Abstract:
The present invention relates to a detector arrangement for an X-ray phase contrast system (5), the detector arrangement (1) comprising: a scintillator (11); an optical grating (12); and a detector (13); wherein the optical grating (12) is arranged between the scintillator (11) and the detector (13); wherein the scintillator (11) converts X-ray radiation (2) into optical radiation; wherein the optical grating (12) is configured to be an analyzer grating being adapted to a phase-grating (21) of an X-ray phase contrast system (5). The present invention further relates to a method for performing X-ray phase contrast imaging with a detector arrangement (1) mentioned above. The invention avoids the use of an X-ray absorption grating as G2 grating in an X-ray phase contrast interferometer system.
Abstract:
A method, a device and a security system for image data processing based on VR or AR are provided. In an embodiment, an image data processing method includes: reconstructing, based on three-dimensional (3D) scanned data of a containing apparatus in which objects are contained, a 3D image of the containing apparatus and the objects contained in the containing apparatus; stereoscopically displaying the reconstructed 3D image; determining manipulation information for at least one of the objects in the containing apparatus based on positioning information and action information of a user; re-reconstructing at least a 3D image of the at least one object based on the determined manipulation information; and presenting the at least one re-reconstructed object on the displayed 3D image.
Abstract:
The invention relates to a film made of metal or a metal alloy, in particular a film made of aluminum or an aluminum alloy, a so-called neutrino or ntrino film (registered trademarks), to a method of production and to a use of a film made of metal or a metal alloy.
Abstract:
When detecting scintillation events in a nuclear imaging system, time-stamping and energy-gating processing is incorporated into autonomous detection modules (ADM) (14) to reduce downstream processing. Each ADM (14) is removably coupled to a detector fixture (13), and comprises a scintillation crystal array (66) and associated light detect or (s) (64), such as a silicon photomultiplier or the like. The light detector(s) (64) is coupled to a processing module (62) in or on the ADM (14), which performs the energy gating and time-stamping.
Abstract:
A sensor unit 2A includes a metallic base member 20A, a solid-state imaging element 30, and amplifier chips 40. The base member 20A has a first placement surface 21 a and a second placement surface 21b. The solid-state imaging element 30 has a photodetecting surface 32, and is disposed on the first placement surface 21 a such that a rear surface 33 and the first placement surface 21a face each other. The amplifier chips 40 are mounted on a substrate 50 disposed on the second placement surface 21 b. The base member 20A further has side wall portions 25 facing side surfaces of the solid-state imaging element 30. The chips 40 and the solid-state imaging element 30 are electrically connected to one another via a bonding wire 92. The chips 40 are thermally coupled to the base member 20A via a thermal via 53 of the substrate 50.
Abstract:
The invention relates to a monitoring device (6) for monitoring the environment, in particular for monitoring the environment for radioactive radiation, comprising at least one receiver for receiving measured values of an environmental variable that potentially poses a health hazard and comprising a computing unit (10) for computing a hazard warning (4.1-4.4) dependent on the measured values. The receiver is designed to receive the measured values from a plurality of spatially distributed electronic terminals (2.1-2.4), in particular from mobile telephones with an image sensor for measuring the radioactive radiation. The invention further relates to a corresponding terminal (2.1-2.4) and to a complete monitoring system with a monitoring device and numerous terminals (2.1-2.4) for measuring the environmental variable.
Abstract:
An MCP unit of the present invention has a triode structure with a structure to achieve a desired time response characteristic independent of restrictions from a channel diameter of MCP, and is provided with an MCP group, a first electrode, a second electrode, an anode, and an acceleration electrode. Particularly, the MCP unit further comprises a ring member between the acceleration electrode and the anode, as s restriction structure for confining reflected electrons emitted from the anode in response to incidence of secondary electrons from the MCP group, within a space between the acceleration electrode and the anode.