Bk-precision 4078 - Manual Bedienungsanleitung

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Inhaltsverzeichnis

Seite 1

Model: 4075, 4078 25 MHz Arbitrary Function Generator USER MANUAL

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Internal Trigger Repetition 1 µs to 100 s Resolution 4 digits Accuracy +0.002% General Store Memory 50 full panel settings at power-off Arbitrary Me

Seite 3 - Safety Summary

94 - Select F2 – ARB - Select F4 – EDIT - Select F3 – PREDEF - Select F2 – FROM, press key 1 and ENTER - Select F2 – DATA, press key 0 and ENTER -

Seite 4

95 Performance Tests Results Setting Minimum reading Maximum reading Reading Frequency DDS 1 MHz 999980 Hz 1000020 Hz Frequency ARB 1 MHz 9999

Seite 5 - Table of Contents

96 80% 79.00% 80.00% Yes No Operating Modes: Triggered Burst

Seite 6

97 22820 Savi Ranch Parkway Yorba Linda, CA 92887 www.bkprecision.com © 2010 B&K Precision Corporation

Seite 7 - Section 1

Section 2 Installation 2.1 Introduction This section contains installation information, power requirements, initial inspection and

Seite 8 - Specifications

2.6 Power Requirements The Model 4075 and 4078 can be operated from any source of 90 V to 264 V AC, frequency from 48 Hz to 66 Hz. The maximum p

Seite 9

2.9.1 Communication Speed The 4075 and 4078 have the capabilities of generating large arbitrary waveforms with up to 400,000 points. Due to this

Seite 11 - Section 2

Section 3 Operating Instructions 3.1 General Description This section describes the displays, controls and connectors of the Model 4075 and 4078

Seite 12 - 2.9 RS-232 Connection

6. Cursor Keys - Used to move the cursor (when visible) to either left or right when modifying values of various parameters. 7. Output ON

Seite 13 - 2.10 RS-232 Configuration

6. Mode Display - Displays the current mode selected. The can be continuous, trigger, burst, or gate (displayed as CONT , TRI, BURST,

Seite 14

generator setting, to the generator. This connector is also used when using an external signal to generate FSK under modulation menu. (See section

Seite 15 - Section 3

o FREQ o SYM o AMPL | OFST o INTREF | EXTREF - SQUARE o FREQ o SYM o AMPL | OFST o INTREF | EXTREF - PULSE o FREQ o PULSE  FREQ | PERI

Seite 16 - 3.2 Display Window

2 SERVICE INFORMATION Warranty Service: Please go the support and service section on our website www.bkprecision.com to obtain a RMA #. Return the

Seite 17 - 3.4 Back Panel Controls

 NBRST o GATE  MAN  INT • GATE RATE  EXT o PHASE (not available in PULSE and ARB mode)  PHASE  SET-ZERO  PREV - SWEEP (not availab

Seite 18 - 3.6 MENU Keys

In Arbitrary mode this setting defines the maximum peak-to-peak amplitude of a full-scale waveform. If the waveform does not use the full scale of d

Seite 19

3.6.2 MODE Key Selects the output mode: CONT (Continuous), TRIG (Triggered), GATE (Gated), and BRST (Burst). To select the output mode, press MOD

Seite 20 - 3.6.1 WAVEFORM Keys

3.6.3 ARBITRARY Key When selected displays the following screen: Arbitrary Menu F1: FREQ/RATE - (Frequency) Selects and displays the

Seite 21

can be recalled when revisiting the ARB menu later on or when power cycling the instrument. Note: The 4075 and 4078 can both save multiple numbe

Seite 22 - 3.6.2 MODE Key

Marker Function Illustration F4: EDIT - Refer to section 3.6.4 below for details. **Changing one of the arbitrary p

Seite 23 - 3.6.3 ARBITRARY Key

3.6.4 Arbitrary EDIT Menu Enters data for creating arbitrary waveforms. You can enter data one point at a time, as a value at an address, draw a

Seite 24

F1: FROM - Selects the starting point address. F2: TO - Selects the ending point address. F4: EXEC - Displays

Seite 25 - Markers

value of the starting point and automatically calculated by the unit. F4: EXEC - Prompts you to confirm whether to execute the selected predefin

Seite 26 - 3.6.4 Arbitrary EDIT Menu

F2: TO - Selects the address of the last point to clear. F3: ALL - Clears the whole waveform memory. Equivalent to selecting fr

Seite 27

3 Safety Summary The following safety precautions apply to both operating and maintenance personnel and must be observed during all phases of opera

Seite 28

Utility Menu F1: GPIB - (optional) Selects the GPIB remote mode of operation. After selection the GPIB address can be set to any value from 1 to

Seite 29 - 3.6.6 UTILITY Key

points of storage), users can have the freedom to store as many waveforms of different lengths as they desired in a dynamic fashion (with the limit

Seite 30

Rate. To select the sweep mode, press SWEEP, then press the function key that corresponds to the desired Sweep menu option, as shown: Sweep Me

Seite 31

Modulation Menu F1: AM If the AM is selected, the following menu is available: AM Menu F1: ON/OFF - Selects the Modulation ON or OFF

Seite 32 - 3.6.8 MODULATION Key

Modulation In connector. F3: FSK If the FSK is selected, the following menu is available: FSK Menu F1: ON/OFF - Selects t

Seite 33

power-on default settings. Table 3-2 lists the factory default settings. You can program the waveform generator for any settings you want at power o

Seite 34 - 3.10 Power-On Settings

Setting conflict Can't have this parameter set with some other. Trig rate short Internal trigger rate too short for wave/bur

Seite 35 - 3.12 Displaying Errors

* Draw lines between data points * Create a predefined waveform * Export waveform from software * Create data points using SCPI commands

Seite 36 - 3.14 Examples

𝑟𝑎𝑡𝑒 =11000 𝑝𝑡𝑠 ∙ 1000 𝐻𝑧= 1 𝜇𝑠 EXAMPLE: Setting the Output Frequency To set the output frequency of a 1000 point waveform in execution memory to

Seite 37

3.14.6 Using Voltage Offset Through the offset parameter you can add a positive or negative DC level to the output waveform. To set voltage of

Seite 38

4 CAUTION: Before connecting the line cord to the AC mains, check the rear panel AC line voltage indicator. Applying a line voltage other than th

Seite 39 - 3.14.6 Using Voltage Offset

Section 4 Programming 4.1 Overview 4.1.1 GPIB This section provides detai

Seite 40 - 4.1 Overview

The instrument accepts a carriage return (CR) as an end of string (EOS) terminator and sends both a CR and LF as the EOS terminator. 4.2 Device S

Seite 41 - 4.4 Device Address

4.5 Message Exchange Protocol The device decodes messages using the Message Exchange Protocol (MEP) defined in IEEE 488.2. The following function

Seite 42 - 4.5.4 Coupled Commands

current frequency out of range. c) The commands to set modulation, modulation source and the function are inter-related. FM and FSK are not availab

Seite 43 - 4.10 Command Syntax

c) LF being sent with EOI true. The Program Message Unit can be divided into three sections as follows: a) Program Header The Program Heade

Seite 44

or numeric. A numeric value is rounded to an integer. A non-zero result is interpreted as 1 (ON), and a zero result as 0 (OFF). Queries return th

Seite 45

- # - 0 – 8-bit byte – LF^EOI Some Program Message Units either require, or can accept, more than one data element. Program data elements are sepa

Seite 46

Common Commands may be inserted in the Program Message without affecting the instrument-control command reference. For example, SOURCE:VOLTAG

Seite 47 - 4.11 Status Reporting

4.11.2 Service Request Enabling Service request enabling allows the user to select which Status Byte summary messages may cause the device to acti

Seite 48 - 4.11.5 Error Codes

The error message is returned in the form <error number>,"<error description>" A table of error numbers and their de

Seite 49

5 Table of Contents Safety Summary ... 3 Section 1 ...

Seite 50

-178 Expression data not allowed Execution Errors An execution error indicates that the device could not execute a syntactically corre

Seite 51 - 4.12 Common Commands

System Events System events have positive valued codes. They are not defined by SCPI, but are specific to the instrument. Sending the :STATus:P

Seite 52

Response: B&K, MODEL 4078,0,V1.03 b) *OPT? - Option identification query The Option Identification Query is used to identify

Seite 53

Syntax: *OPC? Response: ASCII character 1 Example FREQ 1KHz;*OPC? c) *W

Seite 54

Syntax: *PSC? Response: ASCII 0 for OFF ASCII 1 for ON W

Seite 55 - 4.13.1 SOURce Subsystem

Arguments Type <NRf> Range 0 to 49. Non integer values are

Seite 56

:AM [:STATe] <Boolean> :DEPTh <numeric value> :SHAPe SINusoid|SQUare|TRI

Seite 57 - 4.13.1.3 Offset

Query Syntax: [:SOURce]:FREQuency[:CW]?[<ws>MAXimum|MINimum] Examples: :FREQ?

Seite 58 - 4.13.1.5 Function

Arguments Type: Numeric Units: V, mV

Seite 59 - 4.13.1.7 AM modulation

Syntax: [:SOURce]:FUNCtion[:SHAPe]? Examples: :FUNC? Response: SIN|TRI|SQU|ARB|PUL

Seite 60

6 4.5 Message Exchange Protocol ...

Seite 61 - 4.13.1.8 FM modulation

Rounding: to integer Command Type: Setting or Query Setting Syntax:

Seite 62 - 4.13.1.9 FSK modulation

Examples: AM:SOUR INT AM:SOUR EXT Query

Seite 63

Syntax: [:SOURce:]FM:SHAPe? Response: SIN|TRI|SQU 4.13.1.8.4 FM FREQuency This command se

Seite 64 - 4.13.1.10 Sweep control

4.13.1.9.2 FSK LOWFrequency This command sets the lower of the two frequencies used in FSK modulation. Arguments

Seite 65

Examples: FSK:RATE 5KHZ FSK:RATE 5E3

Seite 66 - 4.13.1.12 PULSe setting

4.13.1.10.3 Sweep TIME This command sets the time for one complete sweep: Arguments Type: Numer

Seite 67 - 4.13.1.13 Duty Cycle

Query Syntax: [:SOURce:]SWEEP:STOP?[<ws>MAXimum|MINimum] Examples: SWEEP:STOP ?

Seite 68 - 4.13.3 Trigger Subsystem

Syntax: [:SOURce:] PULse: WIDth?[<ws>MINimum|MAXimum] Response: NR3 4.13.1.12.3 PUL

Seite 69 - 4.13.3.3 Burst Count

This command is used to set the duty-cycle of the square wave or the symmetry of triangular wave. The value is given in percent . Arguments

Seite 70 - 4.13.4 Arbitrary Subsystem

:SOURce <MANual|INTernal|EXTernal|BUS :TIMer <numeric value> Note: For model 4078, nothing changes in the commands above to

Seite 71 - 4.13.4.2 Address

Section 1 Introduction 1.1 Introduction This manual contains information required to operate, program and test the Model 4075 and 407

Seite 72 - 4.13.4.3 Data

Arguments Type: Numeric Range: 1 to 999999

Seite 73 - 4.13.4.5 Clear

:ADDRess <numeric value> :DATA <numeric value>|<arbitrary block> :DRAW <numeric value>,<numeric value>

Seite 74 - 4.13.4.6 Copy

This command sets the current address of the waveform. It is used to determine where arbitrary data are to be written. Use this command when queryi

Seite 75

4.13.4.4 Line Draw :ARBitrary:DRAW <start address>,<end address> This command is used to generate a straight line between two poi

Seite 76 - 4.13.4.12 Marker Address

2) The end address must be greater than the start address. 4.13.4.6 Copy :ARBitrary:COPY <start address>,<length>,<destina

Seite 77 - 4.13.4.15 Save

Example: :ARB:PROT:STAT ON Query Syntax: :ARBitrary:PROTect:STATe?

Seite 78 - 4.13.5.3 Error Queue Enable

4.13.4.10 Start Address :ARBitrary:STARt <start address> This command sets the start address of the waveform to be run. Arguments

Seite 79

Setting Syntax: :ARBitrary:MARKer[:ADDRess]<ws><marker address> Examples: :ARB

Seite 80

4.13.5 Status Subsystem This subsystem controls the SCPI-defined status reporting structures, which are the QUEStionable and OPERation status regi

Seite 81 - 4.13.6 System Subsystem

that were enabled before the last power down. Type: Expression The expression data takes the form (NRf|<event ra

Seite 82 - 4.13.6.5 Power-on Buffer

o Ramp down o Noise - Draw a line between any two points - Clear (set to zero) any set of points or all points - Set individual point

Seite 83 - 4.14.4 LLO - Local Lockout

:STATus:QUEstionable:CONDition? This query is used to read the condition register. Command Type: Query only Query

Seite 84 - 4.15 SCPI Command Tree

This command is used to set and query the value of the enable register. Arguments Type: NRf

Seite 85 - 4.15.5 :ARBitrary Subsystem

:SYSTem:ERRor? This query returns the first entry in the error queue, and removes that entry from the queue. Its function is identical to that of

Seite 86 - 4.15.7 :SYSTem Subsystem

Syntax: :SYSTem:POBuffer?[<ws>MINimum|MAXimum] Response: Power-on buffer in NR1 format 4.14 IEEE 488.1 Interface

Seite 87

4.15 SCPI Command Tree 4.15.1 Root Node Root [:SOURce] :OUTPut :TRIGge

Seite 88

4.15.4 :TRIGger Subsystem :TRIGger :MODE :BURSt :SOURce

Seite 89

4.15.6 :STATus Subsystem :STATus :OPERation [:EVENt]? :CO

Seite 90 - 4.17.1 General

ASCII and GPIB Code Chart Hex Oct Dec ASCII Msg Hex Oct Dec ASCII Msg 00 000 0 NUL 20 040 32 SP MLA0 01 001 1 SOH GTL 21 041 33 ! MLA1 02 002 2 S

Seite 91

Hex Oct Dec ASCII Msg Hex Oct Dec ASCII Msg 40 100 64 @ MTA0 60 140 96 ` MSA0,PPE 41 101 65 A MTA1 61 141 97 a MSA1,PPE 42 102 66 B MTA2 62 142 98 b

Seite 92

4.16 Block Transfer (GPIB only) Arbitrary waveform data sent in IEEE488.2 arbitrary block format may take two forms: the definite form and the ind

Seite 93

Output Leakage Approximately 10 mA can be present at the output BNC connector when unit is powered on and the output is off Waveform Characteristics

Seite 94 - Section 5

4.17 GPIB Communication Protocol (for models 4075GPIB & 4078GPIB) 4.17.1 General This appendix describes the effects of interface me

Seite 95 - 5.3 Performance Tests

SPE-Serial Poll Enable (24 with ATN) The SPE message generates output serial poll status bytes when talk-addressed. SPD-Serial Poll

Seite 96

Local State (LOCS) When in a local state (LOCS), you control the settings through the front-panel controls. In addition, only GPIB query commands a

Seite 97 - 5.3.4 Sine Distortion

Basic Talker T6 Responds to Serial Poll, Untalk if My Listen Address (MLA) is received Basic Listener L4 Unlist

Seite 98 - 5.3.7 Operating Modes

Section 5 Performance Check Procedures 5.1 Introduction This section provides the procedure for checking the electrical performance requirements

Seite 99

89 5.3 Performance Tests The following tests verify that the waveform generator operates and meets specifications. Perform the tests after a war

Seite 100 - 5.3.10 RS232 Capability

90 Amplitude setting Minimum reading RMS Maximum reading RMS DVM reading RMS 10Vp-p 3.499V 3.572V 5Vp-p 1.749V 1.786V 3Vp-p 1.049V 1.072V 1Vp-

Seite 101 - Performance Tests Results

91 - Select OUT ON 8. CHECK that the measured voltages on the DVM at 10Vp-p, 5Vp-p, 3Vp-p, 1Vp-p, 100 mVp-p and 50mVp-p are in the accuracy rang

Seite 102

92 7.13 Connect the OUTPUT connector to the distortion analyzer using a 50 ohm coaxial cable and a 50 ohm feedthrough termination. 7.14 Set the un

Seite 103

93 4. Set the external function generator for a square wave output from 0V to 2V at 200 Hz. 5. Connect the function generator output to the uni

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