Linear Accelerators TRIZ Cases

Active ferrite phase control maximizes isolation from backscattered microwaves, reducing cooling power and space in linear accelerator sources.

Chronological control of shared microwave power and beam loading lets multiple accelerating tubes produce different ray energies with less cost and space.

Two micro-machined waveguide halves form precise accelerating cells, cutting tuning, size, and cost for stable high-frequency particle acceleration.

Electrical phase stabilization compensates circulator temperature drift to cut cooling space and power while maintaining beam performance.

A switchable magnet inside the linac cavity deflects electrons during RF tuning to suppress startup beam intensity spikes and improve radiation protection.

Individually switchable waveguide cells tune RF power by section to narrow electron energy spread and control beam spot size in therapeutic radiation.

A split waveguide linear accelerator uses micromachined metal halves to cut tuning and assembly effort while enabling compact portable X-ray generation.

Selective switching of series capacitors changes high-voltage pulse levels without resistive dissipation, avoiding thermal loss and enabling fast control.

Electromagnetic beam steering and rapid imaging deliver multi-angle radiation in seconds, freezing physiologic motion for more precise dosing.

Additive manufacturing forms cavity resonators and supports together, reducing manual adjustments, material costs, and manufacturing errors.

Multipole magnets replace electric beam convergence, widening the bore for high-intensity ion beams without exceeding discharge limits.

This case uses X-band acceleration and compact component layout to deliver high-energy X-rays with a focal size no greater than 0.5 mm.