X-Ray/Infra-Red Processes TRIZ Cases
- Polycrystalline Scintillator for Soft X-Ray Detection
Garnet scintillator with specific atomic ratios converts soft X-rays into light signals, resolving low absorption and high afterglow issues.
- Scintillator Panel Thermal Expansion Compensation Layer
A scintillator panel uses a thermal expansion compensation layer between the flexible substrate and phosphor to maintain structural integrity.
- Perovskite Detection Layer for X-Ray Imaging
Sintered perovskite crystals in thick layers resolve conductivity limits, enabling fast medical imaging.
- Scintillator Panel Phosphor Packing Density
A scintillator panel uses a specialized binder resin to densely pack phosphors for efficient light emission.
- Scintillator Module Non-Adhesive Moisture Barrier
A scintillator module employs a non-adhesive resin sheet to prevent optical loss and maintain crystal sharpness during vacuum sealing.
- Automatic C-Arm Positioning for Structural Heart Treatment
Automated X-ray device positioning aligns with anatomical vectors to reduce radiation exposure and parallax during structural heart interventions.
- Radiological Image Conversion Panel Porosity Gradient
Segmented non-columnar phosphor layers optimize porosity gradients to resolve the trade-off between support adhesion and light reflection efficiency.
- Layered Ceramic Scintillator for Spectral CT Detection
A ceramic scintillator with stacked layers of distinct compositions enables energy-dependent light generation for spectral detection.
- X-ray Tube Tilting Mechanism for Focal Spot Control
A tilting mechanism adjusts the effective focal spot size on an X-ray tube anode to manage radiation output.
- Ternary Metal Halide Scintillators for Radiation Detection
Ternary metal halide scintillators convert gamma rays into visible light using europium dopants to enhance detection sensitivity.