Skip to content

Switched Filter Banks

Four and Five Channel

Switched Filter Banks typically include multiple filter topologies, including PIN diode and MMIC switch sub-circuits to achieve operational bandwidths of greater than 3 octaves. Pin Diode Based Switched Filter Banks provide the highest level of signal isolation, higher operating power levels, and lower insertion loss and achieve switching speeds of < 40 nanoseconds. GaAs MMIC Based Switched Filter Banks provide switching times as low as 10 nanoseconds with very low power consumption and have the inherent advantage of supporting multi-octave frequency bands with extremely low power consumption.  

Related Products

  • Image of Semi-Formable Cable Assemblies

    Semi-Formable Cable Assemblies

    The Low-Loss line of Semi-Rigid cables are perfect when the low-loss of a premium flexible cable is desired but it makes more sense for a Semi-Rigid assembly in your application.

  • Image of Semi-Rigid Cable Assemblies

    Semi-Rigid Cable Assemblies

    The Semi-Rigid cables are available with a copper or aluminum jacket and available with a selection of different platings and 4 different diameters.

  • Image of Airborne Instrumentation Antennas

    Airborne Instrumentation Antennas

    Instrumentation antennas are specifically designed for data collection in extreme mission critical operational environments on small and medium size platforms.

Related News

  • Image of LightConex

    New blind mate active optical interconnect product line compatible with VITA and SOSA standards.

    Expanding on the successful LightCONEX style A compatible with VITA 66.4 aperture, Reflex Photonics is launching its style B and style C, both compatible with VITA 67.3 type C, D and E standard apertures. These VITA 67.3 apertures can be populated with modules that are either single active, dual active/passive, or a combination of optical and RF coaxial connectors. This flexibility will be particularly attractive to integrators that need to combine multiple I/O interfaces while keeping size, weight, and power (SWaP) at the minimum.

  • Image of Space Flare

    Optical Interconnect Design Challenges in Space

    Aeronautical applications face many design challenges that are unique to their intended environment. The best practices for optical interconnect design for space applications include the use of radiation-resistant technology to defend against space radiation, the use of components and devices that are designed to operate in harsh environments, and meeting size, weight, and power (SWaP) and long-term reliability requirements. Finally, it is recommended to follow open standards like VPX and to look for solutions that comply with MIL and quality standards.

  • Image of 3U and 6U OpenVPX carrier cards for XMC , PMC and AcroPack I/O mezzanine modules (courtesy Acromag)

    VPX Technology Development Trends

    Security is a critical challenge for a wide range of embedded systems applications. System integrators must optimize operational capability, maximize competition for systems development, ensure interoperability, and maintain commonality to reduce life-cycle cost.

  • Image of BGA electrical interface

    Understanding the Test Criteria of Optical Fiber Transceivers Used in Space

    In space, high performance components must be able to deliver reliably in the punishing environment. It is optical transceivers that drive transmissions, converting signals to and from a copper-resident format. Fiber optics communications provide high bandwidth and low latency signaling. Signal transmissions through fiber optic cables (FOCs) provide immunity to EM/RFI interference, crosstalk, and voltage level surges. Fiber optics’ accuracy and reliability exceeds traditional cabling. Covering 1,000 feet requires four pounds of FOC versus 39 pounds of copper wiring, and fiber optics also consume less energy than copper. To convert electrical signals from circuitries with copper output to fiber optics, optical fiber transceivers are usually required.