User's Manual
Table Of Contents
- Title page
- Table of Contents
- General Safety Summary
- Preface
- Getting Started
- Operating Basics
- Reference
- Reference
- Menu Structures
- The Setup Menu Screen
- The Graphical Waveform Editor
- The Pattern Editor
- Quick Editing
- The Table Editor
- The Equation Editor
- The Sequence Editor
- The APPL Menu
- The UTILITY Window
- External Keyboards
- Setting General Purpose Knob Direction
- Formatting a Floppy Disk
- Displaying Disk Usage
- Screen Display Enable/Disable
- Focused Color
- Displaying Instrument Status
- Internal Clock (Date and Time)
- Resetting the Instrument
- Connecting to a GPIB Network
- Ethernet Networking
- Hardcopy
- Calibration and Diagnostics
- Upgrading the System Software
- Capturing Waveforms
- Waveform Programming Language
- Command Descriptions
- Programming Examples
- File Conversion
- File Management
- FG Mode
- Waveform Mixing Mode
- Synchronous Operation Mode (AWG710B only)
- Appendices
- Appendix A: Specifications (AWG710B)
- Appendix A: Specifications (AWG710)
- Appendix B: Performance Verification (AWG710B)
- Conventions
- Self Tests
- Performance Tests
- Operating Mode Tests
- Amplitude and Offset Accuracy Tests (Normal Out), (except option 02)
- Amplitude, Offset Accuracy and Rise Time Tests (Direct DA Out), (except option 02)
- Amplitude, Offset Accuracy and Rise Time Tests (for option 02)
- Pulse Response Tests (Normal Out), (except option 02)
- Trigger Input Tests
- Event Input and Enhanced Mode Tests
- External Clock Input and VCO Out Output Tests
- VCO OUT Output Frequency and 10 MHz Reference Input Tests
- Marker Output Tests
- Synchronous Operation Tests
- Appendix B: Performance Verification (AWG710)
- Conventions
- Self Tests
- Performance Tests
- Operating Mode Tests
- Amplitude and Offset Accuracy Tests (Normal Out), (except option 02)
- Amplitude, Offset Accuracy and Rise Time Tests (Direct DA Out), (except option 02)
- Amplitude, Offset Accuracy and Rise Time Tests (for option 02)
- Pulse Response Tests (Normal Out), (except option 02)
- Trigger Input Tests
- Event Input and Enhanced Mode Tests
- 1/4 Clock Frequency and 10 MHz Reference Input Tests
- Marker Output Tests
- Appendix C: Inspection and Cleaning
- Appendix D: Sample Waveforms
- Appendix E: File Transfer Interface Outline
- Appendix F: Miscellaneous
- Appendix G: Sequence File Text Format
- Index

The APPL Menu
3-134 AWG710&AWG710B Arbitrary Waveform Generator User Manual
7. If needed, you can repeat adjusting the superpose parameters in this screen and
generate new output waveform.
8. Select Superpose (bottom)!Save... (side) to save the generated waveform to
a file.
Input data
The specified pattern or waveform file is used as input data. When a pattern data
file is specified for input, the application reads only the MSB bits (DATA7). When
a waveform file is specified, this process converts the values equal to or greater
than 0.5 to a logic 1, and the values less than 0.5 to a logic 0.
The pre–defined patterns shown in Table 3-35 are incorporated in the application:
Code Conversion
This part inputs the binary bit pattern and converts the transition from 1 to 0 or 0
to 1 to a series of positive and negative pulse. Table 3-36 lists the available code
conversion types:
NOTE. One restriction is applied to the number of input data points;
input data points > isolated pulse data points / (Samples/Cell)
Table 3-35: Pre–defined patterns
Pattern items Descriptions
X^15 + X + 1 15–bit M–series pseudo random pulse
X^9 + X^5 + 1 9–bit M–series pseudo random pulse
X^7 + X^3 + 1 7–bit M–series pseudo random pulse
32’1’s 32–bit wide data in which all bits are set to 1
Harmonic Elimination Pattern The pattern’s 5th harmonic component is set to 0.
110000001000000110000001000000
Table 3-36: Code Conversion
Code conversion Descriptions
NRZ Converts a transition from 0 to 1 to a positive pulse, and from 1 to 0 to a
negative pulse. This conversion considers the input data as representing a
direction of magnetization.
NRZI Generates a pulse when the input data is 1. The first pulse is always
positive, and after this, the pulse polarity toggles for every input data value
of 1. This conversion considers the input data as representing the disk
writing data.