Abstract: This disclosure describes an apparatus and a system for inspection of deepwater assets, e.g., pipes and pipelines that traverse the ocean floor. In one embodiment, the apparatus includes a housing that retains a compensation fluid therein to form a fluidic environment. A digital detector resides in the fluidic environment. The digital detector can generate digital images in response to radiation that penetrate though the deepwater asset and impinges on components of the digital detector. In one embodiment, the digital detector utilizes one or more seal members to secure the components together. The seal members may be permeable and/or impermeable to the compensation fluid thereby preventing and/or permitting migration of the compensation fluid between certain components of the digital detector.

Abstract: A portable radiation detector is described having an elastomeric enclosure that provides some degree of mechanical shock resistance. In one embodiment, the enclosure encloses some or all of the electronic components of the detector and provides protection against drops and other mechanical shock for the enclosed components. One or more support or stiffening structures may also be provided to protect against impacts, to distribute static loads, and/or to impart a shape to the detector when handled.

Abstract: This disclosure describes an apparatus and a system for inspection of deepwater assets, e.g., pipes and pipelines that traverse the ocean floor. In one embodiment, the apparatus includes a housing that retains a compensation fluid therein to form a fluidic environment. A digital detector resides in the fluidic environment. The digital detector can generate digital images in response to radiation that penetrate though the deepwater asset and impinges on components of the digital detector. In one embodiment, the digital detector utilizes one or more seal members to secure the components together. The seal members may be permeable and/or impermeable to the compensation fluid thereby preventing and/or permitting migration of the compensation fluid between certain components of the digital detector.

Abstract: A portable radiation detector is described having an elastomeric enclosure that provides some degree of mechanical shock resistance. In one embodiment, the enclosure encloses some or all of the electronic components of the detector and provides protection against drops and other mechanical shock for the enclosed components. One or more support or stiffening structures may also be provided to protect against impacts, to distribute static loads, and/or to impart a shape to the detector when handled.

Abstract: A portable radiation detector is described having various shock isolation features. In one embodiment, shock isolation may be provided by providing a non-rigid mounting for a support layer within the portable detector to an enclosure of the portable detector. In other embodiments, an elastomeric strip is provided about all or part of an edge of the enclosure. In other embodiments, a removable elastomeric cover is provided for the portable detector.

Abstract: A scintillator pack including an x-ray damage shield. The scintillator pack has an array of scintillator pixels. A scintillation light reflecting layer that reflects scintillation light from the pixels is included at least between the scintillator pixels in inter-scintillator regions. An x-ray absorbing layer acts as the x-ray damage shield to protect the portions of the scintillation light reflecting layer from x-rays. The x-ray absorbing layer is formed selectively and in a self aligned manner in regions over the inter-scintillator regions.