Docket #: S15-095
Multi-Frequency Klystron Designed for High Efficiency
Stanford researchers at SLAC have designed a multi-frequency klystron that achieves efficiencies higher than conventional single frequency klystrons and simultaneously delivers substantial power at higher harmonic(s). This invention will enable compact, high power, low weight multi-frequency microwave amplifiers with broad applications in scientific, commercial, and military industries.
Simulations have been completed showing overall efficiencies for an example tube with micropervience 2.0 in excess of 80% with about one third of the power being delivered to the second harmonic.
Figure
Stage of Research:
Simulations completed showing overall efficiencies for an example tube with micropervience 2.0 in excess of 80% with about one third of the power being delivered to the second harmonic.
Applications
- Medical accelerators
- Scientific research
- Military/Radar
Advantages
- Higher efficiencies while also generating substantial usable power at higher harmonic frequencies
- Enables compact, high power, low weight multi-frequency microwave amplifiers
- Broad applications
Publications
- U.S. Published Patent Application 20160372296, "Multi-Frequency Klystron Designed for High Efficiency".
Related Links
Patents
- Published Application: 20160372296
- Issued: 9,697,978 (USA)
Similar Technologies
-
A novel integrated quality assurance phantom for radiographic and non-radiographic radiotherapy localization and positioning systems S17-451A novel integrated quality assurance phantom for radiographic and non-radiographic radiotherapy localization and positioning systems
-
Simple technique to retrieve phase and magnitude of weak ultrashort laser pulses using a stronger unknown pulse S05-062Simple technique to retrieve phase and magnitude of weak ultrashort laser pulses using a stronger unknown pulse
-
Wavefront manipulation by electrically and fluidically tuned polymer metasurfaces S22-224Wavefront manipulation by electrically and fluidically tuned polymer metasurfaces