New: STG4000 Stimulus Generators for Use with PowerLab
We are pleased to announce the release of two new products: STG4004 4 Channel Stimulus Generator and STG4008 8 Channel Stimulus Generator. With increased voltage and current output resolution, these new stimulus generators will be replacing the discontinued STG2000 Stimulus Generator Series.
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Features of the STG4000 Stimulus Generator series include:
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Stimulus Waveforms
The supplied MC_Stimulus II software (Windows XP and Vista Compatible) allows the user to create complex stimulus waveforms (both current and voltage). The Stimulus Generators (STG) can operate in either Download Mode (protocols are downloaded onto the STG and played without a computer connection) or Streaming Mode (data are continuously sent from the computer to the STG in small data packets).
Custom applications for both modes can be programmed in MatLab, LabView, C/C++ and Visual Basic.
Triggering
The STG4000 Stimulus Generator Series can be controlled by a trigger signal from the PowerLab data acquisition system. It recognizes a TTL (transistor-transistor logic) signal of at least 20us in length and up to 5V.
STG4004 and STG4008 are supplied with:
- High Speed USB 2.0 cable (for connection to computer)
- 4 x cable with 2 mm and 0.76 mm plugs (red)
- 4 x cable with 2 mm and 0.76 mm plugs (black)
- 1 x shielded 3-pole cable
- 4 x short circuit-cable (black)
- 100-240 V AC mains power unit (specify destination country when ordering)
- MC_Stimulus II Software for Windows ONLY (XP and Vista compatible)
- User Guide
| Effective immediately, all STG stimulators dispatched will be of the STG4000 series |
For more information regarding the STG4000 Stimulus Generator series stimulator or triggering function, please refer to the individual product page
- STG4004 4 Channel Stimulus Generator
- STG4008 8 Channel Stimulus Generator
Typical Applications
- In vitro and in vivo neurophysiology
- Short-term and long-term stimulation
- Long time stimulation
- Feedback stimulation
- White noise stimulation
- Biological signals as stimulation patterns
- Flexible LTP induction patterns
- Studies of synaptic plasticity
- Evoked isometric and isotonic contractions
- Study the influence of artificial pacemakers
- Pace cardiac cell cultures
- Pace tissue preparations such as cardiac slices, purkinje fibers or papillary muscle
- Mimic cardiac environment during stem cell differentiation
30 March 2009






