Abstract: A method for producing a component for a medical imaging device is provided. A first substrate layer and a second substrate layer are stacked and connected to one another via a material bonding layer. The material bonding layer is hardened for this purpose. A hardening is provided in an at least two-stage hardening process that includes a first hardening act and a second hardening act. The first hardening act serves to pre-fix the first substrate layer and the second substrate layer to one another.

Abstract: A method for positioning sensor units in a detector module for a CT device includes arranging a connecting layer on a positioning substrate. Sensor units and readout units, forming sensor readout arrangements, are positioned relative to the positioning substrate. The sensor units are temporarily connected to the positioning substrate at a fixed position by the connecting layer. Electronics boards are positioned, and conductive connections are produced between the electronics boards and contacts of the readout units, such that sensor boards are obtained. The sensor units are then positioned by the positioning substrate relative to a module carrier and are attached to the module carrier, such that a detector module is obtained.

Abstract: An x-ray detector includes a sensor slice for directly converting x-ray radiation and a downstream read-out chip. Further, in at least one embodiment, a first amplifier stage is interconnected between the sensor slice and read-out chip.

Abstract: An x-ray detector includes a sensor slice for directly converting x-ray radiation and a downstream read-out chip. Further, in at least one embodiment, a first amplifier stage is interconnected between the sensor slice and read-out chip.

Abstract: An X-ray detector, including a stacking arrangement, includes an evaluation unit and a carrier unit. The evaluation unit and the carrier unit are electrically conductively connected via a plurality of connecting elements. An interspace is formed between the evaluation unit, the carrier unit and the plurality of connecting elements. A protective element is formed on side faces of the carrier unit, arranged essentially parallel to a stacking direction of the stacking arrangement. The protective element is formed in at least one section of the side faces along the entire outer circumference and along the edges of the side faces, facing the evaluation unit.

Abstract: A radiation detector includes an intermediate layer, which is arranged between a detection layer with a number of detection elements and a number of readout units. In an example embodiment of this arrangement, the intermediate layer has a plurality of electrically-conductive connections between the detection elements and the readout units. An example embodiment further specifies a medical imaging system, as well as a method of using the heating apparatus.

Abstract: An inventive assembly method is for the production of an x-ray detector. In an embodiment, the method includes positioning a plurality of sensor surface elements, formed from an x-ray radiation-sensitive material, on an assembly carrier; placing an interposer on a contact side of each of the plurality of sensor surface elements, divided into a plurality of pixels and arranged opposite the assembly carrier, such that respective contact elements arranged on a mating contact side of the interposer, facing towards respective ones of the plurality of sensor surface elements, each contact a pixel; and respectively putting evaluation circuits on a circuit side of the interposer, opposite to the mating contact side of the interposer, for each of the plurality of sensor surface elements.

Abstract: A detector device includes a cooling air pathway for cooling an X-ray detector. The detector device furthermore includes a detector interior space surrounding the X-ray detector. The cooling air pathway runs through at least one subregion of the detector interior space. The detector device includes a pressure limitation unit with a limitation device arranged along the cooling air pathway. The limitation device is designed, based on an incoming cooling air flow, to route a limited volume flow along the cooling air pathway at the X-ray detector.

Abstract: A counting x-ray detector includes a converter element, a rewiring unit and an evaluation unit including pixel electrodes. In an embodiment, the converter element includes a first electrode on a surface facing away from the evaluation unit and a pixelated second electrode having a plurality of electrode elements on a surface facing toward the evaluation unit. The rewiring unit is on a surface of the converter element facing toward the evaluation unit. First contacts of electrically conductive connections between the electrode elements and the pixel electrodes are provided on a surface of the rewiring unit and include a first areal distribution; and second such contacts are provided on a surface of the rewiring unit, including a relatively smaller second areal distribution. An areal extent of the evaluation unit is relatively smaller than an areal extent of the converter element.

Abstract: A radiation detector includes an intermediate layer, which is arranged between a detection layer with a number of detection elements and a number of readout units. In an example embodiment of this arrangement, the intermediate layer has a plurality of electrically-conductive connections between the detection elements and the readout units. An example embodiment further specifies a medical imaging system, as well as a method of using the heating apparatus.

Abstract: A radiation detector includes an intermediate layer, which is arranged between a detection layer with a number of detection elements and a number of readout units. In an example embodiment of this arrangement, the intermediate layer has a plurality of electrically-conductive connections between the detection elements and the readout units. An example embodiment further specifies a medical imaging system, as well as a method of using the heating apparatus.

Abstract: An inventive assembly method is for the production of an x-ray detector. In an embodiment, the method includes positioning a plurality of sensor surface elements, formed from an x-ray radiation-sensitive material, on an assembly carrier; placing an interposer on a contact side of each of the plurality of sensor surface elements, divided into a plurality of pixels and arranged opposite the assembly carrier, such that respective contact elements arranged on a mating contact side of the interposer, facing towards respective ones of the plurality of sensor surface elements, each contact a pixel; and respectively putting evaluation circuits on a circuit side of the interposer, opposite to the mating contact side of the interposer, for each of the plurality of sensor surface elements.

Abstract: An X-ray detector, including a stacking arrangement, includes an evaluation unit and a carrier unit. The evaluation unit and the carrier unit are electrically conductively connected via a plurality of connecting elements. An interspace is formed between the evaluation unit, the carrier unit and the plurality of connecting elements. A protective element is formed on side faces of the carrier unit, arranged essentially parallel to a stacking direction of the stacking arrangement. The protective element is formed in at least one section of the side faces along the entire outer circumference and along the edges of the side faces, facing the evaluation unit.

Abstract: A detector module for an x-ray detector is disclosed. In an embodiment, the detector module includes a plurality of sensor boards arranged adjacent to one another on a module carrier. Each sensor board is arranged in a stack formation and includes a sensor layer with a sensor surface, to which a bias voltage can be applied in order to detect x-ray radiation. A voltage supply line is arranged in the stack formation along a lateral surface of the stack formation of each sensor board in order to apply the bias voltage. Moreover, an x-ray detector is disclosed for recording an image of an object irradiated by x-ray radiation, the x-ray detector including a plurality a number of detector modules arranged adjacent to one another.

Abstract: An X-ray detector includes at least one converter element, an intermediate unit and a plurality of evaluation units assigned to the at least one converter element. In an embodiment, the plurality of evaluation units are arranged in an evaluation level. Further, the at least one converter element, the intermediate unit and the evaluation level are arranged in a stack arrangement. The at least one converter element and the plurality of evaluation units are connected in an electrically-conducting manner via electrically-conducting connections.

Abstract: A detector device includes a cooling air pathway for cooling an X-ray detector. The detector device furthermore includes a detector interior space surrounding the X-ray detector. The cooling air pathway runs through at least one subregion of the detector interior space. The detector device includes a pressure limitation unit with a limitation device arranged along the cooling air pathway. The limitation device is designed, based on an incoming cooling air flow, to route a limited volume flow along the cooling air pathway at the X-ray detector.

Abstract: A sensor board for a detector module is disclosed. It includes, in a stack construction, at least one reader unit and a sensor layer arranged spaced from the reader unit in the direction of the stack. A gap formed by the spacing between the sensor layer and the reader unit is filled with a cured filling material such that at least one edge region of the sensor layer is free of the filling material. Furthermore, a method is disclosed for manufacturing a corresponding sensor board, and a detector module is disclosed for an X-ray detector having a number of sensor boards which are arranged to be mutually adjacent on a module carrier.

Abstract: A counting x-ray detector includes a converter element, a rewiring unit and an evaluation unit including pixel electrodes. In an embodiment, the converter element includes a first electrode on a surface facing away from the evaluation unit and a pixelated second electrode having a plurality of electrode elements on a surface facing toward the evaluation unit. The rewiring unit is on a surface of the converter element facing toward the evaluation unit. First contacts of electrically conductive connections between the electrode elements and the pixel electrodes are provided on a surface of the rewiring unit and include a first areal distribution; and second such contacts are provided on a surface of the rewiring unit, including a relatively smaller second areal distribution. An areal extent of the evaluation unit is relatively smaller than an areal extent of the converter element.

Abstract: An X-ray detector includes an anti-scatter grid, an electrode and a converter element for converting X-rays into electrical charges in a stacking arrangement. In an embodiment, the stacking arrangement is externally enclosed by a protective element. The protective element extends in the stacking direction such that an enclosed area is at least arranged between the anti-scatter grid and the converter element and along the entire height of the converter element in the stacking direction. An adhesive element is arranged between the anti-scatter grid and the electrode.

Abstract: An imaging device for electromagnetic radiation, especially for x-ray and/or gamma radiation, is disclosed. In an embodiment, the imaging device includes a layering including a number of detection elements, a number of read-out boards and a base board. Each of the detection elements is electrically contacted with a respective read-out board via a plurality of first solder contacts. Each read-out board includes a plurality of through-contacts and is electrically contacted with the base board via a plurality of second solder contacts.