Stanford Research Systems SR844 Lock-In Amplifier
Stanford Research Systems SR844 Lock-In Amplifier
Product Description
The Stanford Research Systems SR844 Lock-In Amplifier is a high-performance instrument designed for precision detection of small AC signals buried in noise, even at high operating frequencies. It is widely used in physics research, optics, nanotechnology, and advanced electronics laboratories where signal accuracy and stability are critical.
The SR844 offers exceptional dynamic reserve, low noise performance, and flexible measurement configurations, making it ideal for demanding experimental setups. Its digital signal processing architecture allows accurate phase-sensitive detection, enabling researchers to extract weak signals with confidence.
Built with Stanford Research Systems’ renowned engineering quality, the SR844 delivers reliable and repeatable measurements for long-term laboratory and R&D applications.
Key Features
High-frequency lock-in amplifier for precision measurements
Excellent noise rejection and signal stability
Digital signal processing for phase-sensitive detection
Wide dynamic reserve for weak signal extraction
Ideal for physics and optics research
Suitable for nanotechnology and material science experiments
Accurate amplitude and phase measurement
Bench-top laboratory instrument design
Reliable long-term measurement performance
Trusted Stanford Research Systems quality
Specifications Table
| Specification | Details |
|---|---|
| Model | Stanford Research Systems SR844 |
| Instrument Type | Lock-In Amplifier |
| Frequency Range | High-frequency operation |
| Measurement Functions | Amplitude and Phase Detection |
| Signal Processing | Digital |
| Applications | Physics, Optics, Research Labs |
| Noise Performance | Low-noise, high stability |
| Form Factor | Bench-top |
| Use Environment | Laboratory and R&D |
| Manufacturer | Stanford Research Systems |
The Stanford Research Systems SR844 lock-in amplifier provides high-frequency, low-noise signal detection for advanced laboratory research. Designed for precision measurements, it enables accurate extraction of weak signals in physics, optics, and nanotechnology applications.
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