>70 GHz blocking
Comprehensive blocking of high-frequency noise across the entire infrared spectrum with >60 dB attenuation.
Home of HERD
Drain high-energy radiation while preserving signal integrity. <0.15 dB in-band loss, >60 dB attenuation above 70 GHz.
Ultra-low passband loss that preserves qubit control and readout fidelity.
Comprehensive blocking of high-frequency noise across the entire infrared spectrum with >60 dB attenuation.
<0.15 dB insertion loss - the lowest available on the market. Preserves signal integrity for longer qubit coherence times.
Designed and tested for operation at millikelvin temperatures typical of dilution refrigerator environments.
Purpose-built for superconducting quantum circuits with materials and geometries optimized for quantum applications.
Room-temperature measurements up to 140 GHz
Loading chart...
Peer-reviewed publications from 2025 demonstrate real-world quantum system applications
Gap-engineered transmons show reduced sensitivity to quasiparticle bursts. Elevated substrate temperature allows quasiparticles to overcome the engineered gap. Relaxation recovers rapidly, but thermal effects highlight constraints of gap engineering alone.
Demonstrates tantalum transmons on high-resistivity silicon reaching 2D qubit lifetimes up to ~1.7 ms and high echo coherence. Supports 99.994% single-qubit gate fidelity, representing a major step toward practical, wafer-scalable quantum processors.
Presents an rf-SQUID-based Josephson TWPA achieving −84 dBm average saturation power and ~20 dB gain over 3.5–8.5 GHz. This architecture provides near-quantum-limited noise performance through the use of thousands of coupled rf-SQUID cells.
Lineup
See our HERD family

2nd generation
Compact, non-magnetic filter for advanced cryogenic systems. Our latest and most advanced IR-blocking filter with industry-leading performance.