mhurhangee/ep-ind-claims huggingface dataset:
A vehicular structure comprising: a vehicular panel member (18, 42) configured by resin including reinforcing fibers; and a joined portion (14C, 22A, 24A, 26A, 26A, 28A, 30A, 32A, 34A, 36A) of a vehicle body that supports, all the way around, a peripheral portion of a predetermined area (A1-A6) of the panel member (18, 42) and to which the peripheral portion of the predetermined area (A1-A6) is joined, characterised in that the panel member (18, 42) has a bulging shape where both front and back surfaces of the panel member bulge out such that the thickness of the panel member gradually becomes thicker from a peripheral end portion to a central portion within the predetermined area supported all the way around by the joined portion (14C, 22A, 24A, 26A, 26A, 28A, 30A, 32A, 34A, 36A), wherein: the reinforcing fibers are continuous fibers, a plurality of layers of the continuous fibers are disposed on top of each other as seen in the thickness direction of the panel member (18, 20, 42), and the number of layers of the continuous fibers is set greater in the central portion than in the peripheral end portion in the site having the bulging shape. a vehicular panel member (18, 42) configured by resin including reinforcing fibers; and a joined portion (14C, 22A, 24A, 26A, 26A, 28A, 30A, 32A, 34A, 36A) of a vehicle body that supports, all the way around, a peripheral portion of a predetermined area (A1-A6) of the panel member (18, 42) and to which the peripheral portion of the predetermined area (A1-A6) is joined, characterised in that the panel member (18, 42) has a bulging shape where both front and back surfaces of the panel member bulge out such that the thickness of the panel member gradually becomes thicker from a peripheral end portion to a central portion within the predetermined area supported all the way around by the joined portion (14C, 22A, 24A, 26A, 26A, 28A, 30A, 32A, 34A, 36A), wherein: the reinforcing fibers are continuous fibers, a plurality of layers of the continuous fibers are disposed on top of each other as seen in the thickness direction of the panel member (18, 20, 42), and the number of layers of the continuous fibers is set greater in the central portion than in the peripheral end portion in the site having the bulging shape. the reinforcing fibers are continuous fibers, a plurality of layers of the continuous fibers are disposed on top of each other as seen in the thickness direction of the panel member (18, 20, 42), and the number of layers of the continuous fibers is set greater in the central portion than in the peripheral end portion in the site having the bulging shape.
A network for data transmission, in particular in automation technology, comprising: a) multiple terminal devices (1-4; 1'-4'), b) a common gateway for the external connection of the network with the terminal devices (1-4; 1'-4') to an external data transmission network, c) data links (Link1-Link4) between the gateway and the individual terminal devices (1-4; 1'-4'), and d) multiple OPC-UA servers, wherein each of the terminal devices (1-4; 1'-4') is associated with one of the OPC-UA servers and the individual OPC-UA servers are configured to communicate with the corresponding terminal devices (1-4; 1'-4') so that the individual terminal devices (1-4, 1'-4') are addressable by the external data transmission network according to OPC-UA, wherein e) in the individual terminal devices (1-4; 1'-4') a software component is stored, which is configured to create one of the OPC-UA servers, and f) the gateway is configured to load the software component for creating the individual OPC-UA servers from the terminal devices (1-4; 1'-4') and to execute it in the gateway. a) multiple terminal devices (1-4; 1'-4'), b) a common gateway for the external connection of the network with the terminal devices (1-4; 1'-4') to an external data transmission network, c) data links (Link1-Link4) between the gateway and the individual terminal devices (1-4; 1'-4'), and d) multiple OPC-UA servers, wherein each of the terminal devices (1-4; 1'-4') is associated with one of the OPC-UA servers and the individual OPC-UA servers are configured to communicate with the corresponding terminal devices (1-4; 1'-4') so that the individual terminal devices (1-4, 1'-4') are addressable by the external data transmission network according to OPC-UA, wherein e) in the individual terminal devices (1-4; 1'-4') a software component is stored, which is configured to create one of the OPC-UA servers, and f) the gateway is configured to load the software component for creating the individual OPC-UA servers from the terminal devices (1-4; 1'-4') and to execute it in the gateway.
A fastener cartridge assembly, comprising: a cartridge body comprising a plurality of fastener cavities; a plurality of fasteners, wherein each said fastener is removably positioned in a said fastener cavity; a tissue thickness compensator releasably secured relative to said cartridge body; a connector, wherein said connector secures said tissue thickness compensator to said cartridge body at a location, and wherein the location is distal to at least one said fastener cavity; an actuator configured to overcome said connector when actuated, wherein said actuator overcomes said connector prior to the removal of said fasteners from said fastener cavities; and a firing element configured to remove said fasteners from said fasteners cavities during a portion of a firing stroke, characterized in that said firing element is configured to actuate said actuator prior to the portion of the firing stroke. a cartridge body comprising a plurality of fastener cavities; a plurality of fasteners, wherein each said fastener is removably positioned in a said fastener cavity; a tissue thickness compensator releasably secured relative to said cartridge body; a connector, wherein said connector secures said tissue thickness compensator to said cartridge body at a location, and wherein the location is distal to at least one said fastener cavity; an actuator configured to overcome said connector when actuated, wherein said actuator overcomes said connector prior to the removal of said fasteners from said fastener cavities; and a firing element configured to remove said fasteners from said fasteners cavities during a portion of a firing stroke, characterized in that said firing element is configured to actuate said actuator prior to the portion of the firing stroke.
A seal for a support system for a vane arc segment of a turbine section of a gas turbine engine, the seal comprising: a first seal section having a floor wall and first and second side walls projecting from the floor wall, the first and second side walls converging to define a disjointed corner comprising a gap between opposed edges of the first and second side walls, and a second seal section nesting with the first seal section and sealing the disjointed corner, wherein the second seal section includes a base wall conforming to the floor wall of the first seal section and a corner section projecting from the base wall, the corner section conforming to the disjointed corner to close off the gap. a first seal section having a floor wall and first and second side walls projecting from the floor wall, the first and second side walls converging to define a disjointed corner comprising a gap between opposed edges of the first and second side walls, and a second seal section nesting with the first seal section and sealing the disjointed corner, wherein the second seal section includes a base wall conforming to the floor wall of the first seal section and a corner section projecting from the base wall, the corner section conforming to the disjointed corner to close off the gap.
A method for producing an implant, the method comprising: providing a hollow biocompatible shell to be implanted in an organ of a patient; injecting, at one or more locations in the shell, at least two filling materials, wherein a mixture of at least two of the filling materials is configured to produce gas bubbles within a bulk of the mixture; and forming the gas bubbles in the injected filling materials by heating the shell containing the mixture of the injected filling materials. providing a hollow biocompatible shell to be implanted in an organ of a patient; injecting, at one or more locations in the shell, at least two filling materials, wherein a mixture of at least two of the filling materials is configured to produce gas bubbles within a bulk of the mixture; and forming the gas bubbles in the injected filling materials by heating the shell containing the mixture of the injected filling materials.
A hearing aid system comprising an input transducer, a forward path, an output transducer and an electrical feedback path, the forward path comprising a signal processing unit for modifying an electrical input signal to a specific hearing profile over a predefined frequency range, wherein the predefined frequency range comprises a number of frequency bands, for which maximum forward gain values IG max for each band are stored in a memory, the maximum forward gain values IG max being used to adapt loop gain to a predetermined value in each band, the hearing aid system comprising an anti-feedback system, the electrical feedback path comprising an adaptive filter for estimating acoustical feedback from the output to the input transducer, wherein the hearing aid system further comprises an online feedback manager unit for - with a predefined update frequency corresponding to a predefined mode of the online feedback manager unit - identifying current feedback gain in each frequency band of the feedback path, and for subsequently calculating, storing and adapting the maximum forward gain values IG max in each of the frequency bands in dependence thereof in accordance with a predefined scheme, wherein the predefined scheme comprises that the maximum forward gain value for a frequency band is adapted so that the sum of the current maximum feedback gain and the maximum forward gain values is smaller than or equal to a predefined maximum loop gain value for that band, and wherein different sets of predefined maximum loop gain values are stored corresponding to different modes of the online feedback manager unit.
A method of communicating between a first peer and a second peer using interactive connectivity establishment, ICE, protocol, the method comprising: sharing a symmetric network address translation, NAT, between the first peer and the second peer, the symmetric NAT having wireless isolation enabled and no support for hair-pinning; determining, at a first Traversal Using Relay NAT, TURN, server designated as a relay candidate by a TURN Virtual Internet Platform, VIP, that a first port allocated by the symmetric NAT for a first request for communication initiated by the first peer, the first request directed to the TURN VIP, is different from a second port allocated by the symmetric NAT for a first packet transmitted from the first peer to the first TURN server, based on a first indication; and performing a first mapping of the second port to the first port at the first TURN server. sharing a symmetric network address translation, NAT, between the first peer and the second peer, the symmetric NAT having wireless isolation enabled and no support for hair-pinning; determining, at a first Traversal Using Relay NAT, TURN, server designated as a relay candidate by a TURN Virtual Internet Platform, VIP, that a first port allocated by the symmetric NAT for a first request for communication initiated by the first peer, the first request directed to the TURN VIP, is different from a second port allocated by the symmetric NAT for a first packet transmitted from the first peer to the first TURN server, based on a first indication; and performing a first mapping of the second port to the first port at the first TURN server.
An image sensor comprising an array of readout circuits in non-organic technology and photodiodes made of organic materials, a first electrode of each photodiode being coupled to a gate of a first transistor of the readout circuit.
A method performed by a base station (112, 114, 116), comprising: receiving, a data collection activation message comprised of a minimization of drive tests activation message, wherein the data collection is conveyed to a data storage server (132A, 132B); determining at least one network identity associated to an operator of the network where the data storage server (132A, 132B) resides; determining at least one network identity associated to an operator of a network where a consent status of a candidate user device indicates consent for data collection; comparing the network identity of the network where the data storage server (132A, 132B) resides with the at least one network identity of the network where the consent status of the candidate user device indicates consent; and only in case of at least one match, configuring the candidate user device for data collection; wherein the base station (112, 114, 116) operates in a radio access network shared by the two or more network operators. receiving, a data collection activation message comprised of a minimization of drive tests activation message, wherein the data collection is conveyed to a data storage server (132A, 132B); determining at least one network identity associated to an operator of the network where the data storage server (132A, 132B) resides; determining at least one network identity associated to an operator of a network where a consent status of a candidate user device indicates consent for data collection; comparing the network identity of the network where the data storage server (132A, 132B) resides with the at least one network identity of the network where the consent status of the candidate user device indicates consent; and only in case of at least one match, configuring the candidate user device for data collection; wherein the base station (112, 114, 116) operates in a radio access network shared by the two or more network operators.
An input device comprising: a housing; input functionality available via a surface of the housing, the input functionality configured to initiate one or more inputs that are configured to be communicatively coupled to a computing device to initiate one or more operations of the computing device; and a support mechanism including a flexible outer layer and a spine disposed within the flexible outer layer that is configured to support bending to transition the support mechanism between closed and open configurations, the support mechanism being configured to assume: the closed configuration in which a majority of the support mechanism is disposed within the housing; and the open configuration in which the support mechanism is disposed outside of the housing and arranged as forming a bend to support a rear of a computing device having a slate configuration, wherein the support mechanism is configured to slide out from the closed configuration which is then flexed to form the open configuration. a housing; input functionality available via a surface of the housing, the input functionality configured to initiate one or more inputs that are configured to be communicatively coupled to a computing device to initiate one or more operations of the computing device; and a support mechanism including a flexible outer layer and a spine disposed within the flexible outer layer that is configured to support bending to transition the support mechanism between closed and open configurations, the support mechanism being configured to assume: the closed configuration in which a majority of the support mechanism is disposed within the housing; and the open configuration in which the support mechanism is disposed outside of the housing and arranged as forming a bend to support a rear of a computing device having a slate configuration, wherein the support mechanism is configured to slide out from the closed configuration which is then flexed to form the open configuration. the closed configuration in which a majority of the support mechanism is disposed within the housing; and the open configuration in which the support mechanism is disposed outside of the housing and arranged as forming a bend to support a rear of a computing device having a slate configuration, wherein the support mechanism is configured to slide out from the closed configuration which is then flexed to form the open configuration.
- A method for preparing a composition of metal nanoparticles in the crystalline state, called metal nanocrystals, from at least one organometallic precursor, in which: - a liquid solution of at least one organometallic precursor in a solvent medium in the presence of at least one compound, called ligand, which has at least one carbon chain, at least one end of which is functionalized by a coordination grouping including at least one hetero atom, and is soluble in said solvent medium is prepared, - at least one reducing agent with regard to each organometallic precursor is allowed to act on this liquid solution under reaction conditions suitable for directly causing the formation of metal nanocrystals, characterised in that the following are chosen: - at least one ligand, called PEG ligand, from the group of organic ligands which are soluble in water and include at least one carbon chain which has at least one polyoxyethylene grouping [-OCH 2 CH 2] n, n being an integer higher than 1, and at least one end of which is functionalized by a coordination grouping chosen from a primary amine -R 3 NH 2, a carboxyl grouping -R 4 COOH, a thiol grouping -R 5 SH, a phosphine grouping -R 6 P(Ph) 2, Ph representing phenyl, a phosphonate grouping chosen from - PO(OR 7)(OR 8), -PO(O -) 2 and -PO(O -); R 3, R 4, R 5, R 6 representing a grouping including at least one aliphatic chain, R 7 and R 8 being chosen from a hydrogen atom and a grouping including at least one aliphatic chain, - said solvent medium such that each PEG ligand is soluble in this solvent medium, and such that a water-compatible and organic-compatible composition of metal nanocrystals is obtained directly in one stage. - a liquid solution of at least one organometallic precursor in a solvent medium in the presence of at least one compound, called ligand, which has at least one carbon chain, at least one end of which is functionalized by a coordination grouping including at least one hetero atom, and is soluble in said solvent medium is prepared, - at least one reducing agent with regard to each organometallic precursor is allowed to act on this liquid solution under reaction conditions suitable for directly causing the formation of metal nanocrystals, - at least one ligand, called PEG ligand, from the group of organic ligands which are soluble in water and include at least one carbon chain which has at least one polyoxyethylene grouping [-OCH 2 CH 2] n, n being an integer higher than 1, and at least one end of which is functionalized by a coordination grouping chosen from a primary amine -R 3 NH 2, a carboxyl grouping -R 4 COOH, a thiol grouping -R 5 SH, a phosphine grouping -R 6 P(Ph) 2, Ph representing phenyl, a phosphonate grouping chosen from - PO(OR 7)(OR 8), -PO(O -) 2 and -PO(O -); R 3, R 4, R 5, R 6 representing a grouping including at least one aliphatic chain, R 7 and R 8 being chosen from a hydrogen atom and a grouping including at least one aliphatic chain, - said solvent medium such that each PEG ligand is soluble in this solvent medium,
A bacteria susceptibility measuring device comprising: a stage on which a sample container is mounted; a temperature adjustment device including an upper heating body and a lower heating body disposed above and below the sample container; an image pickup device for picking up an image of the sample container, the image pickup device including a lighting apparatus and an image pickup apparatus, characterized in that each of the upper heating body and the lower heating body has a structure of a first region (201; 301) which is a peripheral portion and a second region (202; 302) including a center portion; wherein at least one of the upper heating body and the lower heating body includes a plurality of linear heat generating bodies such that an interval between adjacent linear heat generating bodies in the first region is larger than an interval between adjacent linear heat generating bodies in the second region, so that the temperature and amount of heat generation in the first region are higher than the respective temperature and amount of heat generation in the second region; and wherein the stage is an XY stage adapted to move the sample container in an X-axis direction and a Y-axis direction, and both the upper heating body and the lower heating body have a planar size larger than the movement range of the XY stage. a stage on which a sample container is mounted; a temperature adjustment device including an upper heating body and a lower heating body disposed above and below the sample container; an image pickup device for picking up an image of the sample container, the image pickup device including a lighting apparatus and an image pickup apparatus, characterized in that each of the upper heating body and the lower heating body has a structure of a first region (201; 301) which is a peripheral portion and a second region (202; 302) including a center portion; wherein at least one of the upper heating body and the lower heating body includes a plurality of linear heat generating bodies such that an interval between adjacent linear heat generating bodies in the first region is larger than an interval between adjacent linear heat generating bodies in the second region, so that the temperature and amount of heat generation in the first region are higher than the respective temperature and amount of heat generation in the second region; and wherein the stage is an XY stage adapted to move the sample container in an X-axis direction and a Y-axis direction, and both the upper heating body and the lower heating body have a planar size larger than the movement range of the XY stage.
An automated wrapping system for trimming a substrate with a material, the substrate having an outer portion and an inner portion and an edge connecting the inner portion to the outer portion, said automated wrapping system comprising: a support; a nest mounted to said support and configured to position the material between the outer portion of the substrate and the nest, with the material including a free end portion not positioned between the nest and the outer portion of the substrate; a material folding assembly positioned adjacent to said nest, said material folding assembly movable between a rest position and an actuated position, with said material folding assemblybeing capable of holding the material against the edge of the substrate in said actuated position, wherein said material folding assembly engages and folds the free end portion of the material over the edge of the substrate and onto a part of the inner portion of the substrate while retaining the material against the edge of the substrate; and an actuator connected to said material folding assembly for moving said material folding assembly between said rest position and said actuated position. a support; a nest mounted to said support and configured to position the material between the outer portion of the substrate and the nest, with the material including a free end portion not positioned between the nest and the outer portion of the substrate; a material folding assembly positioned adjacent to said nest, said material folding assembly movable between a rest position and an actuated position, with said material folding assemblybeing capable of holding the material against the edge of the substrate in said actuated position, wherein said material folding assembly engages and folds the free end portion of the material over the edge of the substrate and onto a part of the inner portion of the substrate while retaining the material against the edge of the substrate; and an actuator connected to said material folding assembly for moving said material folding assembly between said rest position and said actuated position.