Real-time charged particle beam measurement enables online control of neutron beam dose, resolving variations in dose rates during irradiation.
Electromagnetic deflection steers an electron beam across a rotating anode to generate sequential x-rays for array imaging.
A self-shielding table integrates scatter and source shields to absorb stray radiation.
Simultaneous dual source-detector rotation accelerates computed tomography data acquisition for medical imaging applications.
Coaxial ring diaphragm ion guides transport ions along magnetic field lines, reducing mass dispersion and improving capture efficiency in strong fields.
A feedback mechanism recouples EUV radiation into the laser source to reduce thermal load on optical components and shrink the radiation source size.
Segmented applicator means use interchangeable lens elements to adjust beam characteristics, resolving complexity issues in surface irradiation.
Segmenting high-power radiation across multiple sources via a beam combiner eliminates complex optical switchyards and prevents downtime from power deficits.
A two-dimensional antiscatter grid with tungsten septa reduces scatter-to-primary ratios and improves CT number accuracy in cone beam CT systems.
Automatic grid positioning removes the anti-diffusion grid when unnecessary, reducing patient radiation dose while maintaining image quality.
Multi-layer EUV mask integrates spectral filter top layer with patterned absorber to separate EUV and DUV radiation without folding the light path.
A spacing layer between the capping and absorber layers tunes reflected light phase.
Preliminary power supply and automatic frequency matching during warm-up stabilize radiation beam energy and dose output.
Moving the multi X-ray source fills gaps between discrete focuses, resolving resolution limits without sacrificing power efficiency.