mhurhangee/ep-ind-claims huggingface dataset:
A fluid separation assembly comprising: a hollow fiber bundle comprising a plurality of hollow fiber membranes; a first tubesheet and a second tubesheet encapsulating respective ends of the hollow fiber bundle, wherein the first tubesheet includes a first end, a second end, a body portion between the first end and the second end, and a plurality of radial through openings, the plurality of radial through openings being formed in the first tubesheet around a circumference of the first tubesheet and into the body portion of the first tubesheet such that the plurality of radial through openings intersect each of the plurality of hollow fiber membranes, and wherein the first tubesheet further comprises a manifold, the manifold being a space or open portion in the body portion of the first tubesheet and around the circumference of the first tubesheet, wherein the manifold is configured to contain a fluid that flows into and out of the plurality of radial through openings at a positive pressure; and a housing surrounding the hollow fiber bundle and the first and second tubesheets, the housing having a feed inlet port for introduction of feed gas, a permeate outlet port for removal of permeate gas, and a non-permeate outlet port for removal of non-permeate gas; wherein the feed inlet port is in flow communication with the radial through openings on the first tubesheet, so that the feed gas can flow into the intersected hollow fiber membranes. a hollow fiber bundle comprising a plurality of hollow fiber membranes; a first tubesheet and a second tubesheet encapsulating respective ends of the hollow fiber bundle, wherein the first tubesheet includes a first end, a second end, a body portion between the first end and the second end, and a plurality of radial through openings, the plurality of radial through openings being formed in the first tubesheet around a circumference of the first tubesheet and into the body portion of the first tubesheet such that the plurality of radial through openings intersect each of the plurality of hollow fiber membranes, and wherein the first tubesheet further comprises a manifold, the manifold being a space or open portion in the body portion of the first tubesheet and around the circumference of the first tubesheet, wherein the manifold is configured to contain a fluid that flows into and out of the plurality of radial through openings at a positive pressure; and a housing surrounding the hollow fiber bundle and the first and second tubesheets, the housing having a feed inlet port for introduction of feed gas, a permeate outlet port for removal of permeate gas, and a non-permeate outlet port for removal of non-permeate gas; wherein the feed inlet port is in flow communication with the radial through openings on the first tubesheet, so that the feed gas can flow into the intersected hollow fiber membranes.
A marine harness comprising a tow attachment, the tow attachment being such that a person wearing the harness can be towed along by way of attaching a tow line to the attachment, and the tow attachment comprising an extension arranged to extend rearwardly of the harness, wherein the tow attachment is detachably connected in a stowed condition to the harness, such as to allow the wearer to manually detach the attachment into a deployable condition, and the tow attachment fixedly attached to a rearward portion of the harness, and the tow attachment being in the form of a bridle, and the harness further comprises a positive buoyancy arrangement capable of maintaining a wearer afloat, wherein the harness also comprises a crotch strap arranged to provide a connection between a user's legs from a front portion of the harness to a rearward portion of the harness.
Machinery for the machining of ceramic articles or the like, having a support frame and at least a machining device associated with said support frame and comprising: - at least a motor element associated with said support frame; at least a tool which can be operated in rotation around a respective axis for the machining of ceramic articles; a shaft connected to said motor element and supporting said tool in rotation; - a body for containing said shaft; cooling means (18, 19, 22, 23) of said tool; characterized by the fact that said cooling means (18, 19, 22, 23) comprise: at least a gap, interposed between said body and said shaft and intended to contain cooling air, said gap having an inlet opening and an outlet opening for the cooling air and said cooling means (18, 19, 22, 23) comprising a tubular element associated with said outlet opening and able to convey the cooling air towards said tool. - at least a motor element associated with said support frame; at least a tool which can be operated in rotation around a respective axis for the machining of ceramic articles; a shaft connected to said motor element and supporting said tool in rotation; - a body for containing said shaft; cooling means (18, 19, 22, 23) of said tool; characterized by the fact that said cooling means (18, 19, 22, 23) comprise: at least a gap, interposed between said body and said shaft and intended to contain cooling air, said gap having an inlet opening and an outlet opening for the cooling air and said cooling means (18, 19, 22, 23) comprising a tubular element associated with said outlet opening and able to convey the cooling air towards said tool. at least a gap, interposed between said body and said shaft and intended to contain cooling air, said gap having an inlet opening and an outlet opening for the cooling air and said cooling means (18, 19, 22, 23) comprising a tubular element associated with said outlet opening and able to convey the cooling air towards said tool.
A method of protecting a modular exponentiation calculation on a first number and an exponent (d), modulo a first modulo, executed by an electronic circuit using a first register or memory location and a second register or memory location, successively comprising, for each bit of the exponent (d): drawing a random number (r i); performing a modular multiplication (36, 36') of the content of the first register or memory location by that of the second register or memory location, and placing the result in one of the first and second registers or memory locations selected according to the state of the bit of the exponent; performing a modular squaring (37, 37') of the content of one of the first and second registers or memory locations selected according to the state of the exponent, and placing the result in this selected register or memory location, the multiplication and squaring operations being performed modulo the product of the first modulo by said random number. drawing a random number (r i); performing a modular multiplication (36, 36') of the content of the first register or memory location by that of the second register or memory location, and placing the result in one of the first and second registers or memory locations selected according to the state of the bit of the exponent; performing a modular squaring (37, 37') of the content of one of the first and second registers or memory locations selected according to the state of the exponent, and placing the result in this selected register or memory location, the multiplication and squaring operations being performed modulo the product of the first modulo by said random number.
A method in a user equipment, UE, for transmission of a non-orthogonal multiple access, NoMA, signal, the method comprising: obtaining information bits; and transmitting the NoMA signal in an uplink direction from the UE, to a network receiver, wherein the NoMA signal comprises one or more layers, the NoMA signal is generated according to the information bits and according to a set of signal processing operations selected from a plurality of signal processing operations, wherein the set of signal processing operations comprises a layer-specific signal processing operation and a user equipment, UE-specific signal processing operation that each perform at least one of: a) bit-level interleaving; b) bit-level scrambling; c) symbol level spreading; d) symbol level interleaving; e) symbol-to-transmission unit mapping; f) modulated symbol sequence generating; g) symbol to resource element, RE, mapping; h symbol sequence pre-coding; and i) waveform modulation, and the UE makes a decision of which of the plurality of signal processing operations to select without input from a network. obtaining information bits; and transmitting the NoMA signal in an uplink direction from the UE, to a network receiver, wherein the NoMA signal comprises one or more layers, the NoMA signal is generated according to the information bits and according to a set of signal processing operations selected from a plurality of signal processing operations, wherein the set of signal processing operations comprises a layer-specific signal processing operation and a user equipment, UE-specific signal processing operation that each perform at least one of: a) bit-level interleaving; b) bit-level scrambling; c) symbol level spreading; d) symbol level interleaving; e) symbol-to-transmission unit mapping; f) modulated symbol sequence generating; g) symbol to resource element, RE, mapping; h symbol sequence pre-coding; and i) waveform modulation, and a) bit-level interleaving; b) bit-level scrambling; c) symbol level spreading; d) symbol level interleaving; e) symbol-to-transmission unit mapping; f) modulated symbol sequence generating; g) symbol to resource element, RE, mapping; h symbol sequence pre-coding; and i) waveform modulation, and the UE makes a decision of which of the plurality of signal processing operations to select without input from a network.
A power storage module comprising: a stack in which a plurality of power storage cells are stacked; a resin plate placed on the stack; a flexible printed circuit board placed on the resin plate and having an electric circuit electrically connected to the plurality of power storage cells; a thermistor element provided on the electric circuit and in contact with one power storage cell of the plurality of power storage cells to detect a temperature of the power storage cell; a cover member provided on the resin plate to cover the flexible printed circuit board, the cover member being composed of a resin; and an elastic body located between the cover member and the thermistor element to press the thermistor element toward the power storage cell, characterized in that the cover member includes: a main body, a protuberance that protrudes toward the resin plate side, wherein the elastic body is disposed on the protuberance, and an opening/closing window that is provided adjacent to the protuberance to open and close an opening formed at a corner portion of the main body, allowing surroundings of the elastic body to be visually recognizable from the outside of the cover member, wherein a contact state between the elastic body and the thermistor element is visually recognizable with the opening/closing window being opened. a stack in which a plurality of power storage cells are stacked; a resin plate placed on the stack; a flexible printed circuit board placed on the resin plate and having an electric circuit electrically connected to the plurality of power storage cells; a thermistor element provided on the electric circuit and in contact with one power storage cell of the plurality of power storage cells to detect a temperature of the power storage cell; a cover member provided on the resin plate to cover the flexible printed circuit board, the cover member being composed of a resin; and an elastic body located between the cover member and the thermistor element to press the thermistor element toward the power storage cell, characterized in that the cover member includes: a main body, a protuberance that protrudes toward the resin plate side, wherein the elastic body is disposed on the protuberance, and an opening/closing window that is provided adjacent to the protuberance to open and close an opening formed at a corner portion of the main body, allowing surroundings of the elastic body to be visually recognizable from the outside of the cover member, wherein a main body, a protuberance that protrudes toward the resin plate side, wherein the elastic body is disposed on the protuberance, and an opening/closing window that is provided adjacent to the protuberance to open and close an opening formed at a corner portion of the main body, allowing surroundings of the elastic body to be visually recognizable from the outside of the cover member, wherein a contact state between the elastic body and the thermistor element is visually recognizable with the opening/closing window being opened.
A device (1, 10) indicating the load of a motor vehicle characterized in that it includes: - a means of determining the relative position of a mobile point (M1, M 2) of an antiroll bar (2, 12), with respect to a point of reference (F1, F2) on a motor vehicle, the said mobile point (M1, M2) being arranged in the middle area of the antiroll bar (2, 12); - A control unit (4, 14), capable of generating a sensorial signal according to the said relative position. - a means of determining the relative position of a mobile point (M1, M 2) of an antiroll bar (2, 12), with respect to a point of reference (F1, F2) on a motor vehicle, the said mobile point (M1, M2) being arranged in the middle area of the antiroll bar (2, 12); - A control unit (4, 14), capable of generating a sensorial signal according to the said relative position.
A method for analyzing a build layer (1; 11) in an additive manufacturing machine when forming a three-dimensional article layer by layer by successive fusion of selected areas of powder layers, which selected areas correspond to successive layers of the three-dimensional article, the method comprising the steps of: radiating, before, after or in between melting operations, a portion (4; 14) of the build layer (1; 11) by an energy beam, detecting particles emitted, backscattered or reflected from the radiated portion of the build layer, characterized by scanning the portion (4; 14) of the build layer by moving the energy beam along a main path (5; 15) and simultaneously moving the energy beam back-and-forth across the main path in a meandering pattern (6; 16) having alternating peaks and valleys, such that a distance in a direction orthogonal to the direction of the main path between a peak and a subsequent valley of the meandering pattern is y, where 1<y<100 mm, and a distance in parallel with the direction of the main path between two consecutive peaks of the meandering pattern is x, where 2<x<1000 μm, wherein the moving of the energy beam occurs in a continuous meandering pattern (6; 16). radiating, before, after or in between melting operations, a portion (4; 14) of the build layer (1; 11) by an energy beam, detecting particles emitted, backscattered or reflected from the radiated portion of the build layer, characterized by scanning the portion (4; 14) of the build layer by moving the energy beam along a main path (5; 15) and simultaneously moving the energy beam back-and-forth across the main path in a meandering pattern (6; 16) having alternating peaks and valleys, such that a distance in a direction orthogonal to the direction of the main path between a peak and a subsequent valley of the meandering pattern is y, where 1<y<100 mm, and a distance in parallel with the direction of the main path between two consecutive peaks of the meandering pattern is x, where 2<x<1000 μm, wherein the moving of the energy beam occurs in a continuous meandering pattern (6; 16).
An electronic device comprising: a volatile memory for storing application-generated data associated with an application operating in a pre-hibernation state; a non-volatile memory ("NVM") comprisinga plurality of pages; characterised in that the electronic device further comprises a control circuitry operative to receive an indication that the application operating in the pre-hibernation state is entering a hibernation state; and store the application-generated data associated with the application entering the hibernation state as non-volatile, NV, temporary data in the non-volatile memory, wherein the control circuitry stores a temporary marker in at least one of the pages in which the NV temporary data is stored, wherein the NV temporary data comprises data that is no longer useful once the electronic device is shut down or rebooted and wherein the application-generated data comprises data that enables the application to return from the hibernation state back to the pre-hibernation state. a volatile memory for storing application-generated data associated with an application operating in a pre-hibernation state; a non-volatile memory ("NVM") comprisinga plurality of pages; characterised in that the electronic device further comprises a control circuitry operative to receive an indication that the application operating in the pre-hibernation state is entering a hibernation state; and store the application-generated data associated with the application entering the hibernation state as non-volatile, NV, temporary data in the non-volatile memory, wherein the control circuitry stores a temporary marker in at least one of the pages in which the NV temporary data is stored, wherein the NV temporary data comprises data that is no longer useful once the electronic device is shut down or rebooted and wherein the application-generated data comprises data that enables the application to return from the hibernation state back to the pre-hibernation state. receive an indication that the application operating in the pre-hibernation state is entering a hibernation state; and store the application-generated data associated with the application entering the hibernation state as non-volatile, NV, temporary data in the non-volatile memory, wherein the control circuitry stores a temporary marker in at least one of the pages in which the NV temporary data is stored, wherein the NV temporary data comprises data that is no longer useful once the electronic device is shut down or rebooted and wherein the application-generated data comprises data that enables the application to return from the hibernation state back to the pre-hibernation state.
A terminal comprising: a receiving section configured to receive a system information including first information regarding a PUCCH resource, and to receive a downlink control information including second information regarding a PUCCH resource; and a control section configured to control a transmission of uplink control information based on the first information regarding the PUCCH resource and the second information regarding the PUCCH resource, wherein the first information regarding the PUCCH resource is configured commonly with terminals, and the second information regarding the PUCCH resource is configured individually for each of the terminals, and the first information regarding the PUCCH resource comprises information that indicates information regarding frequency hopping, and information that indicates a cyclic shift index. a receiving section configured to receive a system information including first information regarding a PUCCH resource, and to receive a downlink control information including second information regarding a PUCCH resource; and a control section configured to control a transmission of uplink control information based on the first information regarding the PUCCH resource and the second information regarding the PUCCH resource, wherein the first information regarding the PUCCH resource is configured commonly with terminals, and the second information regarding the PUCCH resource is configured individually for each of the terminals, and the first information regarding the PUCCH resource comprises information that indicates information regarding frequency hopping, and information that indicates a cyclic shift index.
A synthetic scaffold for use in a tubular gastrointestinal organ during regeneration of gastrointestinal tissue, the synthetic scaffold comprising: a body section, the body section having a first end and a second end opposed to the first end, the body section further having a least one portion configured as a tubular member, the body section comprising an outwardly oriented surface, the outwardly oriented surface having at least one region composed of spun polymeric fibers, the spun polymeric fibers having an average fiber diameter between 15 nm and 10 μm (microns), at least a portion of the spun polymeric fibers interlinked to form pores having an average diameter less than 50 μm (microns), wherein the first end and second end are configured to contact respective resected ends of the tubular organ; and at least one sheath layer, the sheath layer composed of cellular material, the cellular material composed of at least one of mesenchymal cells, stem cells, pluripotent cells present in a defined layer, the defined layer being between 1 and 100 cells thick, wherein the sheath layer is configured to interact with regenerating gastrointestinal tissue and characterised in that the synthetic scaffold removably connectable to resected ends of the tubular tissue, and wherein the synthetic scaffold is configured to be intrascopically removable upon gastrointestinal tissue regeneration.
An antenna system for a radio-frequency identification RFID tag, comprising: an integrated circuit IC, an antenna substrate having a proximal end a distal end; first and second serpentine antenna elements (22A, 22B) each supported by the antenna substrate and each having a proximal and a distal end (22AP, 22BP, 22AD, 2BD); first and second feed points (32A, 32B) arranged at the antenna substrate proximal end and connected to the respective proximal ends (22AP, 22BP) of the first and second serpentine antenna elements (22A, 22B) so as to provide an electrical connection to the IC, which is arranged adjacent the antenna substrate proximal end; and a shunt electrically connected to the first and second serpentine antenna elements (22A, 22B) near the antenna feed points (32A, 32B), the shunt configured to facilitate impedance matching between the antenna system and the IC. characterized by a conducting wire electrically connected to at least one of the serpentine antenna elements (22A, 22B) near the corresponding antenna feed point (32A, 32B), the conducting wire running in the same direction as the serpentine antenna elements (22A, 22B) and configured to facilitate impedance-matching and current flow between the antenna system and the IC. an integrated circuit IC, an antenna substrate having a proximal end a distal end; first and second serpentine antenna elements (22A, 22B) each supported by the antenna substrate and each having a proximal and a distal end (22AP, 22BP, 22AD, 2BD); first and second feed points (32A, 32B) arranged at the antenna substrate proximal end and connected to the respective proximal ends (22AP, 22BP) of the first and second serpentine antenna elements (22A, 22B) so as to provide an electrical connection to the IC, which is arranged adjacent the antenna substrate proximal end; and a shunt electrically connected to the first and second serpentine antenna elements (22A, 22B) near the antenna feed points (32A, 32B), the shunt configured to facilitate impedance matching between the antenna system and the IC. characterized by a conducting wire electrically connected to at least one of the serpentine antenna elements (22A, 22B) near the corresponding antenna feed point (32A, 32B), the conducting wire running in the same direction as the serpentine antenna elements (22A, 22B) and configured to facilitate impedance-matching and current flow between the antenna system and the IC.