User`s guide
Table Of Contents
- User’s Guide
- 1 Getting Started
- 2 Introduction
- 3 Installation
- 4 Using EasyEXPERT
- 5 Classic Test Definition
- I/V Sweep
- Multi Channel I/V Sweep
- I/V List Sweep
- I/V-t Sampling
- C-V Sweep
- Direct Control
- Function Setup
- Auto Analysis Setup
- Display Setup
- SMU Range Setup Window
- ADC and Integration Time Setup Window
- Advanced Setup Window
- CMU Range Setup Window
- Advanced Setup Window for C-V Sweep
- Switching Matrix Control
- SPGU Control
- SPGU Pulse Setup Window
- Load Z Setup Window
- Pulse Switch Setup Window
- SPGU ALWG Setup Window
- Define ALWG Waveform Window
- 6 Application Test Definition
- 7 Function Details
- I/V Sweep Measurement
- Multi Channel I/V Sweep Measurement
- I/V-t Sampling Measurement
- C-V Sweep Measurement
- SPGU Module
- Sweep Abort Function
- Standby Function
- Bias Hold Function
- Current Offset Cancel
- SMU CMU Unify Unit
- Atto Sense and Switch Unit
- SMU/PG Selector
- SMU Ranging Mode
- SMU Compliance
- SMU Pulse
- SMU Measurement Time
- SMU Filter
- SMU Series Resistor
- Interlock Function
- Auto Power Off Function
- Initial Settings
- 8 Built-in Programming Tool
- 9 If You Have a Problem
- When You Operate B1500A
- When You Perform Measurement
- Measurement Takes More Time than Specified
- Noise Affects the Measured Values
- Voltage Measurement Error is Large
- SMU Oscillates for High-Frequency Device Measurements
- SMU Oscillates for Negative Resistance Measurements
- Large Current Causes High Temperature (Thermal Drift)
- Measurement Damages the Device under Test
- Leaving Connections Damages Devices after Measurement
- Unexpected Sampling Measurement Data is Returned
- MFCMU Causes Unbalance Condition
- Before Shipping to Service Center
- Data Backup and Recovery
- B1500A System Recovery
- Updating EasyEXPERT
- Error Codes
- 10 Application Library and Utilities

Agilent B1500 User’s Guide, Edition 7 8- 7
Built-in Programming Tool
Built-in Functions
Built-in Functions
This section describes Agilent EasyEXPERT built-in functions. The functions
appear in alphabetical order. In the function name, the character in parentheses is a
variable.
abs(A) Returns the absolute value of
the expressio
n A.
Example
B=abs(A)
Data type A: numeric, B: numeric. Or A: vector, B: vector.
acos(A) Returns the arccosine value of the expression A. Th
e A value must be between -1
and 1.
Example
B=acos(A)
Data type A: numeric, B: numeric. Or A: vector, B: vector.
asin(A) Returns the arcsine value of the expression A. The A value must be be
tween -1 and
1.
Example
B=asin(A)
Data type A: numeric, B: numeric. Or A: vector, B: vector.
at(A,B) Finds a data element in the expression A, and returns the
value. The data element is
specified by index B. The index number starts from 1. If B is not an integer, a linear
interpolated A value will be returned.
Example
C=at(A,B)
Data type A: vector or numeric, B: numeric, C: vector.
at(A,B,C) Finds a data element in the expression A, and returns the
value. The data element is
specified by the indices B and C. B is the index for the primary plane of a
two-dimensional array and C is the index for the secondary plane. The index number
starts from 1.
If B is not an integer, a linear interpolated A value will be return
ed. The linear
interpolation will be executed between A[n,C] and A[n+1,C], where n < B < n+1.
If C is not an integer, C will be n, where n < C < n+1.
Example
D=at(A,B,C)
Data type A: vector or numeric, B: numeric, C: numeric, D: numeric.