A thin sensor substrate, thick perovskite photoconductor, and rear plate reduce thermal expansion stress and prevent detector cracks.
By removing the intermediate substrate and using TSV signal paths, this detector cuts package thickness, power use, and manufacturing complexity.
Raising the electric field to at least 20 V/μm helps Se-Te photodetectors offset mobility loss and improve UV-blue quantum efficiency.
A conductive gasket, front plate, and elastic jackets keep a bendable radiation detector grounded, waterproof, and stable in harsh use.
Single-layer COF, RDL, and bondwires route CT photodiode signals in a compact shielded layout that cuts cost and EMI.
Grouped pinholes in offset planes improve angular information while reducing collimator penetration and gamma image blurring.
Removing the upper photodiode layer beneath opaque lines lowers junction capacitance and kTC noise while helping prevent line disconnections.
Signal wiring built into charge generation chips links adjacent reading chips, enlarging pixel regions while reducing attachment defects and yield loss.
A narrowed oxide semiconductor TFT layout limits dry-etch damage, cutting leakage current and stabilizing threshold voltage under X-ray exposure.
Uniform opening areas and adjusted pixel centroids reduce moiré and image disturbance near drive lines in radiation imaging sensors.
Organic metal halide hybrids enable lightweight direct X-ray detectors with high absorption, fast charge transport, and low-temperature fabrication.