A circulating liquid dielectric lets a compact ferrite RF cavity tune frequency quickly while removing heat for stable accelerator operation.
An electrode-integrated beam position monitor tracks charged particle beams across different orbit radii without stopping acceleration.
RF acceleration electrodes double as beam position monitors, enabling non-destructive detection across varying beam orbits.
A synchrocyclotron matching circuit uses a bias winding to electrically adjust coil inductance for rapid impedance matching.
Dynamic bias field control adjusts betatron pulse energy and frequency, resolving adaptability versus device complexity.
A covalently bonded proton accelerator directs ion beams to write patterns directly onto semiconductor wafers.
Curved recesses in semi-cylindrical lead shielding parts form diagonal air channels for betatron heat dissipation.
Segmented contraction and expansion coils adjust magnetic fields to focus electrons, improving acceleration efficiency in X-ray inspection systems.
A single drive betatron merges core and guide magnet coils to eliminate air gaps, boosting radiation output in compact oil well logging tools.
A dual-frequency resonant cavity produces two distinct RF frequencies via a segmented pillar, eliminating mechanical wear from sliding short-circuits.
Surface treatment of the first conductive layer inside openings prevents foreign substance adhesion and emission failures during deposition.
A rotating superconducting coil uses a local cryogen chamber and recondensing unit for efficient thermal management.
Variable expansion pulse timing adjusts electron final energy, enabling rapid multi-energy X-ray measurements for improved substance detection.
Bonded glass segments form a compact betatron vacuum chamber, resolving mass production challenges from traditional skilled artisan techniques.
An electron injector driven by an inductive coil positioned inside the betatron orbit accelerates electrons efficiently within a compact vacuum chamber.