Abstract: A device for treating a product with microwaves includes a treatment chamber, in which the product can be transported along a transport path in a transport direction through the treatment chamber, and a microwave radiation device arranged in the treatment chamber, by means of which microwaves coupled into the microwave radiation device can be radiated, which act on the product, wherein the microwave radiation device includes at least one coaxial conductor which protrudes into the treatment chamber, or is arranged therein, with an electrically-conductive internal conductor and an electrically-conductive external conductor, wherein the external conductor, arranged coaxially, surrounds the internal conductor in a spaced manner and includes at least one opening, which enables an emission of microwaves from the coaxial conductor through the opening on to the product.

Abstract: The present invention relates to small-molecule inhibitors of the FRS2-FGFR interaction. The present invention relates the small-molecule inhibitors for use as a medicament and for use in cancer or metastasis treatment or prevention.

Abstract: The present invention relates to small-molecule inhibitors of the FRS2-FGFR interaction. The present invention relates the small-molecule inhibitors for use as a medicament and for use in cancer treatment or prevention.

Abstract: The invention is related to a device (1) for receiving a biological sample (3) wherein the device (1) comprises a plurality of wells (10) wherein each well (10) comprises an inner surface (14) facing a volume (60) for receiving a biological sample (3). The inner surface (14) comprises a top section (20) and a bottom section (30). The top section (20) and the bottom section (30) are connected via a circumferential step (40). The circumferential step (40) forms a stop for a tip of a pipette (70).

Abstract: The invention relates to a method for producing a sensor housing for a pressure sensor and to a sensor housing for a pressure sensor, to a pressure sensor having such a sensor housing, and to the use of an additive production device for producing such a sensor housing. A sensor body and/or at least one membrane stamp is applied to a provided metal plate by means of additive production. The additive production produces an integrally joined, in particular planar joint connection between the sensor body and/or the at least one membrane stamp, on the one side, and the metal plate, on the other side.

Abstract: A device fir treating a product with microwaves has a treatment chamber in which the product can be conveyed along a transport track in a transport direction through the treatment chamber, and has a microwave-emitting apparatus, which is arranged in the treatment chamber and by which microwaves coupled into the microwave-emitting apparatus can be emitted, which microwaves impinge upon the product. The microwave-emitting apparatus has at least one coaxial conductor, which protrudes into or is arranged in the treatment chamber and which has an electrically conductive inner conductor and an electrically conductive outer conductor, the outer conductor surrounding the inner conductor at a distance therefrom and in coaxial arrangement and having at least one opening, which enables the emission of microwaves through the opening from the coaxial conductor onto the product.

Abstract: The invention relates to a method for producing a sensor housing for a pressure sensor and to a sensor housing for a pressure sensor, to a pressure sensor having such a sensor housing, and to the use of an additive production device for producing such a sensor housing. A sensor body and/or at least one membrane stamp is applied to a provided metal plate by means of additive production. The additive production produces an integrally joined, in particular planar joint connection between the sensor body and/or the at least one membrane stamp, on the one side, and the metal plate, on the other side.

Abstract: A device is provided for generating plasma by microwaves for CVD coating a substrate having a vacuum container into which a reaction gas can be fed and an electrical conductor arranged therein which is connected on each of both ends thereof to a device for coupling microwaves and to a voltage source with which a difference of potential can generated between the electrical conductor and the surrounding vacuum container. The electrical conductor is electrically insulated from the devices for coupling microwaves. The electrical conductor has a rod-shaped design or a curved run. The electrical conductor is connected to the voltage source via a feedthrough filter. The device for coupling microwaves expands in a funnel shape toward the electrical conductor and is partially or completely filled by a dielectric material. The device for coupling microwaves has groove-shaped recesses running along a circumference.

Abstract: A data communication method between a first communication user arranged at a motor vehicle and a second communication user arranged outside the motor vehicle is provided. The first communication user can be addressed by the second communication user by way of a network address. The network address of the first communication user is defined by an address management unit arranged outside the motor vehicle and is transmitted to the first communication user.

Abstract: A process is provided for transferring a first sequence control and/or first data into a first control device and a second sequence control and/or second data into a second control device in a motor vehicle. The transfer is carried out by way of a first data bus while using a first transmission protocol which has a data frame with a predetermined frame format or message format, and the transfer as a whole takes place by the transmission of a plurality of data frames. In a first step, by way of a first data frame, a portion of the first sequence control and/or of the first data is transmitted to the first control device. In a second step, by way of the second data frame, a portion of the second sequence control and/or of the second data is transmitted to the second control device.

Abstract: A device is provided for generating plasma by microwaves for CVD coating a substrate having a vacuum container into which a reaction gas can be fed and an electrical conductor arranged therein which is connected on each of both ends thereof to a device for coupling microwaves and to a voltage source with which a difference of potential can generated between the electrical conductor and the surrounding vacuum container. The electrical conductor is electrically insulated from the devices for coupling microwaves. The electrical conductor has a rod-shaped design or a curved run. The electrical conductor is connected to the voltage source via a feedthrough filter. The device for coupling microwaves expands in a funnel shape toward the electrical conductor and is partially or completely filled by a dielectric material. The device for coupling microwaves has groove-shaped recesses running along a circumference.

Abstract: To render possible a high-quality, yet cost-effective provision suitable for mass production of a piezoelectric pressure transducer (1) with at least one piezoelectric measuring element (3, 3?, 3?) arranged on a housing base part (2), which measuring element is connected on the opposite side to a diaphragm (4), the measuring element (3, 3?, 3?) is fixed on an electrode sheet (5, 5?, 5?, 5??) or directly on the base part 2 or the diaphragm 4, wherein the electrode sheet (5, 5?, 5?, 5??) wraps conductively and positively as well as in a manner fixing the layers around a contact pin (7) insulated with respect to the base part (2) and projecting outwards.

Abstract: To render possible a high-quality, yet cost-effective provision suitable for mass production of a piezoelectric pressure transducer (1) with at least one piezoelectric measuring element (3, 3?, 3?) arranged on a housing base part (2), which measuring element is connected on the opposite side to a diaphragm (4), the measuring element (3, 3?, 3?) is fixed on an electrode sheet (5, 5?, 5?, 5??) or directly on the base part 2 or the diaphragm 4, wherein the electrode sheet (5, 5?, 5?, 5??) wraps conductively and positively as well as in a manner fixing the layers around a contact pin (7) insulated with respect to the base part (2) and projecting outwards.

Abstract: A process is provided for transferring a first sequence control and/or first data into a first control device and a second sequence control and/or second data into a second control device in a motor vehicle, which are each connected by way of a first data bus with a transmission device. The transmission device preferably is a vehicle-external transmission device. The transfer is carried out by way of the first data bus while using a first transmission protocol. The first transmission protocol has a data frame with a predetermined frame format or message format, and the transfer as a whole takes place by the transmission of a plurality of data frames. In order to rapidly transfer large quantities of data into the control devices of the vehicle, in a first step, by way of a first data frame, a portion of the first sequence control and/or of the first data is transmitted to the first control device.

Abstract: A data communication method between a first communication user arranged at a motor vehicle and a second communication user arranged outside the motor vehicle is provided. The first communication user can be addressed by the second communication user by way of a network address. The network address of the first communication user is defined by an address management unit arranged outside the motor vehicle and is transmitted to the first communication user.

Abstract: The aim of the invention is to provide an alternative to the intensive treatment of a product, especially plasma treatment, in specific areas only. Towards this end, the invention provides a device for producing microwaves for treating workpieces, comprising at least one microwave antenna with an extended conductor for producing alternating electromagnetic fields, a housing that substantially extends over the length of the conductor, and an extended microwave decoupling area which follows the conductor and which is located in the housing. The housing is formed by at least one resonant cavity, which has a long shape and follows the course of the microwave antenna. The resonant cavity has at least one tapering, closed, first crown area and the decoupling area essentially extends in the focussing area of the resonant cavity. An at least non-divergent housing area adjoins the resonant cavity.

Abstract: An apparatus for the heating of pressed stock in the manufacture of boards of material or in the manufacture of veneer panels. The apparatus includes a microwave preheating device having rod antennae disposed in series, reflective shields, and a heating cell configured as a continuous oven in which the introduction of microwaves into the pressed stock takes place via the rod antennae. The rod antennae are attached to lie horizontally and transversely to the direction of production above, below, or above and below the pressed stock within the heating cell. The reflective surfaces are assigned to the rod antennae on the opposite sides of the pressed stock.

Abstract: An apparatus for the heating of pressed stock in the manufacture of boards of material or in the manufacture of veneer panels. The apparatus includes a microwave preheating device having rod antennae disposed in series, reflective shields, and a heating cell configured as a continuous oven in which the introduction of microwaves into the pressed stock takes place via the rod antennae. The rod antennae are attached to lie horizontally and transversely to the direction of production above, below, or above and below the pressed stock within the heating cell. The reflective surfaces are assigned to the rod antennae on the opposite sides of the pressed stock.

Abstract: An optoelectronic measuring device for monitoring combustion processes in the combustion chamber of an internal combustion engine during operation includes optical sensors assigned to the combustion chamber and connected to an evaluation unit, the sensor ends on the side of the combustion chamber being essentially positioned in a plane and the sensors being aligned so that the individual viewing angles of the sensors will uniformly cover at least one predefined measuring sector of the combustion chamber. A simple way of localizing the origin of engine knocking in the combustion chamber is ensured by positioning the optical sensors in an essentially cylindrical component projecting into the combustion chamber with the sensor ends positioned essentially radially along the wall of the component.

Abstract: A process for preparing poly(vinyl acetals) or poly(vinyl ketals) by reacting poly(vinyl alcohol) with an aldehyde or ketone in the presence of a catalyst which contains acid groups which are chemically bound on a sheet-like support which is insoluble in the reaction medium.