mhurhangee/ep-ind-claims huggingface dataset:
Electrolyte battery electrode component having a layer a surface of which is adjoined by electrolyte in the battery and which is provided with a fluid-conducting channel structure, characterized in that the fluid-conducting structure has channels having channel depths of at least 70% of the thickness of the active layer that provide an electrolyte reservoir close to the active material layer. a surface of which is adjoined by electrolyte in the battery and which is provided with a fluid-conducting channel structure,
A heat pipe (1, 5) comprising: an inlet port (90, 91) for injecting a working fluid, the inlet port (90, 91) including an unsealed part (90a, 91a) and a sealed part (90b, 91b) that connect to each other, the unsealed part (90a, 91a) and the sealed part (90b, 91b) including a plurality of metal layers, the plurality of metal layers being a first outermost layer, a plurality of intermediate layers stacked on the first outermost layer, and a second outermost layer stacked on the plurality of intermediate layers, wherein, in the unsealed part (90a, 91a), the plurality of intermediate layers include respective openings (902x-905x) open to the first and second outermost layers (901, 906), and respective first and second walls (902a-905a, 902b-905b) on first and second opposite sides, respectively, of the openings (902x-905x), the openings (902x-905x) of the plurality of intermediate layers form an injection channel defined by the first and second outermost layers (901, 906) and the first and second walls (902a-905a, 902b-905b) of the plurality of intermediate layers (902x-905x), and wherein, in the sealed part (90b, 91b), each of the plurality of metal layers contacts one or more of other metal layers among the plurality of metal layers to hermetically seal the inlet port (90, 91), the heat pipe being characterized in that inner wall faces (902s-905s) of the first walls (902a-905a) and inner wall faces (902s-905s) of the second walls (902b-905b) of at least two adjacent intermediate layers among the plurality of intermediate layers form a first step and a second step, respectively. an inlet port (90, 91) for injecting a working fluid, the inlet port (90, 91) including an unsealed part (90a, 91a) and a sealed part (90b, 91b) that connect to each other, the unsealed part (90a, 91a) and the sealed part (90b, 91b) including a plurality of metal layers, the plurality of metal layers being a first outermost layer, a plurality of intermediate layers stacked on the first outermost layer, and a second outermost layer stacked on the plurality of intermediate layers, wherein, in the unsealed part (90a, 91a), the plurality of intermediate layers include respective openings (902x-905x) open to the first and second outermost layers (901, 906), and respective first and second walls (902a-905a, 902b-905b) on first and second opposite sides, respectively, of the openings (902x-905x), the openings (902x-905x) of the plurality of intermediate layers form an injection channel defined by the first and second outermost layers (901, 906) and the first and second walls (902a-905a, 902b-905b) of the plurality of intermediate layers (902x-905x), and wherein, in the sealed part (90b, 91b), each of the plurality of metal layers contacts one or more of other metal layers among the plurality of metal layers to hermetically seal the inlet port (90, 91), the heat pipe being characterized in that inner wall faces (902s-905s) of the first walls (902a-905a) and inner wall faces (902s-905s) of the second walls (902b-905b) of at least two adjacent intermediate layers among the plurality of intermediate layers form a first step and a second step, respectively.
An imaging device comprising: a second-stage detector; a first-stage detector disposed between a gamma ray source and the second-stage detector; an event detection unit configured to detect an event in which a gamma ray that is Compton scattered by the first-stage detector is photoelectrically absorbed by the second-stage detector; and an arithmetic unit configured to generate a distribution image indicating a spatial distribution of the gamma ray source as an image in an image space enclosing the gamma ray source, on the basis of measurement data of interaction of each detector (11, 12)and gamma rays in a plurality of events, wherein the distribution image is composed of a plurality of pixels, characterized in that the arithmetic unit is configured to set, on the basis of the measurement data of each event, for each event and for each pixel, a probability parameter (v ij) indicating a probability that Compton-scattered gamma ray arrived from within the image space in each event and a detection sensitivity parameter (s ij) indicating a detection sensitivity of Compton scattering in each event, the arithmetic unit is configured to set, on the basis of the measurement data of each event, for each event and for each pixel, a system response function representing a probability that the gamma ray emitted from the pixel is measured as the event, and the arithmetic unit is configured to generate the distribution image using the probability parameter (v ij), the detection sensitivity parameter (s ij), and the system response function that are set. a second-stage detector; a first-stage detector disposed between a gamma ray source and the second-stage detector; an event detection unit configured to detect an event in which a gamma ray that is Compton scattered by the first-stage detector is photoelectrically absorbed by the second-stage detector; and an arithmetic unit configured to generate a distribution image indicating a spatial distribution of the gamma ray source as an image in an image space enclosing the gamma ray source, on the basis of measurement data of interaction of each detector (11, 12)and gamma rays in a plurality of events, wherein the distribution image is composed of a plurality of pixels, characterized in that the arithmetic unit is configured to set, on the basis of the measurement data of each event, for each event and for each pixel, a probability parameter (v ij) indicating a probability that Compton-scattered gamma ray arrived from within the image space in each event and a detection sensitivity parameter (s ij) indicating a detection sensitivity of Compton scattering in each event, the arithmetic unit is configured to set, on the basis of the measurement data of each event, for each event and for each pixel, a system response function representing a probability that the gamma ray emitted from the pixel is measured as the event, and the arithmetic unit is configured to generate the distribution image using the probability parameter (v ij), the detection sensitivity parameter (s ij), and the system response function that are set.
A compound of formula, wherein: R 1 is -(C 6-10)-aryl or -(C 5-10)-heteroaryl; each of which is optionally substituted with one or more substituents selected from halogen, -OH, -O-(C 1-6)-alkyl, -S-(C 1-6)-alkyl, -N(CH 3) 2, -(C 1-6)-alkyl, -(C 3-6)-cycloalkyl, halo(C 1-6)-alkyl, -NH 2, -CN and R 1a; R 1a is -(C 6-10)-aryl or -(C 5-10)-heteroaryl; each of which is optionally substituted with one or more substituents selected from the group consisting of halogen, -OH, -NH 2, -CN, -O-(C 1-6)-alkyl, -S-(C 1-6)-alkyl, -(C 1-6)-alkyl and -(C 3-6)-cycloalkyl; A 1 is CH 2 or CHF; ring A is selected from the group consisting of: " " represents point of attachment; R 2 is hydrogen, -(C 1-6)-alkyl or -(C 3-6)-cycloalkyl; R 3 is hydrogen, halogen, -OH, -(C 1-6)-alkyl, -O-(C 1-6)-alkyl or halo(C 1-6)-alkyl; R 4 is hydrogen, -(C 1-6)-alkyl or halo(C 1-6)-alkyl; R 5 is hydrogen, -(C 1-6)-alkyl or halo(C 1-6)-alkyl; X 1 is independently selected from O, S, NH or NCH 3; Y 1 is independently selected from N or CH; X is independently selected from CH 2, O, NH or NCH 3; and Y is independently selected from CH 2, O, NH or NCH 3; or an isotopic form, a stereoisomer, a tautomer or a pharmaceutically acceptable salt thereof. R 1 is -(C 6-10)-aryl or -(C 5-10)-heteroaryl; each of which is optionally substituted with one or more substituents selected from halogen, -OH, -O-(C 1-6)-alkyl, -S-(C 1-6)-alkyl, -N(CH 3) 2, -(C 1-6)-alkyl, -(C 3-6)-cycloalkyl, halo(C 1-6)-alkyl, -NH 2, -CN and R 1a; R 1a is -(C 6-10)-aryl or -(C 5-10)-heteroaryl; each of which is optionally substituted with one or more substituents selected from the group consisting of halogen, -OH, -NH 2, -CN, -O-(C 1-6)-alkyl, -S-(C 1-6)-alkyl, -(C 1-6)-alkyl and -(C 3-6)-cycloalkyl; A 1 is CH 2 or CHF; ring A is selected from the group consisting of: " " represents point of attachment; R 2 is hydrogen, -(C 1-6)-alkyl or -(C 3-6)-cycloalkyl; R 3 is hydrogen, halogen, -OH, -(C 1-6)-alkyl, -O-(C 1-6)-alkyl or halo(C 1-6)-alkyl; R 4 is hydrogen, -(C 1-6)-alkyl or halo(C 1-6)-alkyl; R 5 is hydrogen, -(C 1-6)-alkyl or halo(C 1-6)-alkyl; X 1 is independently selected from O, S, NH or NCH 3; Y 1 is independently selected from N or CH; X is independently selected from CH 2, O, NH or NCH 3; and Y is independently selected from CH 2, O, NH or NCH 3;
Refrigeration appliance comprising a refrigeration compartment, in which a shelf and a bottle holder are arranged, wherein the bottle holder is secured to the shelf and the bottle holder has a bottle support which is mounted in such a way that it can be moved between an operational position and a non-operational position, wherein the bottle support is rigidly connected to a guide section, wherein the guide section is guided in a guide of the bottle holder, characterised in that a control lever is assigned to the bottle holder to move the bottle support from a non-operational position to an operational position and/or vice versa.
A discontinuous reception method, comprising: starting, by a first apparatus, a first timer associated with a first sidelink hybrid automatic repeat request, HARQ, process in the first time unit after a HARQ feedback occasion of the first sidelink HARQ process; starting, by the first apparatus, a second timer associated with the first sidelink HARQ process after the expiry of the first timer, if a HARQ feedback of the first sidelink HARQ process is negative acknowledgement, NACK, wherein the HARQ feedback being NACK indicates that a first data associated with the first sidelink HARQ process is not successfully decoded by a second appratus; and monitoring, by the first apparatus, a physical downlink control channel, PDCCH, during running of the second timer, wherein a sidelink is established between the first apparatus and the second apparatus; the first sidelink HARQ process is used by the first apparatus for the first data transmission to the second apparatus; the HARQ feedback occasion is used by the first apparatus to send the HARQ feedback of the first sidelink HARQ process to a network device; the HARQ feedback is used to indicate whether the first data associated with the first sidelink HARQ process is successfully decoded by the second apparatus. starting, by a first apparatus, a first timer associated with a first sidelink hybrid automatic repeat request, HARQ, process in the first time unit after a HARQ feedback occasion of the first sidelink HARQ process; starting, by the first apparatus, a second timer associated with the first sidelink HARQ process after the expiry of the first timer, if a HARQ feedback of the first sidelink HARQ process is negative acknowledgement, NACK, wherein the HARQ feedback being NACK indicates that a first data associated with the first sidelink HARQ process is not successfully decoded by a second appratus; and monitoring, by the first apparatus, a physical downlink control channel, PDCCH, during running of the second timer, wherein a sidelink is established between the first apparatus and the second apparatus; the first sidelink HARQ process is used by the first apparatus for the first data transmission to the second apparatus; the HARQ feedback occasion is used by the first apparatus to send the HARQ feedback of the first sidelink HARQ process to a network device; the HARQ feedback is used to indicate whether the first data associated with the first sidelink HARQ process is successfully decoded by the second apparatus.
An apparatus for roll forming a pipe element, said apparatus comprising: an outer roller engageable with an outer surface of said pipe element, said outer roller comprising: a body rotatable about a first axis of rotation, said body having a perimeter region positioned radially distal to and surrounding said first axis, said perimeter region comprising: a first face oriented transversely to said first axis; a second face, contiguous with said first face; a third face, contiguous with said second face and oriented transversely to said first axis; said apparatus further comprising: an inner roller engageable with an inner surface of said pipe element, said inner roller being rotatable about a second axis of rotation oriented substantially parallel to said first axis; an actuator for moving said inner and outer rollers (42, 44) toward and away from one another; and a motor motor for rotating one of said inner and outer rollers (42, 44), characterised in that a channel is positioned in said third face of the outer roller extending around said perimeter region. a first face oriented transversely to said first axis; a second face, contiguous with said first face; a third face, contiguous with said second face and oriented transversely to said first axis; said apparatus further comprising: an inner roller engageable with an inner surface of said pipe element, said inner roller being rotatable about a second axis of rotation oriented substantially parallel to said first axis; an actuator for moving said inner and outer rollers (42, 44) toward and away from one another; and a motor motor for rotating one of said inner and outer rollers (42, 44), characterised in that a channel is positioned in said third face of the outer roller extending around said perimeter region. an inner roller engageable with an inner surface of said pipe element, said inner roller being rotatable about a second axis of rotation oriented substantially parallel to said first axis; an actuator for moving said inner and outer rollers (42, 44) toward and away from one another; and a motor motor for rotating one of said inner and outer rollers (42, 44), characterised in that a channel is positioned in said third face of the outer roller extending around said perimeter region.
A nosecone component for a gas turbine engine, the component comprising: at least one injection moulded polymeric substrate forming the nosecone component and having at least one exposed surface; and at least one metallic plating layer deposited on the at least one exposed surface of the at least one polymeric substrate, wherein the at least one polymeric substrate is formed into one of an attachment ring, a spinner and a unitary forward cone having a plurality of circumferential ribs and a plurality of axial ribs. at least one injection moulded polymeric substrate forming the nosecone component and having at least one exposed surface; and at least one metallic plating layer deposited on the at least one exposed surface of the at least one polymeric substrate, wherein the at least one polymeric substrate is formed into one of an attachment ring, a spinner and a unitary forward cone having a plurality of circumferential ribs and a plurality of axial ribs.
A chicken feed comprising a composition which comprises a) at least one first bacteria strain, which is selected from the bacterial phylum Firmicutes; b) at least one second bacteria strain, which is selected from the bacterial phylum Bacteroidetes; and c) at least one further bacteria strain, which is selected from the bacterial phylum Actinobacteria; characterized in that the at least one first bacteria strain is selected from the group of bacteria species Anaerotignum lactatifermentans and Ligilactobacillus salivarius. a) at least one first bacteria strain, which is selected from the bacterial phylum Firmicutes; b) at least one second bacteria strain, which is selected from the bacterial phylum Bacteroidetes; and c) at least one further bacteria strain, which is selected from the bacterial phylum Actinobacteria;
A device for non-destruction eddy current inspection of a hole formed in a conductive part, the device being of the type suitable for exploring said hole by broaching without rotation, comprising a stick shaped and dimensioned to be capable of being engaged in said hole, and comprising: · at least one hinged arm in the vicinity of one end of said stick and including a curved outside face; · an eddy current sensor embedded in said arm in the vicinity of said curved outside face; and · resilient means for urging said hinged arm outwards, the arrangement being such that said hinged arm is in sliding contact with the inside surface of the hole, said sliding contact taking place in the vicinity of the curved outside face of said sensor, characterized in that said stick carries at least two of said hinged arms, in opposition. · at least one hinged arm in the vicinity of one end of said stick and including a curved outside face; · an eddy current sensor embedded in said arm in the vicinity of said curved outside face; and · resilient means for urging said hinged arm outwards, the arrangement being such that said hinged arm is in sliding contact with the inside surface of the hole, said sliding contact taking place in the vicinity of the curved outside face of said sensor,
A bioreactor vessel comprising: a bioreactor bag wall having an interior side and an exterior side and an aperture extending from the interior side to the exterior side, wherein the interior side is configured to contact and house a reaction mixture; a port mounted proximate the aperture, the port including a flange fixedly attached to the bioreactor bag, such that a fluidic seal is maintained along a circumference of the flange; and a plurality of sensors (126, 128) disposed within the corresponding inlets (226, 228) of the port, the inlets (226, 228) comprising one-way valves configured to allow insertion of the corresponding sensor (126, 128) without allowing fluid from the bag to contact the outside of the bag. a bioreactor bag wall having an interior side and an exterior side and an aperture extending from the interior side to the exterior side, wherein the interior side is configured to contact and house a reaction mixture; a port mounted proximate the aperture, the port including a flange fixedly attached to the bioreactor bag, such that a fluidic seal is maintained along a circumference of the flange; and a plurality of sensors (126, 128) disposed within the corresponding inlets (226, 228) of the port, the inlets (226, 228) comprising one-way valves configured to allow insertion of the corresponding sensor (126, 128) without allowing fluid from the bag to contact the outside of the bag.
An image generation apparatus comprising a computation processing section that is configured to generate an ultrasonic image from a received signal associated with each scanning in which an ultrasonic wave is transmitted and received, characterized in that the computation processing section is further configured to: set, for each scanning, a scan line selection range over which the received signal is received, wherein the scan line selection range is set on the basis of a main lobe of the ultrasonic wave so as to include scan lines falling within the main lobe of the ultrasonic wave, calculate weights based on the received signals within the scan line selection range, wherein the weights are to be used in a beamforming process, and to carry out the beamforming process based on the weights to generate an image associated with the scanning. set, for each scanning, a scan line selection range over which the received signal is received, wherein the scan line selection range is set on the basis of a main lobe of the ultrasonic wave so as to include scan lines falling within the main lobe of the ultrasonic wave, calculate weights based on the received signals within the scan line selection range, wherein the weights are to be used in a beamforming process, and to carry out the beamforming process based on the weights to generate an image associated with the scanning.
Method for the manufacturing of a multi-stage polymer by the following steps: a) polymerizing monomer mixture comprising a-i) vinyl acetate and a-ii) at least one vinyl ester of an aromatic carboxylic acid via free radical emulsion polymerization to obtain copolymer; and b) polymerizing monomer mixture comprising b-i) vinyl acetate and b-ii) at least one vinyl ester of aliphatic branched or unbranched carboxylic acids having at least 3 carbon atoms, via free radical emulsion polymerization in the presence of copolymer to obtain the multi-stage polymer with the proviso that said monomer mixture can also be polymerized first to obtain a copolymer and subsequently monomer mixture is polymerized in the presence copolymer to obtain the multi-stage polymer. a) polymerizing monomer mixture comprising a-i) vinyl acetate and a-ii) at least one vinyl ester of an aromatic carboxylic acid via free radical emulsion polymerization to obtain copolymer; and a-i) vinyl acetate and a-ii) at least one vinyl ester of an aromatic carboxylic acid via free radical emulsion polymerization to obtain copolymer; and b) polymerizing monomer mixture comprising b-i) vinyl acetate and b-ii) at least one vinyl ester of aliphatic branched or unbranched carboxylic acids having at least 3 carbon atoms, via free radical emulsion polymerization in the presence of copolymer to obtain the multi-stage polymer with the proviso that said monomer mixture can also be polymerized first to obtain a copolymer and subsequently monomer mixture is polymerized in the presence copolymer to obtain the multi-stage polymer. b-i) vinyl acetate and b-ii) at least one vinyl ester of aliphatic branched or unbranched carboxylic acids having at least 3 carbon atoms, via free radical emulsion polymerization in the presence of copolymer to obtain the multi-stage polymer with the proviso that said monomer mixture can also be polymerized first to obtain a copolymer and subsequently monomer mixture is polymerized in the presence copolymer to obtain the multi-stage polymer.
An electronic device comprising: a basic member disposed on an outside of the electronic device; at least a portion of a periphery of the basic member formed in a curved shape; a glass film; a reinforcement film, wherein the reinforcement film is interposed between the glass film and the basic member, and wherein the glass film and the reinforcement film have been laminated together prior to being at least partially laminated, by at least one of a roll laminating method and a pressing method, to the outer surface of the basic member, and wherein a curved shape of the glass film and the curved shape of the basic member correspond to each other. a basic member disposed on an outside of the electronic device; at least a portion of a periphery of the basic member formed in a curved shape; a glass film; a reinforcement film, wherein the reinforcement film is interposed between the glass film and the basic member, and wherein the glass film and the reinforcement film have been laminated together prior to being at least partially laminated, by at least one of a roll laminating method and a pressing method, to the outer surface of the basic member, and wherein a curved shape of the glass film and the curved shape of the basic member correspond to each other.