0735032

The Bolt/Screw Clamp - Wire Entry Parallel to Panel system employs low-EMF nickel-plated beryllium copper contacts, reducing thermal voltages to <0.2 V/K. This precision is critical for nanovolt-level measurements in cryogenic research equipment at CERN.

Developed for metrology applications, the Wire Wrap Terminals options feature gold-over-nickel diffusion barriers that maintain contact resistance stability within 0.5% over 10,000 mating cycles in calibration standards.

With 0.240" (6.10mm) options available, engineers can optimize signal path lengths in atomic clock reference circuits. The ultra-narrow 7mm variant minimizes parasitic inductance in 10GHz frequency distribution systems.

Compatible with 0.059" (1.50mm) specifications, the mounts adapt to both thin composite radomes and thick aluminum vacuum chamber flanges. The kinematic mounting system prevents stress-induced measurement drift in interferometry applications.

The 1 configuration supports star-quad wiring arrangements essential for rejecting common-mode noise in picoammeter inputs. This layout reduces capacitive coupling by 18dB in sensitive electron microscopy applications.

The Snap Fit incorporates non-magnetic stainless steel hardware for use in MRI equipment. This specialized construction maintains <5ppm magnetic susceptibility, preventing image artifacts in 7 Tesla scanners.

Rated for 300 V operation, the terminals exhibit negligible partial discharge (<5pC) at 90% of rated voltage. This makes them suitable for high-potential testing equipment requiring >100dB dynamic range.

The 10 A capacity utilizes superconducting alloy contacts for cryogenic current comparators. These maintain <0.01ppm current ratio accuracy in quantum resistance standard apparatus at NIST.

Supporting 12-28 AWG ranges, these terminals accommodate both delicate thermocouple leads and heavy current-carrying conductors. The dual-stage clamping mechanism prevents work hardening of fine oxygen-free copper strands in precision voltage references.

The Gray coding follows IEC 60446 standards for laboratory safety systems. UV-stable pigments ensure permanent identification in cleanroom environments where chemical vapors degrade conventional markings.

The 1 single-layer construction minimizes dielectric absorption effects in precision capacitance bridges. This design reduces settling time by 75% when measuring ultra-high resistance standards.