection:COMPensation:RETurn?
Response | :CORRECTION:COMPENSATION:RETURN ON (when HEADER ON) ON (when HEADER OFF) It is set to perform a compensation.
Note |  |

### Compensation resetting

Syntax | Command | :CORRection:COMPensation:RESet <Compensation No./ALL/DC>, <DATA/REFerence>
Query |
Response |
Parameter | <Compensation No.> = 1`5(LCR mode, SPOT), 1`801(analyzer mode SPOT), 1`102(ALL) / <ALL> = All compensation point / <DC> = DC compensation <DATA> = Measurement value / <REFerence> = Reference value
Explanation | Command | Clears the parameter, reference value, and measured value of the compensation.
Query |
Example | Command | :CORRection:COMPensation:RESet ALL,DATA Clears the parameter, reference value, and measured value of the compensation.
Query |
Response |
Note |  | Command examples are as follows: :CORRection:COMPensation:RESet@3, DATA Clears the measured value for the third compensation points. :CORRection:COMPensation:RESet@3, REFerence Clears the reference value for the third compensation points. :CORRection:COMPensation:RESet@DC, DATA Clears the measured value for the DC compensation. :CORRection:COMPensation:RESet@DC, REFerence Clears the reference value for the DC compensation.

### Queries for the frequency for the compensation point

Syntax | Command |
Query | :CORRection:COMPensation:FREQuency? <Compensation No.>
Response | <Frequency/OFF>
Parameter | <CompensationNo.> = 1 to 5 (LCR mode, SPOT)/1 to 801 (analyzer mode SPOT)/1 to 102 (ALL) (NR1)
Explanation | Command | The frequency of the compensation No. cannot be changed. To change the frequency, use the command shown below. :CORRection:CALIbration:FREQuency
Query | Returns the frequency of the specified compensation No. OFF: The frequency of the specified compensation No. is not set. Frequency: Returns the frequency of the specified compensation No.
Example | Command |
Query | :CORRection:COMPensation:FREQuency? 1
Response | :CORRECTION:COMPENSATION:FREQUENCY 2.0000E+06 (when HEADER ON) 2000000 (when HEADER OFF) The compensation frequency is set to 2 MHz for compensation No. 1.
Note |  |

### Queries for the level value for the compensation point

Syntax | Command |
Query | :CORRection:COMPensation:LEVel? <P/V/I>, <Compensation No.>
Response | <Level value/OFF>
Parameter | <Level mode.> = P:Power / V:Voltage / I:Current <Compensation No.> = 1 to 5 (LCR mode, SPOT)/1 to 801 (analyzer mode, SPOT) (NR1)
Explanation | Command | The compensation level cannot be changed. To change the level, use the command shown below. :CORRection:CALIbration:LEVel
Query | The query command is enabled only in the LCR and analyzer modes. Returns the level value for the SPOT compensation.
Example | Command |
Query | :CORRection:COMPensation:LEVel? V, 1
Response | :CORRECTION:COMPENSATION:LEVEL 502E-03 (when HEADER ON) 0.502 (when HEADER OFF) The level value for the SPOT compensation for compensation No. 1 is set to 502mV(Voltage mode).
Note |  |

### Queries for the compensation point speed

Syntax | Command |
Query | :CORRection:COMPensation:SPEEd? SPOT compensation: <compensation No.>/ ALL compensation: none
Response | <FAST/MEDIUM/SLOW/SLOW2/CUSTOM/OFF>
Parameter | <Compensation No.> = 1 to 5 (LCR)/1 to 801 (analyzer) (NR1)
Explanation | Command | The compensation speed cannot be set. To change the setting, use the command shown below. :CORRection:CALIbration:SPEEd
Query | Returns the setting of the measurement speed for compensation. The query command is enabled for the LCR and analyzer mode.
Example | Command |
Query | :CORRection:COMPensation:SPEEd? 1
Response | :CORRECTION:COMPENSATION:SPEED MEDIUM (when HEADER ON) MEDIUM (when HEADER OFF) The measurement speed for compensation is set to medium.
Note |  |

### Queries for the number of waveforms for the compensation point

Syntax | Command | :CORRection:COMPensation:WAVE
Query | :CORRection:COMPensation:WAVE? SPOT compensation: <compensation No.>/ ALL compensation: none
Response | <Number of waveforms>
Parameter | <Compensation No.> = 1 to 5 (LCR mode)/1 to -801 (analyzer mode) (NR1)
Explanation | Command | The number of waveforms of the compensation point cannot be changed. To change the number, use the command shown below. :CORRection:CALIbration:WAVE
Query | Returns the measurement speed setting for the compensation No. point using the number of waveforms. (When the measurement speed is custom)
Example | Command |
Query | :CORRection:COMPensation:WAVE? 1
Response | :CORRECTION:COMPENSATION:WAVE 8 (when HEADER ON) 8 (when HEADER OFF) The number of waveforms of the measurement speed for compensation is set to 8.
Note |  |

### Execution and cancellation of open compensation

Syntax | Command | :CORRection:COMPensation:OPEN <AC/DC/ACDC/CANCel>
Query |
Response |
Parameter |
Explanation | Command | Performs setting of the open compensation function, loading of the compensation value, and cancellation of loading. AC: Performs the AC measurement. DC: Performs the DC measurement. ACDC: Performs the AC+DC measurement. CANCEL: Cancels the acquisition of the compensation value.
Query |
Example | Command | :CORRection:COMPensation:OPEN ACDC Obtains the open compensation value for the ACDC measurement.
Query |
Response |
Note |  | This command cannot be executed during measurement, and doing so will result in an execution error. Execute the command after changing to an external trigger for the LCR mode, or to sequential sweep or step sweep for the analyzer mode. An execution error occurs if the command for changing the environment settings is executed during compensation. Also, be sure to avoid executing commands other than ones for checking each status register (*ESR?, ESR0?, etc.).

### Setting of the reference value for open compensation and queries

Syntax | Command | :CORRection:COMPensation:OPEN:REFerence <Compensation No./ALL/DC>, <reference value 1>, <reference value 2 *disabled for DC>
Query | :CORRection:COMPensation:OPEN:REFerence? <Compensation No./DC>
Response | <Reference value 1>, <reference value 2 *disabled for DC>
Parameter | <Compensation No.> = SPOT: 1 to 5 (LCR mode)/1 to 801 (analyzer mode), ALL: 1 to 102 (NR1) <Reference value 1> = The settable range varies depending on the reference value mode. (NR3) <Reference value 2> = The settable range varies depending on the reference value mode. (NR2/NR3)
Explanation | Command | Sets the reference value for open compensation. When the compensation No. is ALL, sets the reference values for all compensation points. When the compensation No. is DC, sets the reference values for DC measurement.
Query | Returns the reference value for open compensation. When the compensation No. is DC, returns the reference value for DC measurement.
Example | Command | :CORRection:COMPensation:OPEN:REFerence 1, 10e-9, 0.00014 Sets reference value 1 for compensation No. 1 to 10 nF, and reference value 2 to 0.00014.
Query | :CORRection:COMPensation:OPEN:REFerence? 1
Response | :CORRECTION:COMPENSATION:OPEN:REFERENCE 10.0000E-09, 140.000E-06 (when HEADER ON) 10.0000E-09, 140.000E-06 (when HEADER OFF) Reference value 1 for compensation No. 1 is set to 10 nF, and reference value 2 to 0.00014.
Note |  |

### Queries for the compensation value for open compensation

Syntax | Command |
Query | :CORRection:COMPensation:OPEN:DATA? SPOT compensation: <compensation No./DC>/ ALL compensation: <compensation No./ALL/DC>
Response | SPOT calibration: <frequency>, <calibration value 1>, <calibration value 2> Note: For DC, calibration value 1 only ALL calibration: <frequency>, <+7 dBm: calibration value 1>, <+7 dBm: calibration value 2>, <-3 dBm: calibration value 1>, <-3 dBm: calibration value 2>, <-23 dBm: calibration value 1>, <-23 dBm: calibration value 2>, <-30 dBm: calibration value 1>, <-30 dBm: calibration value 2> Note: For DC, one calibration value only.
Parameter | <Compensation No.> = SPOT: 1 to 5 (LCR mode)/1 to 801 (analyzer mode), ALL: 1 to 102 (NR1) <Frequency> = 1.0000E+06 to 300.00E+06 (NR3) <Compensation values> = -9.99999E+09 to 9.99999E+09 (NR3)
Explanation | Command |
Query | Returns the compensation value for open compensation. When compensation is not executed, the compensation value is "0.0000E+00". When the frequency is not set, the frequency is "OFF". When ALL is specified for an argument for ALL compensation, all point data is output as a comma-delimited file.
Example | Command |
Query | :CORRection:COMPensation:OPEN:DATA? 1
Response | :CORRECTION:COMPENSATION:OPEN:DATA 1.0000E+06,-168.174E-03,-17.2123E-03 (when HEADER ON) 1.0000E+06,-168.174E-03,-17.2123E-03 (when HEADER OFF) Returns the compensation value for open compensation for compensation No. 1.
Note |  | The compensation value output format differs depending on the display method setting for the open calibration and compensation.

### Setting of the lower limit value for open compensation and queries

Syntax | Command | :CORRection:COMPensation:OPEN:LIMit <OFF/lower limit value>
Query | :CORRection:COMPensation:OPEN:LIMit?
Response | <OFF/lower limit value>
Parameter | <Lower limit values> = -9.99999E+09 to +9.99999E+09 (NR3)
Explanation | Command | Sets the lower limit value for open compensation.
Query | Returns the lower limit value for open compensation.
Example | Command | :CORRection:COMPensation:OPEN:LIMit 234.560E-06 Sets the lower limit value for open compensation to 234.560E-06.
Query | :CORRection:COMPensation:OPEN:LIMit?
Response | :CORRECTION:COMPENSATION:OPEN:LIMIT 234.560E-06 (when HEADER ON) 234.560E-06 (when HEADER OFF) The lower limit value for open compensation is set to 234.560E-06.
Note |  |

### Execution and cancellation of short compensation

Syntax | Command | :CORRection:COMPensation:SHORt <AC/DC/ACDC/CANCel>
Query |
Response |
Parameter |
Explanation | Command | Sets the short compensation function and acquires or cancels the acquisition of the compensation value. AC: Performs the AC measurement. DC: Performs the DC measurement. AC+DC: Performs the AC+DC measurement. CANCEL: Cancels the acquisition of the compensation value.
Query |
Example | Command | :CORRection:COMPensation:SHORt ACDC Obtains the short compensation value using the ACDC measurement.
Query |
Response |
Note |  | This command cannot be executed during measurement, and doing so will result in an execution error. Execute the command after changing to an external trigger for the LCR mode, or to sequential sweep or step sweep for the analyzer mode. An execution error occurs if the command for changing the environment settings is executed during compensation. Also, be sure to avoid executing commands other than ones for checking each status register (*ESR?, ESR0?, etc.).

### Setting of the reference value for short compensation and queries

Syntax | Command | :CORRection:COMPensation:SHORt:REFerence <Compensation No./ALL/DC>, <reference value 1>, <reference value 2 *disabled for DC>
Query | :CORRection:COMPensation:SHORt:REFerence? <Compensation No./DC>
Response | <Reference value 1>, <reference value 2 *disabled for DC>
Parameter | <CompensationNo.> = SPOT: 1 to 5 (LCR mode)/1 to 801 (analyzer mode), ALL: 1 to 102 (NR1) <Reference value 1> = The settable range varies depending on the reference value mode. (NR3) <Reference value 2> = The settable range varies depending on the reference value mode. (NR2/NR3)
Explanation | Command | Sets the reference value for short compensation. When the compensation No. is ALL, sets the reference values for all compensation points. When the compensation No. is DC, sets the reference values for DC measurement.
Query | Returns the reference value for short compensation. When the compensation No. is DC, returns the reference value for DC measurement.
Example | Command | :CORRection:COMPensation:SHORt:REFerence 1, 10e-9, 0.00014 Sets reference value 1 for compensation No. 1 to 10 nF, and reference value 2 to 0.00014.
Query | :CORRection:COMPensation:SHORt:REFerence? 1
Response | :CORRECTION:COMPENSATION:SHORT:REFERENCE 10.0000E-09, 140.000E-06 (when HEADER ON) 10.0000E-09, 140.000E-06 (when HEADER OFF) Reference value 1 for compensation No. 1 is set to 10 nF, and reference value 2 to 0.00014.
Note |  |

### Queries for the reference value for short compensation

Syntax | Command |
Query | :CORRection:COMPensation:SHORt:DATA? SPOT compensation: <compensation No./DC>/ ALL compensation: <compensation No./ALL/DC>
Response | SPOT calibration: <frequency>, <calibration value 1>, <calibration value 2> Note: For DC, calibration value 1 only ALL calibration: <frequency>, <+7 dBm: calibration value 1>, <+7 dBm: calibration value 2>, <-3 dBm: calibration value 1>, <-3 dBm: calibration value 2>, <-23 dBm: calibration value 1>, <-23 dBm: calibration value 2>, <-30 dBm: calibration value 1>, <-30 dBm: calibration value 2> Note: For DC, one calibration value only.
Parameter | <Compensation No.> = SPOT: 1 to 5 (LCR mode)/1 to 801 (analyzer mode), ALL: 1 to 102 (NR1) <Frequency> = 1.0000E+06 to 300.00E+06 (NR3) <Compensation values> = -9.99999E+09 to 9.99999E+09 (NR3)
Explanation | Command |
Query | Returns the compensation value for short compensation. When compensation is not executed, the compensation value is "0.0000E+00". When the frequency is not set, the frequency is "OFF". When ALL is specified for an argument for ALL compensation, all point data is output as a comma-delimited file.
Example | Command |
Query | :CORRection:COMPensation:SHORt:DATA? 1
Response | :CORRECTION:COMPENSATION:SHORT:DATA 1.0000E+06,-49.0352E-03,-107.826E-03 (when HEADER ON) 1.0000E+06,-49.0352E-03,-107.826E-03 (when HEADER OFF) Returns the compensation value for short compensation for compensation No. 1.
Note |  | The compensation value output format differs depending on the display method setting for the short calibration and compensation.

### Setting of the upper limit value for short compensation and queries

Syntax | Command | :CORRection:COMPensation:SHORt:LIMit <OFF/upper limit value>
Query | :CORRection:COMPensation:SHORt:LIMit?
Response | <OFF/upper limit value>
Parameter | <Upper limit values> = -9.99999E+09 to +9.99999E+09 (NR3)
Explanation | Command | Sets the upper limit value for short compensation.
Query | Returns the setting of the upper limit value for short compensation.
Example | Command | :CORRection:COMPensation:SHORt:LIMit 1.23456 Sets the upper limit value for short compensation to 1.23456.
Query | :CORRection:COMPensation:SHORt:LIMit?
Response | :CORRECTION:COMPENSATION:SHORT:LIMIT 1.23456E+00 (when HEADER ON) 1.23456E+00 (when HEADER OFF) The upper limit value for short compensation is set to 1.23456.
Note |  |

### Setting of the scaling compensation function and queries

Syntax | Command | :CORRection:SCALe <OFF/ON>
Query | :CORRection:SCALe?
Response | <OFF/ON>
Parameter |
Explanation | Command | Performs the setting of the scaling compensation function. This command is enabled only in the LCR and analyzer modes.
Query | Returns the setting of the scaling compensation function.
Example | Command | :CORRection:SCALe ON Enables the scaling compensation function.
Query | :CORRection:SCALe?
Response | :CORRECTION:SCALE ON (when HEADER ON) ON (when HEADER OFF) The scaling compensation function is enabled.
Note |  |

### Setting of the scaling compensation value and queries

Syntax | Command | :CORRection:SCALe:DATA <Scale No.>, <compensation value A>, <compensation value B>
Query | :CORRection:SCALe:DATA? <Scale No.>
Response | <Compensation value A>, <compensation value B>
Parameter | <Scale No.> = 1/2/3/4 (NR1) <Compensation value A> = -999.999 to 999.999 (NR2) <Compensation value B> = -9.99999E+09 to 9.99999E+09 (NR3)
Explanation | Command | Sets the value of the scaling compensation function. This command is enabled only in the LCR and analyzer modes.
Query | Returns the value of the scaling compensation function.
Example | Command | :CORRection:SCALe:DATA 1,1.23,4.56 Sets compensation value A of scale No. 1 to 1.23, and compensation value B to 4.56.
Query | :CORRection:SCALe:DATA? 1
Response | :CORRECTION:SCALE:DATA 1.230,4.56000E+00 (when HEADER ON) 1.230,4.56000E+00 (when HEADER OFF) Compensation value A of scale No. 1 is set to 1.23, and compensation value B to 4.56.
Note |  | -0.001 to 0.001 cannot be set for the compensation value A. When the command is sent with a value between these values, the value is interpolated to -0.001 or 0.001.

### Setting and querying the continuous measurement target

Syntax | Command | :CONTinuous:EXECution <Panel No.>, <ON/OFF>
Query | :CONTinuous:EXECution? <Panel No.>
Response | <ON/OFF>
Parameter | <Panel No.> = 1 to 46/ ALL
Explanation | Command | Sets the panel to be the measurement target in continuous measurement mode. When ALL is specified for <Panel No.>, ON/OFF is set for all panels.
Query | Returns the setting of the panel to be the measurement target in continuous measurement mode.
Example | Command | :CONTinuous:EXECution 5,ON Sets panel No. 5 as a measurement target of continuous measurement.
Query | :CONTinuous:EXECution? 5
Response | :CONTINUOUS:EXECUTION ON (when HEADER ON) ON (when HEADER OFF) Panel No. 5 is set as a measurement target of continuous measurement.
Note |  | ALL can only be specified for the parameter in the command. It cannot be used in the query. An execution error occurs if a panel for which continuous measurement can be performed is not saved to the specified panel number. An execution error occurs during continuous measurement.

### Setting of the finish function for a judgment error and queries

Syntax | Command | :CONTinuous:ERRor <ON/OFF>
Query | :CONTinuous:ERRor?
Response | <ON/OFF>
Parameter |
Explanation | Command | Sets the measurement cancellation for a judgment error. OFF: When an error is detected for judgment, measurement is not canceled. ON: When an error is detected for judgment, measurement is canceled.
Query | Returns the setting of measurement cancellation for a judgment error.
Example | Command | :CONTinuous:ERRor ON Sets to cancel measurement when a judgment error occurs.
Query | :CONTinuous:ERRor?
Response | :CONTINUOUS:ERROR ON (when HEADER ON) ON (when HEADER OFF) It is set to cancel measurement when a judgment error occurs.
Note |  |

### Panel count targeted for measurement in continuous measurement mode inquiry

Syntax | Command |
Query | :CONTinuous:COUNt?
Response | <Panel count>
Parameter | <Panel count> = 0 to 46 (NR1)
Explanation | Command |
Query | Returns the panel count targeted for measurement in continuous measurement mode.
Example | Command |
Query | :CONTinuous:COUNt?
Response | :CONTINUOUS:COUNT 2 (when HEADER ON) 2 (when HEADER OFF) There are 2 panels targeted for measurement in continuous measurement mode.
Note |  |

### Querying measurement data

Syntax | Command |
Query | :MEASure? <No data/ ALL>
Response |
Parameter |
Explanation | Command |
Query | For more detail, refer to "Querying measurement data".
Example | Command |
Query |
Response |
Note |  | If a setting has been changed, send the ":MEASure?" query after triggering.

### Queries for the contact check measurement data

Syntax | Command |
Query | :MEASure:RDC?
Response | <Measurement status>, <BEFORE measured value>, <BEFORE judgment>, <AFTER measured value>, <AFTER judgment>, <panel number>
Parameter |
Explanation | Command |
Query | Returns the measured value of the contact check. The measurement status has the same specification as the Measure? query status. Details of the judgment values are as follows. -1: LO judgment 0: IN judgment 1: HI judgment 2: Not judged
Example | Command |
Query | :MEASure:RDC?
Response | 0,4.9929E+03,0, 4.9957E+03,1,0 (when HEADER ON) 0,4.9929E+03,0, 4.9957E+03,1,0 (when HEADER OFF) Returns the BEFORE and AFTER measured values of the contact check. The judgment result shows BEFORE: IN and AFTER: HI.
Note |  | The output data follows the MEASure:VALid setting. The binary output is not supported.

### Querying the overall judgment result when continuous measurement

Syntax | Command |
Query | :MEASure:CONTinuous:COMParator?
Response | <Judgment result>
Parameter | <Judgment result> = 0,1 (NR1)
Explanation | Command |
Query | Returns the setting of the overall judgment result at the time of continuous measurement.
Example | Command |
Query | :MEASure:CONTinuous:COMParator?
Response | :MEASURE:CONTINUOUS:COMPARATOR 1 (when HEADER ON) 1 (when HEADER OFF) The overall judgment result of continuous measurement is IN.
Note |  |

### Querying the judgment results of the extreme values when continuous measurement

Syntax | Command |
Query | :MEASure:CONTinuous:PEAK? <No data/ ALL>
Response |
Parameter |
Explanation | Command |
Query | Returns the judgment results and measurement data of the extreme values when the peak comparator of the analyzer is included in continuous measurement. Set the each response content with the :MEASure:VALid command. The judgment results indicate the positional relationship between the judgment area and peak. If the peak is within the judgment area (IN), 5 is returned. When the judgment area setting is OFF or the peak was not detected, the judgment results and measurement data are not returned. For details on the judgment result values, see the following figure. In the judgment results, a message terminator or slash (/) is inserted for each single panel. When :MEASure:CONTinuous:PEAK?: Message terminator When :MEASure:CONTinuous:PEAK? ALL: Slash (/)
Example | Command |
Query | :MEASure:CONTinuous:PEAK?
Response | 0,1, 3.2141E+03,Z 2.74816E+03,0,2, 3.9427E+03,Z 1.83606E+03,0,3, 3.0914E+03,PHASE -66.196,0,4, 1.3653E+03,PHASE -88.665,1,0,5, 8.7754E+03,Z 1.18762E+03,0,6, 8.4322E+03,Z 772.516E+00,0,7, 8.6594E+03,PHASE -63.226,0,8, 12.236E+03,PHASE -88.566,2,3 0,1, 3.2154E+03,Z 2.74339E+03,0,2, 3.9449E+03,Z 1.83609E+03,0,3, 3.1059E+03,PHASE -65.983,0,4, 3.5677E+03,PHASE -85.406,1,5 (when HEADER ON) 0,1, 3.2141E+03, 2.74816E+03,0,2, 3.9427E+03, 1.83606E+03,0,3, 3.0914E+03, -66.196,0,4, 1.3653E+03, -88.665,1,0,5, 8.7754E+03, 1.18762E+03,0,6, 8.4322E+03, 772.516E+00,0,7, 8.6594E+03, -63.226,0,8, 12.236E+03, -88.566,2,3 0,1, 3.2154E+03, 2.74339E+03,0,2, 3.9449E+03, 1.83609E+03,0,3, 3.1059E+03, -65.983,0,4, 3.5677E+03, -85.406,1,5 (when HEADER OFF) The following shows the judgment results of the peak comparator of continuous measurement.
Note |  | The output data follows the MEASure:VALid setting. An execution error occurs if peak comparator measurement is not included in continuous measurement. An execution error occurs if the peak could not be detected.

### Setting and querying the contact check function

Syntax | Command | :CCHeck:VERify <OFF/BEFore/AFTer/BOTH>
Query | :CCHeck:VERify?
Response | <OFF/BEFore/AFTer/BOTH>
Parameter |
Explanation | Command | Sets the contact check function.
Query | Returns the setting of the contact check function.
Example | Command | :CCHeck:VERify AFTer Sets the contact check function to "AFTER".
Query | :CCHeck:VERify?
Response | :CCHECK:VERIFY AFTER (when HEADER ON) AFTER (when HEADER OFF) The contact check function is set to "AFTER".
Note |  | When the contact check function is set to "BEFore" or "BOTH", the trigger synchronous output function is automatically set to "ON".

### Setting of whether a judgment is performed/not performed when the DC measured value is UNCAL for the contact check function and queries

Syntax | Command | :CCHeck:JUDGment <DO/NOT>
Query | :CCHeck:JUDGment?
Response | <DO/NOT>
Parameter |
Explanation | Command | Sets whether a judgment is performed/not performed when the DC measured value is UNCAL. DO: Performs a judgment. NOT: Does not perform a judgment. The result is HI.
Query | Returns the setting of whether a judgment is performed/not performed when the DC measured value is UNCAL.
Example | Command | :CCHeck:JUDGment DO Sets to perform a judgment when the DC measured value is UNCAL.
Query | :CCHeck:JUDGment?
Response | :CCHECK:JUDGMENT DO (when HEADER ON) DO (when HEADER OFF) It is set to perform a judgment when the DC measured value is UNCAL.
Note |  |

### Setting of the contact check execution time and queries

Syntax | Command | :CCHeck:WAVe <Number of waveforms>
Query | :CCHeck:WAVe?
Response | <Number of waveforms>
Parameter | <Number of waveforms> = 1 to 9999 (NR1)
Explanation | Command | Sets the contact check execution time using the number of waveforms.
Query | Returns the contact check execution time setting using the number of waveforms.
Example | Command | :CCHeck:WAVe 1 Sets the number of waveforms for the contact check execution time to 1.
Query | :CCHeck:WAVe?
Response | :CCHECK:WAVE 0001 (when HEADER ON) 0001 (when HEADER OFF) The number of waveforms for the contact check execution time is set to 1.
Note |  |

### Setting of the upper and lower limit values for the contact check judgment condition and queries

Syntax | Command | :CCHeck:LIMit <OFF/lower limit value>, <OFF/upper limit value>
Query | :CCHeck:LIMit?
Response | <OFF/lower limit value>, <OFF/upper limit value>
Parameter | <Lower limit values> = -9.99999E+09 to +9.99999E+09 (NR3) <Upper limit values> = -9.99999E+09 to +9.99999E+09 (NR3)
Explanation | Command | Sets the upper and lower limit values for the judgment condition.
Query | Returns the upper and lower limit values for the judgment condition.
Example | Command | :CCHeck:LIMit 234.560E-06,1.23456 Sets the upper and lower limit values of the judgment condition to 1.23456 and 234.560E-06, respectively.
Query | :CCHeck:LIMit?
Response | :CCHECK:LIMIT 234.560E-06,1.23456E+00 (when HEADER ON) 234.560E-06,1.23456E+00 (when HEADER OFF) The upper and lower limit values of the judgment condition are set to 1.23456 and 234.560E-06, respectively.
Note |  | The upper and lower limit values outside the range are set to the limit value within the setting range. An error does not occur.

### Setting of the measurement stop for a contact check error and queries

Syntax | Command | :CCHeck:ERREnd <OFF/ON>
Query | :CCHeck:ERREnd?
Response | <OFF/ON>
Parameter |
Explanation | Command | Sets the measurement stop for a contact check error. OFF: Does not cancel measurement when a contact check error occurs. ON: Cancels measurement when a contact check error occurs.
Query | Returns the measurement stop when a contact check error occurs.
Example | Command | :CCHeck:ERREnd ON Sets to stop measurement when a contact check error occurs.
Query | :CCHeck:ERREnd?
Response | :CCHECK:ERREND ON (when HEADER ON) ON (when HEADER OFF) It is set to stop measurement when a contact check error occurs.
Note |  |

### Setting of the AC output during contact check and queries

Syntax | Command | :CCHeck:ACOut <OFF/ON>
Query | :CCHeck:ACOut?
Response | <OFF/ON>
Parameter |
Explanation | Command | Sets the AC output. OFF: Disables the AC output. ?ON: Enables the C output.
Query | Returns the AC output setting.
Example | Command | :CCHeck:ACOut ON Sets the AC output to ON.
Query | :CCHeck:ACOut?
Response | :CCHECK:ACOUT ON (when HEADER ON) ON (when HEADER OFF) The AC output is set to ON.
Note |  |

### Setting of the DC wait time during contact check and queries

Syntax | Command | :CCHeck:DCWait <Wait time>
Query | :CCHeck:DCWait?
Response | <Wait time>
Parameter | <Wait time> = 0.00000 s to 9.99999 s (NR2)
Explanation | Command | Sets the DC wait time.
Query | Returns the DC wait time setting.
Example | Command | :CCHeck:DCWait 0.00000 Sets the DC wait time to 0.0 s.
Query | :CCHeck:DCWait?
Response | :CCHECK:DCWAIT 0.00000 (when HEADER ON) 0.00000 (when HEADER OFF) The DC wait time is set to 0.0 s.
Note |  |

### Setting of the AC wait time during contact check and queries

Syntax | Command | :CCHeck:ACWait <Wait time>
Query | :CCHeck:ACWait?
Response | <Wait time>
Parameter | <Wait time> = 0.00000 s to 9.99999 s (NR2)
Explanation | Command | Sets the AC wait time.
Query | Returns the AC wait time setting.
Example | Command | :CCHeck:ACWait 0.00000 Sets the AC wait time to 0.0 s.
Query | :CCHeck:ACWait?
Response | :CCHECK:ACWAIT 0.00000 (when HEADER ON) 0.00000 (when HEADER OFF) The AC wait time is set to 0.0 s.
Note |  |

### Setting of the detection level monitoring function for contact check and queries

Syntax | Command | :LEVCheck <ON/OFF>
Query | :LEVCheck?
Response | <ON/OFF>
Parameter |
Explanation | Command | Sets the detection level monitoring function. OFF: Disables the detection level monitoring function. ON: Enables the detection level monitoring function.
Query | Returns the setting of the detection level monitoring function.
Example | Command | :LEVCheck ON Sets the detection level monitoring function to ON.
Query | :LEVCheck?
Response | :LEVCHECK ON (when HEADER ON) ON (when HEADER OFF) The detection level monitoring function is set to ON.
Note |  |

### Setting of the limit value for contact check and queries

Syntax | Command | :LEVCheck:LIMit <Limit value>
Query | :LEVCheck:LIMit?
Response | <Limit value>
Parameter | <Limit value> = 0.01 to 100.00% (NR2)
Explanation | Command | Sets the limit value for contact check.
Query | Returns the limit value setting for contact check.
Example | Command | :LEVCheck:LIMit 10 Sets the limit value for contact check to 10.0%.
Query | :LEVCheck:LIMit?
Response | :LEVCHECK:LIMIT 10.00 (when HEADER ON) 10.00 (when HEADER OFF) The limit value for contact check is set to 10.0%.
Note |  |

### Setting and querying the Hi Z reject function

Syntax | Command | :HIZ <ON/OFF>
Query | :HIZ?
Response | <ON/OFF>
Parameter |
Explanation | Command | Enables or disables the Hi Z reject function. OFF: Does not detect abnormal measurement values. ON: Detects abnormally high measurement values as errors.
Query | Returns whether the Hi Z reject function is enabled or disabled.
Example | Command | :HIZ ON Enables the Hi Z reject function.
Query | :HIZ?
Response | :HIZ ON (when HEADER ON) ON (when HEADER OFF) The Hi Z reject function is enabled.
Note |  |

### Setting and querying the limit value of the Hi Z reject function

Syntax | Command | :HIZ:LIMit <Limit value>
Query | :HIZ:LIMit?
Response | <Limit value>
Parameter | <Limit value> = 0 to 10000 Ohm (NR1)
Explanation | Command | Sets the limit value of the Hi Z reject function.
Query | Returns the limit value of the Hi Z reject function.
Example | Command | :HIZ:LIMit 500 Sets the limit value of the Hi Z reject function to 500 Ohm.
Query | :HIZ:LIMit?
Response | :HIZ:LIMIT 500 (when HEADER ON) 500 (when HEADER OFF) The limit value of the Hi Z reject function is set to 500 Ohm.
Note |  |

### Querying measurement values saved to memory with the measurement value memory function

Syntax | Command |
Query | :MEMory? <No data/ ALL>
Response | Refer to the response format of the MEASure? command.
Parameter |
Explanation | Command |
Query | Returns all of the measurement values saved to memory with the measurement value memory function. The measurement results for up to 32,000 measurements can be saved to memory. Executing this command will clear the contents of memory. To clear the contents of memory before acquiring the contents of memory, use the :MEMory:CLEar command. The formats of the memory contents are the same as the response data formats of :MEASure? query. For details on the formats, refer to the explanation for the :MEASure? query. A message terminator or slash (/) is inserted between memory items. In the case of :MEMory? Message terminator In the case of :MEMory? ALL Slash (/) The number of data items currently saved to memory can be confirmed with the :MEMory:COUNt? query. When the trigger setting is set to the internal trigger, the number of data items acquired with the :MEMory:COUNt? query may differ from that acquired with this command. To use the :MEMory:COUNt? query, set the trigger setting to the external trigger. When the trigger setting is set to the internal trigger, the measurement values of measurements performed while the memory values are being returned with this command may not be able to be saved. Set the external trigger when acquiring memory values and do not perform measurement until acquiring of all the memory values is complete. When memory becomes full, no more measurement values can be saved. To save new measurement values, use this command to read the contents of the memory or clear the contents of memory with the :MEMory:CLEar command.
Example | Command |
Query | :MEMory?
Response | Z 1.59062E+03,PHASE -89.992 Z 1.59069E+03,PHASE -89.993 Z 1.59057E+03,PHASE -89.992 Z 1.59066E+03,PHASE -89.993 Z 1.59056E+03,PHASE -89.993 (when HEADER ON) 1.59062E+03, -89.992 1.59069E+03, -89.993 1.59057E+03, -89.992 1.59066E+03, -89.993 1.59056E+03, -89.993 (when HEADER OFF)
Note |  | The output data follows the MEASure:VALid setting. An execution error occurs during continuous measurement.

### Saving of measured value memory

Syntax | Command | :MEMory:SAVE
Query |
Response |
Parameter |
Explanation | Command | Copies data saved to internal memory with the measured value memory function to USB memory.
Query |
Example | Command | :MEMory:SAVE
Query |
Response |
Note |  | If data has not been saved in internal memory, an execution error will result.

### Clearing memory of measurement value memory function

Syntax | Command | :MEMory:CLEar
Query |
Response |
Parameter |
Explanation | Command | Clears all of the measurement values saved to internal memory with the measurement value memory function. If this command is sent, subsequent measurement results are saved from the beginning of memory.
Query |
Example | Command | :MEMory:CLEar Clears all of the measurement values saved to memory.
Query |
Response |
Note |  |

### Setting and querying the measurement value memory function

Syntax | Command | :MEMory:CONTrol LCR mode:<ON/IN/OFF> / Analyzer mode:<ON/OFF>
Query | :MEMory:CONTrol?
Response | <ON/IN/OFF>
Parameter |
Explanation | Command | Sets the measurement value memory function. If the setting is changed, all of the saved measurement values are cleared. OFF : Measurement values are not saved to internal memory. IN : Saves the measurement values to memory only when a pass judgment is made for all of the parameters judged with the comparator and BIN functions. (The measurement values are not saved if even one of the comparator results is HI or LO, or if the BIN result is OUT-OF-BINS or D-NG.) When the comparator and BIN functions are not used, the operation is the same as when ON. ON : Saves the measurement values to internal memory.
Query | Returns the setting of the measurement value memory function.
Example | Command | :MEMory:CONTrol ON Saves the measurement values to memory.
Query | :MEMory:CONTrol?
Response | :MEMORY:CONTROL ON (when HEADER ON) ON (when HEADER OFF) Measurement values are set to be saved to memory.
Note |  |

### Querying the number of measurement values saved to memory with the memory function

Syntax | Command |
Query | :MEMory:COUNt?
Response | <Number of data items>
Parameter | <Number of data items> = 0 to 32000 (NR1)
Explanation | Command |
Query | Returns the number of data items saved to memory with the measurement value memory function. A header is not added to the response message.
Example | Command |
Query | :MEMory:COUNt?
Response | 1000 1,000 data items are saved to internal memory.
Note |  |

### Setting and querying the measurement value memory size

Syntax | Command | :MEMory:POINts <Memory size>
Query | :MEMory:POINts?
Response | <Memory size>
Parameter | <Memory size> = 1 to 32000 (NR1)
Explanation | Command | Sets the number of data items to save to internal memory. This command is enable in only LCR mode. (The memory size is fixed 100 in the ANALYZER mode.) If the setting is changed, all of the saved measurement values are cleared.
Query | Returns the number of data items to save to internal memory.
Example | Command | :MEMory:POINts 200 Sets the memory size to 200.
Query | :MEMory:POINts?
Response | :MEMORY:POINTS 200 (when HEADER ON) 200 (when HEADER OFF) The memory size is set to 200.
Note |  | An execution error occurs during continuous measurement and analyzer mode.

### Setting and querying LCD display

Syntax | Command | :DISPlay <ON/OFF>
Query | :DISPlay?
Response | <ON/OFF>
Parameter |
Explanation | Command | Sets LCD display. ON: Sets the LCD to always on. OFF: The LCD goes off. Touching the key lights up the LCD again. The LCD turns off again after approximately 10 seconds elapse since the key was last touched.
Query | Returns the setting of LCD display.
Example | Command | :DISPlay OFF Sets the LCD to turn off.
Query | :DISPlay?
Response | :DISPLAY OFF (when HEADER ON) OFF (when HEADER OFF) The LCD is set to turn off.
Note |  | A response of the communication decreases when LCD display set ON. Please set LCD display to OFF when fast reply is necessary.

### Setting of the parameter color and queries

Syntax | Command | :DISPlay:PARAmeter <Parameter number>, <OFF/color No.>
Query | :DISPlay:PARAmeter? <Parameter number>
Response | <OFF/color No.>
Parameter | <Parameter number> = 1 to 4 (NR1) <Color No.> = 1 to 25 (NR1)
Explanation | Command | Sets the measured value of the specified parameter number or color of the measurement result graph.
Query | Returns the measured value of the specified parameter number or color of the measurement result graph.
Example | Command | :DISPlay:PARAmeter 1,2 Sets the color of the parameter for segment No. 1 of the 1st parameter to color No. 2.
Query | :DISPlay:PARAmeter? 1
Response | :DISPLAY:PARAMETER 2 (when HEADER ON) 2 (when HEADER OFF) The color of the parameter for 1st parameter is set to color No. 2.
Note |  |

### Setting of the screen background and queries

Syntax | Command | :DISPlay:COLor <WHITe/BLACk>
Query | :DISPlay:COLor?
Response | <WHITE/BLACK>
Parameter |
Explanation | Command | Sets the screen background. WHITe: Sets the screen background color to white. BLACk: Sets the screen background color to black.
Query | Returns the screen background setting.
Example | Command | :DISPlay:COLor WHITe Sets the screen background to white.
Query | :DISPlay:COLor?
Response | :DISPLAY:COLOR WHITE (when HEADER ON) WHITE (when HEADER OFF) The screen background is set to white.
Note |  |

### Setting of the screen brightness and queries

Syntax | Command | :DISPlay:BACKlight <Brightness>
Query | :DISPlay:BACKlight?
Response | <Brightness>
Parameter | <Brightness> = 0 to 250 (NR1)
Explanation | Command | Sets the screen brightness. The initial value is 130.
Query | Returns the screen brightness setting.
Example | Command | :DISPlay:BACKlight 120 Sets the screen brightness to 120.
Query | :DISPlay:BACKlight?
Response | :DISPLAY:BACKLIGHT 120 (when HEADER ON) 120 (when HEADER OFF) The screen brightness is set to 120.
Note |  |

### Setting of the warm-up message display and queries

Syntax | Command | :DISPlay:WARMup <ON/OFF>
Query | :DISPlay:WARMup?
Response | <ON/OFF>
Parameter |
Explanation | Command | Sets the warm-up message display. ON: Displays the warm-up message. OFF: Does not display the warm-up message.
Query | Returns the setting of the warm-up message display.
Example | Command | :DISPlay:WARMup OFF Sets not to display the warm-up message.
Query | :DISPlay:WARMup?
Response | :DISPLAY:WARMUP OFF (when HEADER ON) OFF (when HEADER OFF) It is set not to display the warm-up message.
Note |  |

### Setting and querying the zoom function

Syntax | Command | :ZOOM <ON/OFF>
Query | :ZOOM?
Response | <ON/OFF>
Parameter |
Explanation | Command | Sets the zoom function.
Query | Returns the setting of the zoom function.
Example | Command | :ZOOM ON Enables the zoom function.
Query | :ZOOM?
Response | :ZOOM ON (when HEADER ON) ON (when HEADER OFF) The zoom function is enabled.
Note |  |

### Setting and querying beep sound for the judgment results of measurement values

Syntax | Command | :BEEPer:JUDGment <OFF/IN/NG>
Query | :BEEPer:JUDGment?
Response | <OFF/IN/NG>
Parameter |
Explanation | Command | Sets the beep sound for the judgment results of measurement values. OFF: No beep sound. IN: Sets a beep sound to be emitted when a result is within the range. NG: Sets a beep sound to be emitted when a result is outside the range.
Query | Returns the setting of the beep sound for the judgment results of measurement values.
Example | Command | :BEEPer:JUDGment NG Sets a beep sound to be emitted when a result is outside the range.
Query | :BEEPer:JUDGment?
Response | :BEEPER:JUDGMENT NG (when HEADER ON) NG (when HEADER OFF) A beep sound is set to be emitted when a result is outside the range.
Note |  |

### Setting of the beep tone type for the measured value judgment result and queries

Syntax | Command | :BEEPer:JUDGment:TONE <0/1/2/3/4/5/6/7/8/9/10/11/12/13/14>
Query | :BEEPer:JUDGment:TONE?
Response | <0/1/2/3/4/5/6/7/8/9/10/11/12/13/14>
Parameter |
Explanation | Command | Sets the beep tone type for the measured value judgment result.
Query | Returns the beep tone type for the measured value judgment result.
Example | Command | :BEEPer:JUDGment:TONE 0 Sets the beep tone type for the measured value judgment result to 0.
Query | :BEEPer:JUDGment:TONE?
Response | :BEEPER:JUDGMENT:TONE 0 (when HEADER ON) 0 (when HEADER OFF) The beep tone type for the measured value judgment result is set to 0.
Note |  |

### Setting of the beep volume for the measured value judgment result and queries

Syntax | Command | :BEEPer:JUDGment:VOLume <1/2/3>
Query | :BEEPer:JUDGment:VOLume?
Response | <1/2/3>
Parameter |
Explanation | Command | Sets the beep volume for the measured value judgment result.
Query | Returns the beep volume setting for the measured value judgment result.
Example | Command | :BEEPer:JUDGment:VOLume 1 Sets the beep volume for the measured value judgment result to 1.
Query | :BEEPer:JUDGment:VOLume?
Response | :BEEPER:JUDGMENT:VOLUME 1 (when HEADER ON) 1 (when HEADER OFF) The beep volume for the measured value judgment result is set to 1.
Note |  |

### Setting and querying beep sound for key input

Syntax | Command | :BEEPer:KEY <ON/OFF>
Query | :BEEPer:KEY?
Response | <ON/OFF>
Parameter |
Explanation | Command | Sets the beep sound for key operation. ON: A beep sound is emitted. OFF: A beep sound is not emitted.
Query | Returns the setting of the beep sound for key operation.
Example | Command | :BEEPer:KEY ON Sets a beep sound to be emitted.
Query | :BEEPer:KEY?
Response | :BEEPER:KEY ON (when HEADER ON) ON (when HEADER OFF) A beep sound is set to be emitted.
Note |  |

### Setting of the key operation beep tone type and queries

Syntax | Command | :BEEPer:KEY:TONE <0/1/2/3/4/5/6/7/8/9/10/11/12/13/14>
Query | :BEEPer:KEY:TONE?
Response | <0/1/2/3/4/5/6/7/8/9/10/11/12/13/14>
Parameter |
Explanation | Command | Sets the beep tone type.
Query | Returns the beep tone type.
Example | Command | :BEEPer:TONE 0 Sets the beep tone to 0.
Query | :BEEPer:TONE?
Response | :BEEPER:TONE 0 (when HEADER ON) 0 (when HEADER OFF) The beep tone is set to 0.
Note |  |

### Setting of the key operation beep volume and queries

Syntax | Command | :BEEPer:KEY:VOLume <1/2/3>
Query | :BEEPer:KEY:VOLume?
Response | <1/2/3>
Parameter |
Explanation | Command | Sets the key operation beep volume.
Query | Returns the key operation beep volume.
Example | Command | :BEEPer:KEY:VOLume 1 Sets the key operation beep volume to 1.
Query | :BEEPer:KEY:VOLume?
Response | :BEEPER:KEY:VOLUME 1 (when HEADER ON) 1 (when HEADER OFF) The key operation beep volume is set to 1.
Note |  |

### Execution of the key lock and queries

Syntax | Command | :KEYLock LCR mode: <FULL/SET> / Analyzer mode: <ON>
Query | :KEYLock?
Response | LCR mode: <OFF/FULL/SET> Analyzer mode: <ON/OFF>
Parameter |
Explanation | Command | Sets the key lock method and executes a key lock. FULL: Disables all operations. SET: Enables the comparator and BIN measurement setting, and disables all the other operations. ON: Disables all operations. Set the passcode before executing this command. The factory default setting for the passcode is g7580h.
Query | Returns the state of the key lock. OFF: The key lock is not enabled. FULL: The FULL key lock is enabled. SET: The SET key lock is enabled. ON: The key lock is enabled.
Example | Command | :KEYLock FULL Enables the FULL key lock.
Query | :KEYLock?
Response | :KEYLOCK FULL (when HEADER ON) FULL (when HEADER OFF) The FULL key lock is enabled.
Note |  | An execution error occurs if this command is sent while the key lock is enabled.

### Setting the key lock passcode

Syntax | Command | :KEYLock:PASScode <Passcode/ none>
Query |
Response |
Parameter | <Passcode> = 0 to 9 (up to 4 digits)
Explanation | Command | Sets the passcode of the key lock. If the passcode is omitted, the key lock will be set without a passcode. The factory default setting for the passcode is "7580".
Query |
Example | Command | :KEYLock:PASScode "0523" Sets the passcode of the key lock to "0523".
Query |
Response |
Note |  | An execution error occurs in the following cases. When the key lock is enabled When the passcode contains an invalid character (alphabetical character, space, slash, etc.) When the passcode exceeds 4 digits

### Disabling the key lock

Syntax | Command | :KEYLock:UNLock <Passcode/ none>
Query |
Response |
Parameter | <Passcode> = 0 to 9 (up to 4 digits)
Explanation | Command | Disables the key lock. If a passcode is set, specify the passcode in the query data.
Query |
Example | Command | :KEYLock:UNLock "0523" Specifies "0523" for the passcode and disables the key lock.
Query |
Response |
Note |  | An execution error occurs in the following cases. When the key lock is not enabled When the passcode contains an invalid character (alphabetical character, space, slash, etc.) When the passcode exceeds 4 digits When the passcode is incorrect If you forget the passcode, perform a full reset to restore the instrument to the factory default settings. (Refer to "Full Reset Procedure" in "Maintenance and Service" of the instruction manual.)

### Setting and querying measurement parameters

Syntax | Command | :MEASure:ITEM <MR0>, <MR1>
Query | :MEASure:ITEM?
Response | <MR0>, <MR1>
Parameter | <MR0> = 0 to 255 (NR1) <MR1> = 0 to 255 (NR1)
Explanation | Command | Specifies the measurement parameter for response of the :MEASure? query during normal measurement by the sum of bits. If this is set to MR0=0 and MR1=0, the measurement values of the measurement parameters displayed on the screen are returned. This is set to MR0=0 and MR1=0 when the power is turned on.
Query | Returns the measurement parameters for the response of the :MEASure? query during normal measurement.
Example | Command | :MEASure:ITEM 53,18 Sets measurement parameters for response to Z, Æ, Cp, D, Rs, and X.
Query | :MEASure:ITEM?
Response | :MEASURE:ITEM 53,18 (when HEADER ON) 53,18 (when HEADER OFF) The measurement parameters for response are set to to Z, Æ, Cp, D, Rs, and X.
Note |  | Specify the MR0 and MR1 values by the sum of bits. For example, when setting the measurement parameters for response to Z, Æ, Cp, D, Rs, and X, specify MR0=1+4+16+32=53 and MR1=2+16=18 because Z = 1, Æ = 4, Cp = 16, D = 32, Rs = 2, and X = 16. Measurement values are cleared when this settings is changed.

### Setting and querying the response data of the measurement acquisition query

Syntax | Command | :MEASure:VALid <Setting value>
Query | :MEASure:VALid?
Response | <Setting value>
Parameter | <Setting value> = 1 to 255 (NR1)
Explanation | Command | Sets the content for the response of the :MEASure? query by the sum of bits.
Query | Returns the content for the response of the :MEASure? query.
Example | Command | :MEASure:VALid 18 Sets the measurement values and measurement status to be returned with the :MEASure? query.
Query | :MEASure:VALid?
Response | :MEASURE:VALID 18 (when HEADER ON) 18 (when HEADER OFF) The measurement values and measurement status are set to be returned with the :MEASure? query.
Note |  | When the setting is changed, the measured value is cleared.

### Setting and querying the measurement value automatic output function

Syntax | Command | :MEASure:OUTPut:AUTO <ON/OFF>
Query | :MEASure:OUTPut:AUTO?
Response | <ON/OFF>
Parameter |
Explanation | Command | Sets the measurement value automatic output function. ON: Outputs the measurement values automatically after measurement finishes. OFF: Does not output the measurement values automatically after measurement finishes. If this is set to ON, the measurement values are automatically output from the selected interface after measurement finishes. The output format of measurement values is the same as that for the :MEASure? query.
Query | Returns the setting of the measurement value automatic output function.
Example | Command | :MEASure:OUTPut:AUTO ON Sets the measurement value automatic output function to ON.
Query | :MEASure:OUTPut:AUTO?
Response | :MEASURE:OUTPUT:AUTO ON (when HEADER ON) ON (when HEADER OFF) The measurement value automatic output function is set to ON.
Note |  | Be sure to turn off the function when it is not used. Automatic output function is enable in only RS-232C.

### INDEX and EMO output method setting and inquiry

Syntax | Command | :IO:EOM:MODE <HOLD/PULSe>
Query | :IO:EOM:MODE?
Response | <HOLD/PULSE>
Parameter |
Explanation | Command | Sets the INDEX and EOM output method.
Query | Returns the INDEX and EOM output method.
Example | Command | IO:EOM:MODE PULSE Sets the INDEX and EOM output method to pulse.
Query | IO:EOM:MODE?
Response | :IO:EOM:MODE PULSE (when HEADER ON) PULSE (when HEADER OFF) The INDEX and EOM output method has been set to pulse.
Note |  | For a timing chart describing the setting made with this command, see the "External Control" chapter in the instrument's user manual.

### Pulse width for which to keep EOM low (on) setting and inquiry

Syntax | Command | :IO:EOM:PULSe <Pulse width>
Query | :IO:EOM:PULSe?
Response |
Parameter | <Pulse width> = 0.00001 to 0.99999 s (NR2)
Explanation | Command | Sets the pulse width for which to keep EOM low (on).
Query | Returns the pulse width for which to keep EOM low (on).
Example | Command | IO:EOM:PULSe 0.002 Sets the pulse width for which EOM is kept low (on) to 0.002 s.
Query | IO:EOM:PULSe?
Response | :IO:EOM:PULSE 0.00200 (when HEADER ON) 0.002 (when HEADER OFF) The pulse width for which EOM is kept low (on) has been set to 0.002 s.
Note |  | For a timing chart describing the setting made with this command, see the "External Control" chapter in the instrument's user manual.

### Setting and querying the delay time between judgment result output and EOM output

Syntax | Command | :IO:OUTPut:DELay <I/O delay time>
Query | :IO:OUTPut:DELay?
Response | <I/O delay time>
Parameter | <I/O delay time> = 0 to 0.99999 s (NR2)
Explanation | Command | Sets the delay time for the period between the output of comparator and BIN judgment results and the output of the EOM from the EXT I/O.
Query | Returns the delay time for the period between the output of comparator and BIN judgment results and the output of the EOM from the EXT I/O.
Example | Command | :IO:OUTPUT:DELAY 0.12345 Sets the delay time for the period between the output of comparator and BIN judgment results and the output of the EOM from the EXT I/O to 0.1234 s.
Query | :IO:OUTPUT:DELAY?
Response | :IO:OUTPUT:DELAY 0.12345 (when HEADER ON) 0.12345 (when HEADER OFF) The delay time for the period between the output of comparator and BIN judgment results and the output of the EOM from the EXT I/O is set to 0.1234 s.
Note |  | The delay time for the period between the comparator and BIN judgment results and the EOM has an error of approximately 160 ms with regards to the setting value. Furthermore, the delay time may vary widely if a trigger is input from the EXT I/O or communication is performed via an interface during measurement, so make every effort not to perform control from an external device during measurement.

### Setting and querying output of the judgment result signal line

Syntax | Command | :IO:RESult:RESet <ON/OFF>
Query | :IO:RESult:RESet?
Response | <ON/OFF>
Parameter |
Explanation | Command | Sets whether the judgment result signal line of the EXT I/O is reset. ON: Resets the judgment results simultaneously with the input of a measurement start signal (trigger signal). OFF: Updates the judgment results at the point in time when measurement ends.
Query | Returns whether the judgment result signal line of the EXT I/O is reset.
Example | Command | :IO:RESult:RESet ON Sets the judgment results to be reset simultaneously with the input of a measurement start signal (trigger signal).
Query | :IO:RESult:RESet?
Response | :IO:RESULT:RESET ON (when HEADER ON) ON (when HEADER OFF) The judgment results are set to be reset simultaneously with the input of a measurement start signal (trigger signal).
Note |  | For details on the judgment result signal line, refer to "External Control" in the instruction manual.

### Setting and querying the trigger edge

Syntax | Command | :IO:TRIGger:EDGe <DOWN/UP>
Query | :IO:TRIGger:EDGe?
Response | <DOWN/UP>
Parameter |
Explanation | Command | Sets the trigger edge of the EXT I/O. DOWN: Applies a trigger to the falling edge. UP: Applies a trigger to the rising edge.
Query | Returns the setting of the trigger edge of the EXT I/O.
Example | Command | :IO:TRIGger:EDGe UP Sets a trigger to be applied to the rising edge.
Query | :IO:TRIGger:EDGe?
Response | :IO:TRIGGER:EDGE UP (when HEADER ON) UP (when HEADER OFF) A trigger is set to be applied to the rising edge.
Note |  |

### Setting and querying permit/prohibit of trigger input during measurement

Syntax | Command | :IO:TRIGger:ENABle <ON/OFF>
Query | :IO:TRIGger:ENABle?
Response | <ON/OFF>
Parameter |
Explanation | Command | Enables or disables trigger input from the EXT I/O during measurement. ON: Accepts trigger input from the EXT I/O during measurement. OFF: Does not accept trigger input from the EXT I/O during measurement.
Query | Returns whether trigger input from the EXT I/O during measurement is enabled or disabled.
Example | Command | :IO:TRIGger:ENABle ON Sets trigger input from the EXT I/O during measurement to be accepted.
Query | :IO:TRIGger:ENABle?
Response | :IO:TRIGGER:ENABLE ON (when HEADER ON) ON (when HEADER OFF) Trigger input from the EXT I/O during measurement is set to be accepted.
Note |  |

### Executing and querying the panel save function

Syntax | Command | :SAVE <Panel No.>,<"Panel name">
Query | :SAVE? <Panel No.>
Response | <0/1>
Parameter | <Panel No.> = 1 to 46 (NR1) <"Panel name"> = !, #, $, %, &, ', (, ), +, ,, -, ., ;, =, @, [, ], ^, _, `, 0 to 9, A t oZ (up to 10 characters)
Explanation | Command | Specifies the panel number and saves the panel under the specified panel name. Use the valid characters shown above for the panel name and specify a name that is within 10 characters. Lowercase a to z are converted to uppercase.
Query | Returns 1 if a panel is saved to the specified panel number, and 0 if a panel is not saved. A header is not added to the response message.
Example | Command | :SAVE 3,"IM7580_003" Saves a panel under the panel name "IM7580_003" to panel number 3.
Query | :SAVE? 3
Response | 1 A panel is saved to panel number 3.
Note |  | Please use only the character which you can set in the instrument for a panel name. An error occurs in the following cases. When a panel name is not specified When the number of characters of the panel name exceeds 10

### Querying a panel name

Syntax | Command |
Query | :SAVE:NAME? <Panel No.>
Response |
Parameter | <Panel No.> = 1 to 46 (NR1)
Explanation | Command |
Query | Returns the panel name of the specified panel number. A execution error occurs if there is no data for the specified panel number. A header is not added to the response message.
Example | Command |
Query | :SAVE:NAME? 1
Response | IM7580_001 The panel name of panel number 1 is "IM7580_001".
Note |  |

### Changing a panel name

Syntax | Command | :SAVE:REName <Panel No.>,<"Panel name">
Query |
Response |
Parameter | <Panel No.> = 1 to 46 (NR1) <"Panel name"> = !, #, $, %, &, ', (, ), +, ,, -, ., ;, =, @, [, ], ^, _, `, 0 to 9, A t oZ (up to 10 characters)
Explanation | Command | Changes the panel name of the specified panel number. Use the valid characters shown above for the panel name and specify a name that is within 10 characters. Lowercase a to z are converted to uppercase. A execution error occurs if there is no data for the specified panel number.
Query |
Example | Command | :SAVE:REName 1,"IM7580_001" Changes the panel name of panel 1 to "IM7580_001".
Query |
Response |
Note |  | Please use only the character which you can set in the instrument for a panel name.

### Setting and querying the save type

Syntax | Command | :SAVE:TYPE <ALL/HARDware/ADJust>
Query | :SAVE:TYPE?
Response | <ALL/HARDWARE/ADJUST>
Parameter |
Explanation | Command | Sets the save type. The following data indicated by "" is saved.
Query | Returns the setting of the save type.
Example | Command | :SAVE:TYPE HARDware Sets only the measurement conditions to be saved.
Query | :SAVE:TYPE?
Response | :SAVE:TYPE HARDWARE (when HEADER ON) HARDWARE (when HEADER OFF) Only the measurement conditions are set to be saved.
Note |  | Starts up with the ALL setting. Be sure to perform setting in advance for saving the panel with other than ALL due to the communication. If the panel is saved in the analyzer mode, it is saved with the ALL setting regardless of the actual setting.

### Clearing data saved for a panel

Syntax | Command | :SAVE:CLEar <Panel No./ALL>
Query |
Response |
Parameter | <Panel No.> = 1 to 46 (NR1)
Explanation | Command | Clears the data of the specified panel number. ALL : Clears all of the panels. A execution error occurs if there is no saved data for the specified panel number.
Query |
Example | Command | :SAVE:CLEar 5 Clears the data of panel number 5.
Query |
Response |
Note |  | Data cannot be restored once it is cleared.

### Executing panel load

Syntax | Command | :LOAD <Panel No.>
Query |
Response |
Parameter | <Panel No.> = 1 to 46
Explanation | Command | Loads the specified panel number.
Query |
Example | Command | :LOAD 2 Loads panel number 2.
Query |
Response |
Note |  |

### Setting and querying the terminator of the response message

Syntax | Command | :TRANsmit:TERMinator <Terminator number>
Query | :TRANsmit:TERMinator?
Response | <Terminator number>
Parameter | <Terminator number> = 0 to 255 (when command) / 0 to 1 (when query) (NR1)
Explanation | Command | Sets the terminator of the response message.
Query | Returns the setting of the terminator of the response message.
Example | Command | :TRANsmit:TERMinator 0
Query | :TRANsmit:TERMinator?
Response | :TRANSMIT:TERMINATOR 0 (when HEADER ON) 0 (when HEADER OFF)
Note |  |

### Setting and querying the RS-232C Communication Handshake

Syntax | Command | :HANDshake <OFF/X>
Query | :HANDshake?
Response | <OFF/X>
Parameter |
Explanation | Command | Sets the RS-232C communication handshake. OFF: No handshake X: Software handshake
Query | Returns the RS-232C communication handshake.
Example | Command | :HANDshake X Sets software handshake.
Query | :HANDshake?
Response | :HANDSHAKE X (when HEADER ON) X (when HEADER OFF) The setting is set to the software handshake.
Note |  | An execution error occurs if the interface is set to other than RS-232C.

### Setting and querying the data transfer format

Syntax | Command | :FORMat:DATA <ASCii/REAL>
Query | :FORMat:DATA?
Response | <ASCII/REAL>
Parameter |
Explanation | Command | Sets the data transfer format. ASCii: Transfers data in ASCII format. REAL: Transfers data in binary format.
Query | Returns the data transfer format.
Example | Command | :FORMat:DATA REAL Sets the data transfer format to binary.
Query | :FORMat:DATA?
Response | :FORMAT:DATA REAL (when HEADER ON) REAL (when HEADER OFF) The data transfer format is set to binary.
Note |  |

### Setting and querying long format for when data transfer

Syntax | Command | :FORMat:LONG <ON/OFF>
Query | :FORMat:LONG?
Response | <ON/OFF>
Parameter |
Explanation | Command | Sets long format for when data transfer.
Query | Returns ON or OFF for the setting of long format for when data transfer.
Example | Command | :FORMat:LONG ON Returns the data in long format when data transfer
Query | :FORMat:LONG?
Response | :FORMAT:LONG ON (when HEADER ON) ON (when HEADER OFF) The data is set to be returned in long format when data transfer.
Note |  |

### Setting and querying existence of header in response message

Syntax | Command | :HEADer <ON/OFF>
Query | :HEADer?
Response |
Parameter |
Explanation | Command | Sets whether or not there is a header in the response message. This is initialized to OFF when the power is turned on.
Query | Returns the header setting of the response message.
Example | Command | :HEADer ON Adds a header to the response message.
Query | :HEADer?
Response | :HEADER ON (when HEADER ON) OFF (when HEADER OFF) A header is set to be added to the response message.
Note |  |

### Setting and querying the date

Syntax | Command | :SYSTem:DATE <Year>,<Month>,<Day>
Query | :SYSTem:DATE?
Response | <Year>,<Month>,<Day>
Parameter | <Year> = 0 to 99 (NR1) <Month> = 1 to 12 (NR1) <Day> = 1 to 31 (NR1)
Explanation | Command | Sets the date.
Query | Returns the set date.
Example | Command | :SYSTem:DATE 12,3,12 Sets the date to February 29, 2012.
Query | :SYSTem:DATE?
Response | :SYSTEM:DATE 12,3,12 (when HEADER ON) 12,3,12 (when HEADER OFF) The date is set to February 29, 2012.
Note |  | The data can be set in the range of January 1, 2000, to December 31, 2099. Therefore, the first two digits of the year are fixed to "20," and just the last two digits can be set for "Year." An execution error occurs if a date that does not exist is specified.

### Querying the MAC address

Syntax | Command |
Query | :SYSTem:MACAddress?
Response | <MAC address>
Parameter |
Explanation | Command |
Query | Returns the MAC address.
Example | Command |
Query | :SYSTem:MACAddress?
Response | :SYSTEM:MACADDRESS 12-34-56-78-90-AB (when HEADER ON) 12-34-56-78-90-AB (when HEADER OFF) The MAC address is set to 12-34-56-78-90-AB.
Note |  | The MAC address cannot be changed.

### Querying the serial number

Syntax | Command |
Query | :SYSTem:SERIAlno?
Response | <Product No.>
Parameter |
Explanation | Command |
Query | Returns the serial number.
Example | Command |
Query | :SYSTem:SERIAlno?
Response | :SYSTEM:SERIALNO 123456789 (when HEADER ON) 123456789 (when HEADER OFF) The serial number is set to 123456789.
Note |  | The serial number cannot be changed.

### Setting and querying the time

Syntax | Command | :SYSTem:TIME <Hour>,<Minute>,<Second>
Query | :SYSTem:TIME?
Response | <Hour>,<Minute>,<Second>
Parameter | <Hour> = 0 to 23 (NR1) <Minute> = 0 to 59 (NR1) <Second> = 0 to 59 (NR1)
Explanation | Command | Sets the time.
Query | Returns the set time.
Example | Command | :SYSTem:TIME 12,34,56 Sets the time to 12:34:56.
Query | :SYSTem:TIME?
Response | :SYSTEM:TIME 12,34,56 (when HEADER ON) 12,34,56 (when HEADER OFF) The time is set to 12:34:56.
Note |  | An execution error occurs if a time that does not exist is specified.

### Returns the USB ID.

Syntax | Command |
Query | :SYSTem:USBId?
Response | <USB ID>
Parameter |
Explanation | Command |
Query | Returns the USB ID.
Example | Command |
Query | :SYSTem:USBId?
Response | :SYSTEM:USBID 108F:0001 (when HEADER ON) 108F:0001 (when HEADER OFF) The USB ID is 108f:0001.
Note |  |

### Execution of system resetting

Syntax | Command | :SYSTem:RESet
Query |
Response |
Parameter |
Explanation | Command | Executes system resetting.
Query |
Example | Command | :SYSTem:RESet Executes system resetting.
Query |
Response |
Note |  | After system resetting is performed, the instrument is initialized to the factory default settings. Before performing system resetting, disconnect the measurement sample.

### Initializing the instrument

Syntax | Command | :PRESet
Query |
Response |
Parameter |
Explanation | Command | Resets the instrument to the initial setting state. The initial setting state differs from when a reset is performed with the ?RST command. See "Initial Settings Table"
Query |
Example | Command | :PRESet Resets the instrument to the initial setting state.
Query |
Response |
Note |  |

### Executing file saving

Syntax | Command | :FILE:SAVE
Query |
Response |
Parameter |
Explanation | Command | Executes file saving. An execution error occurs if the file type is set to "OFF" or a USB flash drive is not connect.
Query |
Example | Command | :FILE:SAVE Executes file saving.
Query |
Response |
Note |  |

### BMP save settings and inquiry

Syntax | Command | :FILE:TYPE:BMP <OFF/COLor/MONochrome>
Query | :FILE:TYPE:BMP?
Response | <OFF/COLOR/MONOCHROME>
Parameter |
Explanation | Command | Configures the BMP save setting. OFF: BMP data is not saved. COLor: Screenshots are saved as full-color BMP files. MONochrome: Screenshots are saved as monochrome BMP files.
Query | Returns the BMP save setting.
Example | Command | :FILE:TYPE:BMP COLOR Configures the instrument so that screenshots are saved as full-color BMP files.
Query | :FILE:TYPE:BMP?
Response | :FILE:TYPE:BMP COLOR (when HEADER ON) COLOR (when HEADER OFF) The instrument has been configured so that screenshots are saved as full-color BMP files.
Note |  | This command configures save settings but does not actually save data. To save data, use the FILe:SAVe command.

### Text save settings and inquiry

Syntax | Command | :FILE:TYPE:TEXT <OFF/ON>
Query | :FILE:TYPE:TEXT?
Response | <OFF/ON>
Parameter |
Explanation | Command | Configures the text save setting. OFF: Text data is not saved. ON: Measured values are saved in text format.
Query | Returns the text save setting.
Example | Command | :FILE:TYPE:TEXT ON Configures the instrument so that measured values are saved as text files.
Query | :FILE:TYPE:TEXT?
Response | :FILE:TYPE:TEXT ON (when HEADER ON) ON (when HEADER OFF) The instrument has been configured so that measured values are saved as text.
Note |  | This command configures save settings but does not actually save data. To save data, use the FILe:SAVe command.

### Setting and querying the date and time for when saving text

Syntax | Command | :FILE:DATE <ON/OFF>
Query | :FILE:DATE?
Response | <ON/OFF>
Parameter |
Explanation | Command | Sets whether to save the date and time when saving text.
Query | Returns the date and time setting for when saving text.
Example | Command | :FILE:DATE ON Saves the date and time when saving text.
Query | :FILE:DATE?
Response | :FILE:DATE ON (when HEADER ON) ON (when HEADER OFF) The date and time are saved when saving text.
Note |  |

### Setting and querying the delimiter for when saving text

Syntax | Command | :FILE:DELIMiter <COMma/TAB/SEMIcolon/SPACE>
Query | :FILE:DELIMiter?
Response | <COMMA/TAB/SEMICOLON/SPACE>
Parameter |
Explanation | Command | Sets the delimiter for when saving text. COMma: Comma (,) TAB: Tab SEMIcolon: Semicolon (;) SPACE: Space
Query | Returns the delimiter for when saving text.
Example | Command | :FILE:DELIMiter SEMIcolon Sets the delimiter for when saving text to a semicolon.
Query | :FILE:DELIMiter?
Response | :FILE:DELIMITER SEMICOLON (when HEADER ON) SEMICOLON (when HEADER OFF) The delimiter for when saving text is set to a semicolon.
Note |  |

### Setting and querying the save folder

Syntax | Command | :FILE:FOLDer <"Folder name">
Query | :FILE:FOLDer?
Response | <Folder name>
Parameter | <"Folder name"> = +, -, _, 0 to 9, A to Z (Up to 12 characters)
Explanation | Command | Sets the folder name of the save folder. The characters that can be used for the file name are alphanumeric characters and the "+", "-" and "_" symbols. Lowercase alphabetical characters are converted to uppercase.
Query | Returns the folder name of the save folder.
Example | Command | :FILE:FOLDer "SaveData0523" Sets the folder name of the save folder to [SAVEDATA0523].
Query | :FILE:FOLDer?
Response | :FILE:FOLDER SAVEDATA0523 (when HEADER ON) SAVEDATA0523 (when HEADER OFF) The folder name of the save folder is set to [SAVEDATA0523].
Note |  | Please use only the character which you can set in the instrument for a folder name.

### Querying USB flash drive information

Syntax | Command |
Query | :FILE:INFOrmation?
Response | <Format type>,<Total size>,<Space used>,<Space free>,<Usage rate>
Parameter | <Format type> = FAT12/ FAT16/ FAT32
Explanation | Command |
Query | Returns the information of the USB flash drive. An execution error occurs if the USB flash drive is not connected.
Example | Command |
Query | :FILE:INFOrmation?
Response | :FILE:INFORMATION FAT32,1.9GB,960MB,949MB,50.3% (when HEADER ON) FAT32,1.9GB,960MB,949MB,50.3% (when HEADER OFF) The format type of the connected USB flash drive is FAT32, the total size 1.9 GB, space used 960 MB, space free 949 MB, and usage rate 50.3%.
Note |  |

### Setting and querying the mode of the save folder

Syntax | Command | :FILE:MODE <AUTO/MANUAL>
Query | :FILE:MODE?
Response | <AUTO/MANUAL>
Parameter |
Explanation | Command | Sets the mode of the save folder. AUTO: The save folder is set automatically from the date and time. MANUAL:Any folder can be set. Set the folder name with the FILE:FOLDer command.
Query | Returns the mode of the save folder.
Example | Command | :FILE:MODE MANUAL Sets the mode of the save folder to manual.
Query | :FILE:MODE?
Response | :FILE:MODE MANUAL (when HEADER ON) MANUAL (when HEADER OFF) The mode of the save folder is set to manual.
Note |  |

### Setting and querying the measurement parameter setting for when saving text

Syntax | Command | :FILE:PARAmeter <ON/OFF>
Query | :FILE:PARAmeter?
Response | <ON/OFF>
Parameter |
Explanation | Command | Sets whether to save the measurement parameters when saving text.
Query | Returns the setting of the measurement parameters for when saving text.
Example | Command | :FILE:PARAmeter ON Saves the measurement parameters when saving text.
Query | :FILE:PARAmeter?
Response | :FILE:PARAMETER ON (when HEADER ON) ON (when HEADER OFF) The measurement parameters are saved when saving text.
Note |  |

### Setting and querying the quotation mark setting for when saving text

Syntax | Command | :FILE:QUOTe <OFF/DOUBle/SINGle>
Query | :FILE:QUOTe?
Response | <OFF/DOUBLE/SINGLE>
Parameter |
Explanation | Command | Sets the quotation mark for when saving text. OFF: Quotation marks are not added. DOUBle: Double quotation mark (") SINGle: Single quotation mark (e)
Query | Returns the quotation mark for when saving text.
Example | Command | :FILE:QUOTe DOUBle Sets the quotation mark for when saving text to the double quotation mark.
Query | :FILE:QUOTe?
Response | :FILE:QUOTE DOUBLE (when HEADER ON) DOUBLE (when HEADER OFF) The quotation mark for when saving text is set to the double quotation mark.
Note |  |

### Setting and querying the measurement condition setting for when saving text

Syntax | Command | :FILE:SET <ON/OFF>
Query | :FILE:SET?
Response | <ON/OFF>
Parameter |
Explanation | Command | Sets whether to save the measurement conditions when saving text.
Query | Returns the measurement condition setting for when saving text.
Example | Command | :FILE:SET ON Saves the measurement conditions when saving text.
Query | :FILE:SET?
Response | :FILE:SET ON (when HEADER ON) ON (when HEADER OFF) The measurement conditions are saved when saving text.
Note |  |

### Execution of settings save to USB memory

Syntax | Command | :FILE:PANel:SAVE <"File name">
Query |
Response |
Parameter | <"File name"> = +, -, _, 0 to 9, A to Z (Up to 12 characters)
Explanation | Command | Specifies a panel name and saves the panel to USB memory. Executing this command causes a folder named "SETTING" to be created on the USB memory, and the settings is saved in that folder. Executing it in LCR mode causes the LCR panel to be saved, while executing it in analyzer mode causes the analyzer panel to be saved. The valid characters listed above are used for the file name, which can be specified using a maximum of 12 characters. Lowercase letters "a" to "z" are converted into uppercase letters.
Query |
Example | Command | :FILE:PANel:SAVE "TEST1" Saves the settings to USB memory under the name "TEST1".
Query |
Response |
Note |  | Before executing this command, check whether the USB memory has been properly recognized. Please use only the character which you can set in the instrument for a file name.

### Execution of settings load from USB memory

Syntax | Command | :FILE:PANel:LOAD <"File name">
Query |
Response |
Parameter | <"File name"> = +, -, _, 0 to 9, A to Z (Up to 12 characters)
Explanation | Command | Specifies a file name and executes a settings load from USB memory. The valid characters listed above are used for the file name, which can be specified using a maximum of 12 characters.
Query |
Example | Command | :FILE:PANel:LOAD "TEST1" Loads the file named "TEST1" from USB memory.
Query |
Response |
Note |  | An execution error will result if a settings with the specified name does not exist. This command cannot be executed during measurement, and doing so will result in an execution error. Execute the command after changing to an external trigger (in LCR mode) or to sequential sweep or step sweep (in analyzer mode). Please use only the character which you can set in the instrument for a file name.

### Execution of all save to USB memory

Syntax | Command | :FILE:PANel:ALLSave <"Specified save file name">
Query |
Response |
Parameter | <"File name"> = +, -, _, 0 to 9, A to Z (Up to 12 characters)
Explanation | Command | Specifies a file name and saves the current settings and all the panels saved in the instrument to USB memory. Executing this command creates a file named as the set saving file in the gSETTINGh folder on the USB memory, and the data is saved in that folder. Use the valid characters shown above for the file name and specify a name that is within 12 characters. Lowercase a to z are converted to uppercase.
Query |
Example | Command | :FILE:PANel:ALLSave "TEST2" Executes all save onto the USB memory under the name gTEST2h.
Query |
Response |
Note |  | Before executing this command, check that the USB memory has been properly recognized. Please use only the character which you can set in the instrument for a file name.

### Execution of all load from USB memory

Syntax | Command | :FILE:PANel:ALLLoad <"Specified save file name">
Query |
Response |
Parameter | <"File name"> = +, -, _, 0 to 9, A to Z (Up to 12 characters)
Explanation | Command | Specifies a file name and executes all load from the USB memory. Use the valid characters shown above for the file name and specify a name that is within 12 characters.
Query |
Example | Command | :FILE:PANel:ALLLoad "TEST2" Executes all load of gTEST2h from the USB memory.
Query |
Response |
Note |  | An execution error occurs if a file with the specified name does not exist. This command cannot be executed during measurement, and an attempt to do so will cause an execution error. Execute the command after changing to an external trigger for the LCR mode, or to sequential sweep or step sweep for the analyzer mode. When all load is executed, all the panels saved in the instrument are overwritten. Please use only the character which you can set in the instrument for a file name.

### Querying the voltage/current monitor value

Syntax | Command |
Query | :MONItor?
Response | <AC voltage monitor value>, <AC current monitor value>
Parameter |
Explanation | Command |
Query | Returns the voltage monitor value and current monitor value.
Example | Command |
Query | :MONItor?
Response | :MONITOR 3.500061E-03,1.015322E-02 (when HEADER ON) 3.500061E-03,1.015322E-02 (when HEADER OFF) The AC voltage monitor is 3.500061 mV, and AC current monitor is 10.15322 mA.
Note |  |

### Acquiring the BMP data of the measurement screen

Syntax | Command |
Query | :HCOPy:DATA? <COLor/MONochrome>
Response | <BMP data>
Parameter |
Explanation | Command |
Query | Returns the BMP data of the measurement screen in binary format. As shown in the figure below, for the binary data, the number of transfer bytes is output at the top, and the BMP data is output next, and the terminator is output at the end. COLor: Color BMP data MONochrome: Black-and-white BMP data
Example | Command |
Query | :HCOPy:DATA? COLor
Response | Acquires the color measurement screens.
Note |  | For the procedure to convert the binary data obtained by this query to the BMP, refer to the sample program.