RF and microwave terminals carry high-frequency signals through a hermetic wall without destroying return loss. Geometry and dielectric influence the transition from internal MMIC to external connector.
Pair with die-level thermal — laser submount catalog, datacom submounts, or order SiC/ALN samples.
Share your target frequency band and connector type. Terminal pitch and glass-seal construction set the parasitics — we align the drawing to your EM model or measured coupon data.
9 outlines in catalog
RF or microwave feedthrough terminal — Flow Terminal Type 1.
Typical use: High-frequency modules needing controlled-impedance pins through a hermetic wall.
Why this line: Terminal geometry sets the transition from internal MMIC to external coax or waveguide — match your stack-up model.
RF or microwave feedthrough terminal — Flow Terminal Type 2.
Typical use: High-frequency modules needing controlled-impedance pins through a hermetic wall.
Why this line: Terminal geometry sets the transition from internal MMIC to external coax or waveguide — match your stack-up model.
RF or microwave feedthrough terminal — Flow Terminal Type 3.
Typical use: High-frequency modules needing controlled-impedance pins through a hermetic wall.
Why this line: Terminal geometry sets the transition from internal MMIC to external coax or waveguide — match your stack-up model.
RF or microwave feedthrough terminal — Flow Terminal Type 4.
Typical use: High-frequency modules needing controlled-impedance pins through a hermetic wall.
Why this line: Terminal geometry sets the transition from internal MMIC to external coax or waveguide — match your stack-up model.
RF or microwave feedthrough terminal — Flow Terminal Type 5.
Typical use: High-frequency modules needing controlled-impedance pins through a hermetic wall.
Why this line: Terminal geometry sets the transition from internal MMIC to external coax or waveguide — match your stack-up model.
RF or microwave feedthrough terminal — Flow Terminal Type 6.
Typical use: High-frequency modules needing controlled-impedance pins through a hermetic wall.
Why this line: Terminal geometry sets the transition from internal MMIC to external coax or waveguide — match your stack-up model.
RF or microwave feedthrough terminal — 3.2×1.5-2-Pin.
Typical use: High-frequency modules needing controlled-impedance pins through a hermetic wall.
Why this line: Terminal geometry sets the transition from internal MMIC to external coax or waveguide — match your stack-up model.
RF or microwave feedthrough terminal — 5.5×1.5-4-Pin.
Typical use: High-frequency modules needing controlled-impedance pins through a hermetic wall.
Why this line: Terminal geometry sets the transition from internal MMIC to external coax or waveguide — match your stack-up model.
RF or microwave feedthrough terminal — φ1.93-1-Pin.
Typical use: High-frequency modules needing controlled-impedance pins through a hermetic wall.
Why this line: Terminal geometry sets the transition from internal MMIC to external coax or waveguide — match your stack-up model.
RF & microwave terminals
Get quoteWe use cookies to understand how visitors use our site (Google Analytics) and to improve your experience. Privacy Policy