Files
TRIDENT/README.md
2026-01-30 20:07:55 +01:00

2.3 KiB

Header Image

TRIDENT

Open Source, High Precision Spring-Loaded UHF Probe

The TRIDENT probe is a compact, high-frequency diagnostic instrument engineered for precise PCB measurements. Its mechanically robust copper chassis is directly grounded to the board, providing a low-impedance return path that sustains signal fidelity well into the multi-gigahertz spectrum. The probe's trineedle architecture ensures a stable reference plane and consistent coupling to the stripline under test.

Features:

  • Compact form factor: A 44mm tall copper chassis, optimized for space-constrained test environments and fabricated from reclaimed copper sourced from electronic waste.
  • Grounded copper enclosure: Chassis is soldered directly to the PCB, creating a low-impedance return path that preserves signal integrity into the multi-gigahertz range.
  • Trineedle architecture: Two outer, spring-loaded ground contacts engage the board's ground pours, establishing a stable reference plane. The central needle mates precisely with the stripline under test, delivering consistent signal coupling.
  • High-precision PCB fabrication: Utilizes the finest tolerances and material selections currently available to minimize parasitic inductance and maximize high-frequency performance.
  • Compatibility with standard peripherals: Requires no proprietary components, enabling seamless integration with existing test equipment.
  • Rapid prototyping workflow Engineers can quickly prototype, validate, and iterate high-speed designs while benefiting from the transparency and extensibility of an open-source hardware platform.
  • Open-hardware licensing: Entire hardware design is released under the CERN Open Hardware Licence (CERN-OHL-S), permitting unrestricted modification, redistribution, and collaborative improvement.

Funding

This project received funding through NGI0 Entrust, a fund established by NLnet with financial support from the European Commission's Next Generation Internet program. Learn more at the NLnet project page.