Two-Direction Bendable Radiation Detector for Curved Pipe Imaging
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Solution Overview
Problem
Existing radiation detectors are unable to effectively capture high-quality images of pipes of various sizes and shapes while being easily insertable and deformable to fit the inner surface, and they lack a miniaturized design for close contact with objects.
Innovation Solution
A radiation detector with a detector panel and protection panels that are bendable in two directions, supported by a flexible support member, and a connector structure optimized for a thin film transistor, allowing for close contact and stable imaging.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Stability of the object's composition
If the radiation detector is made rigid to maintain structural stability, then imaging stability is improved, but the ability to conform to pipe surfaces and perform non-destructive inspection of various shapes is lost
Solution Approach 1:
The detector is divided into multiple segments or modules that can independently flex and bend. The detector panel is segmented into multiple detectable elements that can be independently activated, allowing the rigid detection function to coexist with flexible structural segments that conform to curved pipe surfaces.
Solution Approach 2:
The detector incorporates dynamic elements that allow it to transition between rigid and flexible states. The support member includes flexible joints and connection structures that enable the detector to adapt its shape to match the inspected object while maintaining functional stability during imaging.
2Measurement precision
If the radiation detector is miniaturized to achieve close contact with objects, then imaging quality is improved, but the structural strength and stability to maintain consistent imaging are compromised
Solution Approach 1:
The detector employs thin-film technologies for the detector panel and support structures. These thin films provide sufficient mechanical strength while maintaining flexibility and enabling miniaturization, allowing close contact with pipe surfaces without compromising structural integrity.
Solution Approach 2:
The detector uses composite material structures combining rigid and flexible materials in layered configurations. This allows the detector to maintain structural strength for stable imaging while being miniaturized to achieve close contact with inspected objects.
3Adaptability or versatility
If the detector panel is made flexible to conform to curved surfaces, then adaptability to various pipe shapes is improved, but the manufacturing precision and consistency of the detector structure deteriorates
Solution Approach 1:
The detector panel and support member are pre-formed with specific curvature radii and geometric configurations during manufacturing. This preliminary shaping ensures that when the detector is assembled and used, it maintains structural consistency and precision while being able to conform to curved pipe surfaces.
Data Source
AI summary
This radiation detector comprises: a detector panel; a front and a rear protection panel disposed on either side of the detector panel; and a support member supporting the detector panel and the front and rear protection panels. The detector panel and the front and rear protection panels are configured so as to be able to bend together in two directions.


