Abstract: In an embodiment an X-ray source includes an electron source configured to emit electrons, an acceleration set-up configured to accelerate the emitted electrons and a transmission window downwards of the acceleration set-up, wherein the transmission window is configured to let through X-rays generated by the accelerated electrons, wherein the transmission window is located either in a straight extension of a line-of-flight of the accelerated electrons or off the line-of-flight and past the acceleration set-up, wherein the transmission window comprises a carbon carrier, and wherein the carbon carrier comprises sp2-hybridized carbon.

Abstract: In at least one embodiment an X-ray source includes an electron source configured to emit electrons, an acceleration set-up configured to accelerate the emitted electrons and a transmission window downwards of the acceleration set-up, the transmission window configured to let through X-rays generated by the accelerated electrons, wherein the transmission window incudes a carbon carrier, and wherein the carbon carrier includes sp2-hybridized carbon.

Abstract: An X-ray radiation passage window can be used for a radiation detector. The X-ray radiation passage window for a radiation detector includes a radiation-transmissive window element. The radiation-transmissive window element contains graphene. Furthermore, a radiation detector including an X-ray radiation passage window, a method for producing an X-ray radiation passage window and a use of graphene are disclosed.

Abstract: A sensor head for an X-ray detector is specified. The sensor head includes a first conductor carrier having a frontal face, and a sensor element sensitive to X-ray radiation. The sensor element is arranged on the frontal face of the first conductor carrier, is electrically conductively connected to conductors of the first conductor carrier and has a detection area. Furthermore, the sensor head includes contact elements electrically conductively connected to the sensor element via the first conductor carrier and bonding wires that electrically conductively connect the first conductor carrier to the contact elements. The sensor element is electrically conductively connected to the contact elements. In a plan view of the detection area, the detection area at least partly covers the bonding wires.

Abstract: X-Ray Radiation Passage Window for a Radiation Detector An X-ray radiation passage window can be used for a radiation detector. The X-ray radiation passage window for a radiation detector includes a radiation-transmissive window element. The radiation-transmissive window element contains graphene. Furthermore, a radiation detector including an X-ray radiation passage window, a method for producing an X-ray radiation passage window and a use of graphene are disclosed.

Abstract: A sensor head for an X-ray detector is specified. The sensor head includes a first conductor carrier having a frontal face, and a sensor element sensitive to X-ray radiation. The sensor element is arranged on the frontal face of the first conductor carrier, is electrically conductively connected to conductors of the first conductor carrier and has a detection area. Furthermore, the sensor head includes contact elements electrically conductively connected to the sensor element via the first conductor carrier and bonding wires that electrically conductively connect the first conductor carrier to the contact elements. The sensor element is electrically conductively connected to the contact elements. In a plan view of the detection area, the detection area at least partly covers the bonding wires.