IP Library Granted Patent US 12,699,193
Granted Patent B2
US 12,699,193 · App. 18/607,733 · Granted Aug 4, 2026

Detector module for an X-ray detector having a heating layer

Inventors: Michael Hosemann (Erlangen, DE); Andrea Zang (Erlangen, DE)
Assignee: SIEMENS HEALTHINEERS AG
G01T1/244G01T1/175G01T1/242G01T1/247
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Quick Facts
Patent No.
US 12,699,193
App. No.
18/607,733
Granted
Aug 4, 2026
Kind
B2
Abstract

One or more example embodiments of the present invention relates to a detector module for an X-ray detector comprising a sensor layer in a stacked construction configured to convert incident X-ray radiation into electrical signals; a readout layer configured to read out the electrical signals from the sensor layer; and a heating layer, the heating layer including a plurality of heating elements spatially distributed in the heating layer and configured separately from one another for heating the sensor layer, and wherein the readout layer has for each heating element an associated activatable adapting unit via which each heating element is contacted for feeding in power and which is configured to adapt the power fed to each heating element.

Claims (19)

1 . A detector module for an X-ray detector comprising, in a stacked construction:

a sensor layer configured to convert incident X-ray radiation into electrical signals;

a readout layer configured to read out the electrical signals from the sensor layer; and

a heating layer, the heating layer including a plurality of heating elements spatially distributed in the heating layer and configured separately from one another for heating the sensor layer, the heating layer being subdivided into a plurality of partial heating regions, each partial heating region having at least one heating element being a heating resistor,

wherein the readout layer has for each heating element an associated activatable adapting unit via which the respective heating element is contacted for feeding in power and which is configured to adapt the power fed to the respective heating element, the associated activatable adapting unit being an associated connecting unit configured to connect the respective heating element in a manner able to be switched at least either to a first power supply unit or to a second power supply unit,

a first feed line from the at least one first power supply unit and one second feed line from the at least one second power supply unit is included by the heating layer, and

for each partial heating region of the heating layer, contacts are provided on the first feed line and the second feed line enabling a contacting of the first feed line and the second feed line to the associated connecting unit in the readout layer.

2 . The detector module of claim 1 , wherein, the heating layer includes at least a portion of the readout layer and includes a plurality of readout units, the plurality of readout units being integrated circuits, wherein circuit elements of the integrated circuits form at least a portion of the plurality of heating elements, and wherein by way of an adaptation of an operational setting of the readout units, the power fed to each heating element can be adapted.

3 . The detector module of claim 2 , wherein the sensor layer comprises a direct-converting converter element.

4 . The detector module of claim 2 , wherein at least one temperature sensor is in the stacked construction and the detector module has at least one control unit configured to adapt the activatable adapting units on a basis of a measurement value from the temperature sensor.

5 . The detector module of claim 1 , wherein the readout layer has a number of readout units being integrated circuits and wherein the activatable adapting units are integrated into at least one readout unit of the number of readout units.

6 . The detector module of claim 1 , wherein the readout layer has a number of readout units being integrated circuits and wherein the activatable adapting units are a circuit separate from the readout units.

7 . The detector module of claim 1 , wherein the heating layer is on a surface of the readout layer or is embedded in an embedding material of the readout layer.

8 . The detector module of claim 1 , wherein the heating layer is on a surface of a carrier unit downstream in a stacked arrangement of the readout layer along a radiation incidence direction or is embedded in a material of the carrier unit.

9 . The detector module of claim 1 , wherein the sensor layer comprises a direct-converting converter element.

10 . The detector module of claim 1 , wherein at least one temperature sensor is in the stacked construction and the detector module has at least one control unit configured to adapt the activatable adapting units on a basis of a measurement value from the temperature sensor.

11 . An X-ray detector for recording images of an object transirradiated by X-ray radiation, comprising:

a plurality of detector modules arranged adjoining one another, each of the plurality of detector modules being the detector module of claim 1 .

12 . A medical imaging device comprising at least one of the detector module of claim 1 and an X-ray source placed opposite thereto, wherein the X-ray source is configured to irradiate the detector module with X-ray radiation.