mhurhangee/ep-ind-claims huggingface dataset:
Method for producing a component of an electromechanical transducer that has windings, wherein the method comprises the steps of: molding one of the free ends of two winding-forming conductor pieces which are to be conductively interconnected; arranging and fixing the conductor pieces to be interconnected in the component of the electromechanical transducer in a configuration intended for a welding process; wherein the molding, arranging and fixing is carried out in such a way that the two conductor pieces abut one another in the intended configuration and a recess which widens toward the free ends is provided between the two conductor pieces; welding the two conductor pieces to be connected by means of a beam welding process, wherein the beam is introduced into the widening recess so that a conductive weld connection is established which connects the two conductor pieces to be interconnected; characterized in that the two conductor pieces to be interconnected have the same conductor cross section and in that the conductive weld connection has a cross section of at least 80% and at most 140% of the conductor cross section of the conductor pieces. molding one of the free ends of two winding-forming conductor pieces which are to be conductively interconnected; arranging and fixing the conductor pieces to be interconnected in the component of the electromechanical transducer in a configuration intended for a welding process; wherein the molding, arranging and fixing is carried out in such a way that the two conductor pieces abut one another in the intended configuration and a recess which widens toward the free ends is provided between the two conductor pieces; welding the two conductor pieces to be connected by means of a beam welding process, wherein the beam is introduced into the widening recess so that a conductive weld connection is established which connects the two conductor pieces to be interconnected; characterized in that the two conductor pieces to be interconnected have the same conductor cross section and in that the conductive weld connection has a cross section of at least 80% and at most 140% of the conductor cross section of the conductor pieces.
Printed circuit board apparatus having a printed circuit board comprising an electrically insulating substrate and at least one electrically conductive conductor track, wherein the conductor track is fixedly connected to the substrate, wherein the conductor track extends along a direction of longitudinal extent of the substrate, wherein a plug comprising a plug housing and an electrical contact element which is arranged in the plug housing can be electrically conductively connected to the printed circuit board, wherein a spring element (18, 20) is fixedly connected to the printed circuit board, wherein, when the plug is connected to the printed circuit board, the spring element (18, 20) exerts a force (F1, F2) onto the plug housing substantially perpendicularly in relation to the printed circuit board in order to push the electrical contact element onto the conductor track, wherein the printed circuit board apparatus further has a second spring element, characterized in that the first spring element and the second spring element are fixedly connected to one another in such a way that, when the plug is connected to the printed circuit board, the second spring element exerts a second force onto the plug substantially perpendicularly in relation to the printed circuit board, wherein the second spring element is configured in such a way that the first force and the second force are substantially identical, wherein neither the first force nor the second force are conducted into the printed circuit board.
An isolated peptide having cytotoxic T lymphocyte inducibility, wherein the peptide consists of an amino acid sequence selected from the group consisting of (a) SEQ ID NO: 23, 3, 4, 11, 14 and 22; and (b) SEQ ID NO: 23, 3, 4, 11, 14, and 22 wherein the second amino acid from the N-terminus of the amino acid sequence of the SEQ ID NOs is substituted with phenylalanine, tyrosine, methionine, or tryptophan, and/or wherein the C-terminus of the amino acid sequence of the SEQ ID NOs is substituted with phenylalanine, leucine, isoleucine, tryptophan, or methionine. (a) SEQ ID NO: 23, 3, 4, 11, 14 and 22; and (b) SEQ ID NO: 23, 3, 4, 11, 14, and 22 wherein the second amino acid from the N-terminus of the amino acid sequence of the SEQ ID NOs is substituted with phenylalanine, tyrosine, methionine, or tryptophan, and/or
A manufacturing method of a balloon catheter including a balloon provided on a distal end side of a shaft (20, 22), comprising: forming the balloon of a deformable synthetic resin, forming an additional structure (36, 80) having a prescribed pattern of a curable metal paste layer with a resin material that exhibits a fixation force in relation to the balloon, and forming the additional structure (36, 80) directly on one formation surface that is a surface of at least one of an inner circumferential surface and an outer circumferential surface of the balloon. forming the balloon of a deformable synthetic resin, forming an additional structure (36, 80) having a prescribed pattern of a curable metal paste layer with a resin material that exhibits a fixation force in relation to the balloon, and forming the additional structure (36, 80) directly on one formation surface that is a surface of at least one of an inner circumferential surface and an outer circumferential surface of the balloon.
A fault-tolerant monitoring apparatus arranged to monitor physical performance properties of a plurality of networked computing elements, each element including a processing unit and individual memory, the monitoring apparatus comprising a plurality of measurer apparatuses, each arranged to measure the physical performance properties of a single computing element, the physical performance properties being stored as local information in the individual memory of the computing element in which the measurement is made; and one or more collector apparatuses arranged to control collection of remote information representing physical performance properties from individual memory in a plurality of the computing elements, and to control storage of the remote information representing physical performance properties as replicate information in the individual memory of another computing element; wherein the physical performance properties are in the form of electrical characteristics including voltage, current, power or energy use of the computing element or part thereof; each measurer apparatus is directly linked to a single collector apparatus without a network interface controller; and the remote information representing physical performance properties is collected using third party access, wherein the third party access is by one of remote direct memory access (RDMA) put and RDMA get. a plurality of measurer apparatuses, each arranged to measure the physical performance properties of a single computing element, the physical performance properties being stored as local information in the individual memory of the computing element in which the measurement is made; and one or more collector apparatuses arranged to control collection of remote information representing physical performance properties from individual memory in a plurality of the computing elements, and to control storage of the remote information representing physical performance properties as replicate information in the individual memory of another computing element; wherein the physical performance properties are in the form of electrical characteristics including voltage, current, power or energy use of the computing element or part thereof; each measurer apparatus is directly linked to a single collector apparatus without a network interface controller; and the remote information representing physical performance properties is collected using third party access, wherein the third party access is by one of remote direct memory access (RDMA) put and RDMA get.
A method for a macro node in a mobile network, the method comprising: configuring a cluster of small cell nodes in communication with the macro node to perform retransmission of downlink packets sent from the macro node to a first user equipment UE served by the macro node; determining a first channel quality metric characterizing channel quality between the macro node and a first one of the small cell nodes based on first channel quality information received from the first one of the small cell nodes; determining a second channel quality metric characterizing channel quality between the first one of the small cell nodes and the first UE based on second channel quality information received from the UE; determining whether to include the first one of the small cell nodes in the cluster of small cell nodes based on comparing the first channel quality metric to a first threshold and comparing the second channel quality metric to a second threshold; sending a first downlink packet from the macro node for receipt by the first UE; in response to receiving a negative acknowledgment (710, 715) for the first downlink packet from the first UE, scheduling the cluster of small cell nodes to retransmit the first downlink packet to the first UE; and receiving, at the macro node, acknowledgment information for the first downlink packet from the cluster of small cell nodes, wherein the acknowledgement information indicates whether the retransmitted first downlink packet is received correctly by the first UE. configuring a cluster of small cell nodes in communication with the macro node to perform retransmission of downlink packets sent from the macro node to a first user equipment UE served by the macro node; determining a first channel quality metric characterizing channel quality between the macro node and a first one of the small cell nodes based on first channel quality information received from the first one of the small cell nodes; determining a second channel quality metric characterizing channel quality between the first one of the small cell nodes and the first UE based on second channel quality information received from the UE; determining whether to include the first one of the small cell nodes in the cluster of small cell nodes based on comparing the first channel quality metric to a first threshold and comparing the second channel quality metric to a second threshold; sending a first downlink packet from the macro node for receipt by the first UE; in response to receiving a negative acknowledgment (710, 715) for the first downlink packet from the first UE, scheduling the cluster of small cell nodes to retransmit the first downlink packet to the first UE; and receiving, at the macro node, acknowledgment information for the first downlink packet from the cluster of small cell nodes, wherein the acknowledgement information indicates whether the retransmitted first downlink packet is received correctly by the first UE.
A transgenic plant comprising and expressing DNA encoding a Vip3Ab insecticidal protein and DNA encoding a Cry1F insecticidal protein, further comprising and expressing DNA encoding a third insecticidal protein, said third protein being selected from the group consisting of Cry1C, Cry1D, and Cry1Be.
A pharmaceutical composition comprising (a) cefepime or a pharmaceutically acceptable salt thereof; and (b) tazobactam or a pharmaceutically acceptable salt thereof, said composition being characterized in that it comprises 2 g of cefepime and 2 g of tazobactam.
An endoscope apparatus comprising: an endoscope which includes an imaging optical system having an imaging element and an illumination optical system having an illumination window, the optical systems being provided at a front end of an endoscope insertion unit inserted into a body cavity; a predetermined color correction table; and a control unit which includes a light source unit connected to the endoscope and adapted to supply at least excitation light to the illumination optical system so as to emit light from a fluorescent substance, and an image processing section adapted to correct an image signal output from the imaging element on a basis of the predetermined color correction table and outputting a result thereof, wherein the control unit is adapted to perform a calibration process based on an image of a color chart having a plurality of color patches with known chromaticity values captured by the imaging element, wherein the control unit is adapted to obtain chromaticity for each of the plurality of color patches from an imaging signal of the color chart so as to be used as a measured chromaticity value, and adapted to change contents of the color correction table so that the measured chromaticity value of each of the color patches is equal to the known chromaticity value. an endoscope which includes an imaging optical system having an imaging element and an illumination optical system having an illumination window, the optical systems being provided at a front end of an endoscope insertion unit inserted into a body cavity; a predetermined color correction table; and a control unit which includes a light source unit connected to the endoscope and adapted to supply at least excitation light to the illumination optical system so as to emit light from a fluorescent substance, and an image processing section adapted to correct an image signal output from the imaging element on a basis of the predetermined color correction table and outputting a result thereof, wherein the control unit is adapted to perform a calibration process based on an image of a color chart having a plurality of color patches with known chromaticity values captured by the imaging element, wherein the control unit is adapted to obtain chromaticity for each of the plurality of color patches from an imaging signal of the color chart so as to be used as a measured chromaticity value, and adapted to change contents of the color correction table so that the measured chromaticity value of each of the color patches is equal to the known chromaticity value.
A method operational on a host terminal comprising: receiving a notification from a client terminal to operate as a proxy for the client terminal; adding the client terminal to a proxy list; listening for paging messages on paging channels for the client terminal via a first communication interface; sending at least a portion of a paging message to the client terminal via a second communication interface; and removing the client terminal from the proxy list after the at least a portion of the paging message is sent to the client terminal via the second communication interface. receiving a notification from a client terminal to operate as a proxy for the client terminal; adding the client terminal to a proxy list; listening for paging messages on paging channels for the client terminal via a first communication interface; sending at least a portion of a paging message to the client terminal via a second communication interface; and removing the client terminal from the proxy list after the at least a portion of the paging message is sent to the client terminal via the second communication interface.
Device for testing electrical/electronic components under elevated gas pressure with a pressure chamber, which is provided with test needles on a needle card, wherein a lateral boundary of the pressure chamber, which has at least one ring, is provided, and wherein there is a gap between the component that is to be tested and the lateral boundary of the pressure chamber, characterized in that fibers are provided on the end face of the lateral boundary of the pressure chamber facing the component that is to be tested, and in that the fibers are arranged to impede the flow of gas from the pressure chamber.
Method for determining a bearing state for a bearing in an electric machine, whereby a measured value is determined by means of a sensor unit, whereby the measured value is communicated to a simulation unit, whereby the simulation unit has a model for simulating the bearing, whereby a result value is determined using the simulation unit, whereby the result value is in particular a bearing current value or a value which depends on the bearing current, where the result value is communicated to a further unit, whereby the further unit is an evaluation unit, whereby the result value is processed using the evaluation unit in such a way that a bearing state value is determined, whereby the result value is determined by means of the model and the measured value, whereby by using external measured values, in particular earth currents, terminal voltage, shaft current, shaft voltage (bearing voltage), bearing temperature, vibration, rpm, indirect bearing currents by way of insulation bridging, voltage gradient, pulse frequency, inner measured values, in particular variables of the bearing lubrication gap, bearing capacitance, bearing currents can be calculated on the basis of a simulation model.
A method in a network node of a wireless network, of controlling interference generated by at least one white space device controlled by the network node, the network node being connected to a remote entity handling information regarding channels available for secondary usage, characterized in: - transmitting a request for information regarding channels available for secondary usage to the remote entity, - receiving information from the remote entity, the information indicating a channel available for secondary usage, a critical position associated with said channel, and an interference threshold for the critical position, - deriving a constraint for the allocation of said channel to the at least one white space device, based on a position of the at least one white space device, the critical position, and the interference threshold, and - allocating said channel and a transmit power to the at least one white space device based on the derived constraint, whereby the interference generated in the critical position by the at least one white space device is kept below the interference threshold. - transmitting a request for information regarding channels available for secondary usage to the remote entity, - receiving information from the remote entity, the information indicating a channel available for secondary usage, a critical position associated with said channel, and an interference threshold for the critical position, - deriving a constraint for the allocation of said channel to the at least one white space device, based on a position of the at least one white space device, the critical position, and the interference threshold, and - allocating said channel and a transmit power to the at least one white space device based on the derived constraint, whereby the interference generated in the critical position by the at least one white space device is kept below the interference threshold.
A compressed gas tank assembly for an aircraft evacuation system comprising: a metal liner comprising a cylindrical geometry and having a centerline axis; a carbon fiber shell enveloping the metal liner; a fiberglass shell enveloping the carbon fiber shell; a port for at least one of charging and dis-charging the gas tank assembly; an inside fastener coupled to the metal liner; and an attachment feature removably coupled to the inside fastener, the attachment feature configured to secure the compressed gas tank assembly to a portion of an aircraft via a securing element, wherein the attachment feature comprises a loop, and the inside fastener being disposed at least partially within at least one of the carbon fiber shell or the fiberglass shell and disposed on the outer surface of the metal liner, the inside fastener located at a first end of the compressed gas tank assembly and is concentric with the liner; wherein the port is located at a second end of the gas tank assembly. a metal liner comprising a cylindrical geometry and having a centerline axis; a carbon fiber shell enveloping the metal liner; a fiberglass shell enveloping the carbon fiber shell; a port for at least one of charging and dis-charging the gas tank assembly; an inside fastener coupled to the metal liner; and an attachment feature removably coupled to the inside fastener, the attachment feature configured to secure the compressed gas tank assembly to a portion of an aircraft via a securing element, wherein the attachment feature comprises a loop, and the inside fastener being disposed at least partially within at least one of the carbon fiber shell or the fiberglass shell and disposed on the outer surface of the metal liner, the inside fastener located at a first end of the compressed gas tank assembly and is concentric with the liner; wherein the port is located at a second end of the gas tank assembly.
A medical system, the system comprising a control device having processing circuitry configured to: receive positional information relating to the position of at least a part of a surgical robot; determine a boundary around the surgical robot based on the positional information, the boundary being defined at a uniform or non-uniform distance around the surgical robot; and control the generation of a haptic sensation at the boundary. receive positional information relating to the position of at least a part of a surgical robot; determine a boundary around the surgical robot based on the positional information, the boundary being defined at a uniform or non-uniform distance around the surgical robot; and control the generation of a haptic sensation at the boundary.
Current sensor device for monitoring the current passing through a brush, comprising: - a brush holder extending in a longitudinal direction between distal and proximal ends, and defining a through housing intended to receive, slidably in the longitudinal direction, a brush so that one end of the brush intended to brush against a rotating movable surface protrudes from the brush holder at its distal end, - a Hall effect sensor arranged to detect a magnetic field, the current sensor device being characterized by: - a concentrator arranged to concentrate the magnetic fields inside a concentrated magnetic field zone and to protect this zone from the external magnetic fields, wherein, - the concentrator is mounted on the brush holder so as to surround at least a part of the brush when the latter is received inside the housing of the brush holder, in particular in a plane perpendicular to the longitudinal direction, - the Hall effect sensor is mounted on the brush holder at a position located inside the concentrated magnetic field zone, so as to measure a value representative of the intensity of the current passing through the brush when the latter is received in the housing of the brush holder. - a brush holder extending in a longitudinal direction between distal and proximal ends, and defining a through housing intended to receive, slidably in the longitudinal direction, a brush so that one end of the brush intended to brush against a rotating movable surface protrudes from the brush holder at its distal end, - a Hall effect sensor arranged to detect a magnetic field, - a concentrator arranged to concentrate the magnetic fields inside a concentrated magnetic field zone and to protect this zone from the external magnetic fields, - the concentrator is mounted on the brush holder so as to surround at least a part of the brush when the latter is received inside the housing of the brush holder, in particular in a plane perpendicular to the longitudinal direction, - the Hall effect sensor is mounted on the brush holder at a position located inside the concentrated magnetic field zone, so as to measure a value representative of the intensity of the current passing through the brush when the latter is received in the housing of the brush holder.