Material Analysis By Transmitting Radiation TRIZ Cases

A radiographic inspection system captures 360-degree wall loss information using a single image from a rotating radiation source and detector array.

Detect crystalline materials via Bragg scattering energy bands.

Segmented narrow-band photon spectra reduce background noise and false positives during non-intrusive container scanning.

Movable X-ray source and detector switch between sample and standard positions, enabling continuous belt inspection without interruption.

Fuses independent detection data via Bayesian likelihood functions to resolve throughput and accuracy trade-offs in security screening.

Lau condition dark-field x-ray inspection resolves throughput and sensitivity trade-offs for semiconductor packaging.

A compact gamma-ray flow meter uses a conical source housing recessed into the pipe wall to minimize material attenuation.

A radiation detector incorporates an elastic layer with high restoring force to suppress substrate bending during manufacturing separation.

Determining preferred X-ray absorption directions via gradient profiles resolves low contrast issues to identify layer structure.

Electromagnetic fringe scanning replaces mechanical phase stepping to eliminate grating instability and reduce acquisition time.

Allocating X-ray pixels to a 3D tire model recovers lost depth information, enabling accurate distance measurements outside the calibration plane.

Introducing a foam-particulate mixture into dense turbine components resolves low visibility issues by providing sufficient x-ray attenuation differences.