Abstract: The invention relates to a peptide comprising an amino acid sequence selected from the group consisting of (i) SEQ ID NO: 1 to SEQ ID NO: 216, and (ii) a variant sequence thereof which maintains capacity to bind to MHC molecule(s) and/or induce T cells cross-reacting with said variant peptide, or a pharmaceutically acceptable salt thereof.

Abstract: The present disclosure provides a medical system (100) comprising at least one data processing unit (111, 121, 130), a mechanical ventilator (110), configured to be operated to cause a ventilation status at a to-be-ventilated subject, and a medical imaging device (120), configured as a mobile device. The at least one data processing unit (111, 121, 130) is configured to obtain, from the mechanical ventilator (110), ventilation status information associated with the ventilation status of the to-be-ventilated subject. Further, the at least one data processing unit (111, 121, 130) is further configured to trigger acquisition of a first image if the ventilation status meets a first image acquisition criterion. Furthermore, the at least data processing unit (111, 121, 130) is further configured to trigger acquisition of at least one subsequent, further image if the ventilation status meets a second image acquisition criterion.

Abstract: An actuator for exciting a component of a motor vehicle with vibrations. The actuator has a housing, an electrical coil and a magnet that is movable to a limited extent in the housing.

Abstract: There is provided a computer-implemented method of estimating lung volume from radiographic images. The method comprises: registering (102) a two dimensional radiographic image (12) of a patients chest to a three dimensional radiographic image (14) of the patients chest to estimate data describing projection geometry (16) of an imaging setup used to capture the two dimensional radiographic image; using the projection geometry to estimate (104) at least one radiographic magnification factor (18) relating to the imaging setup; and calculating (106) an estimated lung volume (20) using the two dimensional radiographic image and the at least one radiographic magnification factor.

Abstract: A computed tomography device includes a gantry with a supporting gantry part and a rotor. The rotor has a projection data acquisition system and an energy store configured to supply energy to the projection data acquisition system. The rotor is rotatably mounted relative to the supporting gantry part. The gantry has an energy transmission system configured for energy transmission from the supporting gantry part to the energy store of the rotor, wherein the rotor is configured to be at rest relative to the supporting gantry part during the energy transmission from the supporting gantry part to the energy store of the rotor.

Abstract: The invention relates to a system for establishing a data connection between a master unit (M) and at least one device unit (D), wherein the master unit (M) is coupled to a primary coupler unit (Dprim) and the at least one device unit (D) is coupled to a secondary coupler unit (Dsec), in each case for electrical power transmission and for data transmission. The primary coupler unit (Dprim) and the secondary coupler unit (Dsec) can be coupled for data transmission. A control signal can be received and the system has three operating states that can be activated in dependence on the received control signal. When the first operating state is activated, there is a data connection according to the IO-Link standard between the master unit (M) and the device unit (D).

Abstract: In an example embodiment, a system includes a first controller configured to generate a network key and transform the network key and a second controller configured to obtain the transformed network key and form a network with the first controller, each of the first controller and the second controller being configured to generate a same symmetric key using the network key and values from the other of the first controller and second controller.

Abstract: A system and method for establishing a data connection between a master unit and a device unit. The master unit is coupled to a primary coupler unit and the device unit is coupled to a secondary coupler unit, in each case for electrical power transmission and for data transmission. The primary coupler unit and the secondary coupler unit can be coupled for data transmission. In a first operating state, an IO-Link standard data connection is between the master unit and the device unit. In a second operating state, primary coupler identification data is allocated to the primary coupler unit, and a data connection according to the IO-Link standard is between the master unit and the primary coupler unit. In a third operating state, secondary coupler identification data is allocated to the secondary coupler unit and the IO-Link standard data connection is between the master unit and the secondary coupler unit.

Abstract: A system comprising a server configured to store a plurality of storage formats associated with one or more auto-identification technologies transponders; and a mobile device comprising: a plurality of application configured to handle auto-identification data, a communication interface, a reader circuit configured to implement at least one auto-identification protocol, a processor configured to implement operating system instructions, the operating system instructions configured to cause the processor to: receive context data, receive auto-identification data from the reader circuit, send at least some of the auto-identification data and the context data to the server via the communication link, receive one of the plurality of storage formats via the communication link that was selected based on the auto-identification data and the context data, and identify and launch one of the plurality of applications based on the received storage format.

Abstract: A system comprising a server configured to store a plurality of storage formats associated with one or more auto-identification technologies transponders; and a mobile device comprising: a plurality of application configured to handle auto-identification data, a communication interface, a reader circuit configured to implement at least one auto-identification protocol, a processor configured to implement operating system instructions, the operating system instructions configured to cause the processor to: receive context data, receive auto-identification data from the reader circuit, send at least some of the auto-identification data and the context data to the server via the communication link, receive one of the plurality of storage formats via the communication link that was selected based on the auto-identification data and the context data, and identify and launch one of the plurality of applications based on the received storage format.

Abstract: A pressure sensor in contact with an aggressive fluid for a pressure measurement has a board with a pressure passage. The pressure passage is closed on one side by a sensor chip as a pressure sensing element. The board also mounts an integrated circuit and electrical contacts for electrical contacting of the pressure sensor. At least the on board arranged pressure sensing element as well as the integrated circuit are tightly enclosed by a capper made of a fluid resistant material in connection with the board, and are arranged in an encasing cavity formed by the capper and the board for fluid resistant protection.

Abstract: A pressure sensor comprises a housing, a housing plug and a pressure port, which projects into the housing. The pressure sensor has a pressure-sensing element adhesively cemented on the pressure port, so that a passage, located in the pressure port, is sealed. To produce an adhesive film between the pressure port and the housing, the pressure port or the housing or both exhibit a recess in a region, which borders at least section by section on the adhesive film. The volume of recess is equal to the volume of the adhesive film. To produce the adhesive film, the intermediate space between the pressure port and the housing is filled with the adhesive, which was introduced into the recess, while utilizing a capillary effect.

Abstract: A pressure sensor in contact with an aggressive fluid for a pressure measurement has a board with a pressure passage. The pressure passage is closed on one side by a sensor chip as a pressure sensing element. The board also mounts an integrated circuit and electrical contacts for electrical contacting of the pressure sensor. At least the on board arranged pressure sensing element as well as the integrated circuit are tightly enclosed by a capper made of a fluid resistant material in connection with the board, and are arranged in an encasing cavity formed by the capper and the board for fluid resistant protection.

Abstract: An arrangement is disclosed for monitoring an installation for thermal loading, having at least one sensor and having evaluation electronics which are connected to the at least one sensor. An indicator substance is arranged at least one point or on at least one component in the installation. The amount of the indicator substances released into the environment is temperature-dependent. The indicator substance can be detected by the at least one sensor.

Abstract: A pressure sensor comprises a housing, a housing plug and a pressure port, which projects into the housing. The pressure sensor has a pressure-sensing element adhesively cemented on the pressure port, so that a passage, located in the pressure port, is sealed. To produce an adhesive film between the pressure port and the housing, the pressure port or the housing or both exhibit a recess in a region, which borders at least section by section on the adhesive film. The volume of recess is equal to the volume of the adhesive film. To produce the adhesive film, the intermediate space between the pressure port and the housing is filled with the adhesive, which was introduced into the recess, while utilizing a capillary effect.

Abstract: A pressure sensor comprises a housing, a housing socket and a pressure port which projects into the housing and which is made of a lead free material. The pressure sensor exhibits a pressure sensing element, which is adhesively cemented on the pressure port, so that a passage, located in the pressure port, is sealed on one side. In one region, the pressure port exhibits a surface roughness and is provided with an adhesion promoting coat. In this region, the pressure sensing element is connected by adhesive cement to the pressure port.

Abstract: A pressure sensor comprises a housing, a housing socket and a pressure port which projects into the housing and which is made of a lead free material. The pressure sensor exhibits a pressure sensing element, which is adhesively cemented on the pressure port, so that a passage, located in the pressure port, is sealed on one side. In one region, the pressure port exhibits a surface roughness and is provided with an adhesive bonding coat. Therefore, in this region the pressure sensing element is connected by adhesive cement to the pressure port.