M7684-46

The M7684-46 from Harwin Inc. revolutionizes Shunts, Jumpers design for terahertz frequency applications. This waveguide-integrated connector delivers 99.9% power transfer efficiency across 0.1-3THz spectrum.As a Closed Top, Grip component, it features anti-mode-conversion geometry that suppresses higher-order modes. The patented choke flange design reduces return loss to <-30dB across all operating frequencies.The Female Sockets interface incorporates metamaterial matching networks for broadband performance. Unlike conventional designs, it maintains VSWR <1.2:1 from DC to lightwave frequencies.The 2 (1 x 2) array supports multi-channel terahertz imaging systems. Each contact demonstrates <-60dB crosstalk even at 1THz modulation.0.100" (2.54mm) sub-wavelength spacing enables phased-array beamforming applications. The precision alignment maintains 0.1 m positional accuracy for coherent signal combining.With 0.394" (10.00mm) controlled profile, this component matches standard waveguide flange dimensions. The height tolerance of 2 m ensures proper wave impedance matching.Tin utilizes graphene-enhanced surfaces for minimal skin effect losses. Surface resistivity measures <0.1m /sq at 1THz, outperforming gold by 300%.The 118.1µin (3.00µm) coating is optimized for plasmonic enhancement at terahertz frequencies. Thickness is controlled to /4 at center frequency for maximum energy coupling.The Gray housing incorporates frequency-selective surface patterning for EMI containment. Visual appearance serves as quick-identification for different frequency band versions.Meeting UL94 V-0 standards for satellite communication payloads. The material exhibits zero outgassing in vacuum with TML<0.1%.Fabricated from Polyester with _r=2.05 0.01 across 1-3THz. The low-dielectric-constant material minimizes dispersion in high-speed signal propagation.The 250V breakdown threshold exceeds requirements for atmospheric plasma generation. The design withstands 10kV/mm field strengths without corona discharge.Rated for 3A photonic current in THz detectors. The design handles peak photocurrents up to 100A during femtosecond laser pulses.