
DIT-5200L
Economical non-contact differential impedance transducer with sub-nanometer resolution
- True differential for common-mode rejection at an economical price
- High-precision eddy current balanced-bridge technology
- Sub-nanometer resolution with high sensitivity (up to 10 V/mil)
- Outstanding linearity — up to 0.1% of full range
- Enhancements over the DIT-5200: lower noise (better resolution) and CE Marking
- Commercially based, fully analog; built to IPC A-160 Class 3 standards
- COTS up-screening available depending on program requirements
- Small package: 7.7 cubic inches, die-cast aluminum with MCX sensor connections
- I/O on a 9-pin mini-D connector; reverse-voltage-protected power
- Available in single- and dual-channel configurations
Specifications
| Resolution | Sub-nanometer |
|---|---|
| Sensitivity | Up to 10 V/mil |
| Linearity | Up to 0.1% of full range |
| Thermal stability | ±0.03% FS/°C; ±0.005% FS/°C at null |
| Output | Differential, bipolar |
| Package size | 7.7 cubic inches (die-cast aluminum, MCX sensor connections) |
| I/O | 9-pin mini-D connector; reverse-voltage-protected power |
| Standards | IPC A-160 Class 3; CE Marked; COTS up-screening available |
| Configurations | Single- and dual-channel |
Sensors
Downloads
Certifications
CE Marked. Built to IPC A-160 Class 3 standards, with COTS up-screening available depending on program requirements.
Options
Accessories
Matched sensor pairs and cables are available. Contact an applications engineer for configuration.
Frequently Asked Questions
What did the DIT-5200L improve over the DIT-5200?
It is identical in form but adds lower noise (better resolution) and CE Marking.
What resolution and stability can I expect?
Sub-nanometer resolution with thermal stability of ±0.03% FS/°C (±0.005% FS/°C at null) and linearity to 0.1% of full range.
What are typical applications?
Servo control feedback, stage positioning, angular displacement indication, X-Y orbit position feedback, and stylus position — in precision optics, fast-steering mirrors, laser communications, and directed energy.



