Measurement Operations & Settings

Triggering - The TRIGger Subsystem

 

Output Matrix Configuration

 

 

This 32-bit unsigned integer lets you choose Node A OR Node B to trigger each of the following:

 

• the Output Trigger Connector or

 

 

• individual module slots.

 

 

 

 

Bit

Mnemonic

Hexadecimal

31

Not used

0

30

Output Trigger Connector: 0 - a trigger at Node A is switched to the Output Trigger Con-

#H40000000

 

nector, 1 - a trigger at Node B is switched to theOutput Trigger Connector

 

18-29

Not used

 

17

Slot 17: 0 - Node A triggers slot 17, 1 - Node B triggers slot 17

0

16

Slot 16: 0 - Node A triggers slot 16, 1 - Node B triggers slot 16

#H20000

....

....

#H10000

 

2

Slot 2: 0 - Node A triggers slot 2, 1 - Node B triggers slot 2

 

1

Slot 1: 0 - Node A triggers slot 1, 1 - Node B triggers slot 1

#H4

0

Slot 0: 0 - Node A triggers slot 0, 1 - Node B triggers slot 0

#H2

 

“:TRIGger[n][:CHANnel[m]]:INPut” on page 173 explains how a slot responds to an in-

#H1

 

coming trigger.

 

 

 

 

Extended Trigger Configuration Example

The short example below demonstrates how to use extended triggering configuration to make tunable laser source modules sweep simultaneously. Setup your mainframe with two Agilent 81689A modules in slots 1 and 2. The example below presumes you set up identical stepped sweeps for both modules, for example, by pressing PRESET.

Tunable Tunable

Laser Laser

Figure 8 Setup for Extended Trigger Configuration Example

182

Agilent 8163A/B, 8164A/B & 8166A/B Mainframes, Fifth Edition

Page 182
Image 182
Agilent Technologies 8163A, B, 8166A, 8164A manual Extended Trigger Configuration Example, 182, Output Matrix Configuration

8163A, 8164A, 8166A, B specifications

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