mhurhangee/patent-ind-claim-en huggingface dataset:
A staple cartridge assembly for use with a surgical stapling instrument, wherein the staple cartridge assembly comprises: a staple cartridge , comprising: a plurality of staples ; and a cartridge deck defining a proximal end and a distal end; and a compressible adjunct , wherein the compressible adjunct comprises: a first biocompatible layer positionable against the cartridge deck; and a second biocompatible layer positionable against tissue and spaced apart from the first biocompatible layer , wherein at least one of the biocompatible layers comprises: a first fiber loop that defines a first pair of standing fibers extending from that biocompatible layer toward the other biocompatible layer ; and a second fiber loop proximal to the first fiber loop and that defines a second pair of standing fibers extending from the same biocompatible layer toward the other biocompatible layer , wherein the first pair of standing fibers passes through the second fiber loop . a plurality of staples ; and a cartridge deck defining a proximal end and a distal end; and a compressible adjunct , wherein the compressible adjunct comprises: a first biocompatible layer positionable against the cartridge deck; and a second biocompatible layer positionable against tissue and spaced apart from the first biocompatible layer , wherein at least one of the biocompatible layers comprises: a first fiber loop that defines a first pair of standing fibers extending from that biocompatible layer toward the other biocompatible layer ; and a second fiber loop proximal to the first fiber loop and that defines a second pair of standing fibers extending from the same biocompatible layer toward the other biocompatible layer , wherein the first pair of standing fibers passes through the second fiber loop . a first biocompatible layer positionable against the cartridge deck; and a second biocompatible layer positionable against tissue and spaced apart from the first biocompatible layer , wherein at least one of the biocompatible layers comprises: a first fiber loop that defines a first pair of standing fibers extending from that biocompatible layer toward the other biocompatible layer ; and a second fiber loop proximal to the first fiber loop and that defines a second pair of standing fibers extending from the same biocompatible layer toward the other biocompatible layer , wherein the first pair of standing fibers passes through the second fiber loop . a first fiber loop that defines a first pair of standing fibers extending from that biocompatible layer toward the other biocompatible layer ; and a second fiber loop proximal to the first fiber loop and that defines a second pair of standing fibers extending from the same biocompatible layer toward the other biocompatible layer , wherein the first pair of standing fibers passes through the second fiber loop .
An aircraft landing gear component comprising a first base member and a second base member separated along a first longitudinal axis (L), characterized in that it comprises: a plurality of first parallel hoops , each first hoop lying along the first longitudinal axis (L) and aligned in a plane oriented at a first non-zero angle to the first longitudinal axis (L), and a plurality of second parallel hoops , each second hoop lying along the first longitudinal axis (L) and aligned in a plane oriented at a second non-zero angle to the first longitudinal axis (L), the second non-zero angle being different from the first non-zero angle, wherein each of the first hoops intersects with and is fixed to at least one of the second hoops , and wherein each of the second hoops intersects with and is fixed to at least one of the first hoops such that the first and second hoops form a rigid structure extending between the first and second base members .
A closure device comprising a lower rail , wherein it further comprises: a lower pivot , fastened to the lower rail , the lower pivot in turn comprising a selective retention element and a guide element that comprises a lower longitudinal passage slot with a width and lower rotation space with a circular shape through which the lower longitudinal passage slot passes, the lower rotation space having a diameter; a fixed door , and a sliding door ; wherein the sliding door , in turn, comprises a lower fitting , which, in turn, comprises a lower circular protrusion suitable for being retained by the selective retention element , wherein the selective retention element of the lower pivot comprises a surface and a cavity comprised on said surface , said cavity being open such that it is accessible in a sliding direction (X), the sliding direction being the longitudinal direction along which the lower rail is extended, therefore being suitable for allowing the entry of the lower protrusion , and said cavity comprising retention means suitable for retaining the lower protrusion when it is located in said cavity ; and wherein the cavity has a size equal to or smaller than the width of the longitudinal passage slot . a lower pivot , fastened to the lower rail , the lower pivot in turn comprising a selective retention element and a guide element that comprises a lower longitudinal passage slot with a width and lower rotation space with a circular shape through which the lower longitudinal passage slot passes, the lower rotation space having a diameter; a fixed door , and a sliding door ; a lower fitting , which, in turn, comprises a lower circular protrusion suitable for being retained by the selective retention element , wherein the selective retention element of the lower pivot comprises a surface and a cavity comprised on said surface , said cavity being open such that it is accessible in a sliding direction (X), the sliding direction being the longitudinal direction along which the lower rail is extended, therefore being suitable for allowing the entry of the lower protrusion , and said cavity comprising retention means suitable for retaining the lower protrusion when it is located in said cavity ; and wherein the cavity has a size equal to or smaller than the width of the longitudinal passage slot .
A counter-flow heat exchanger defining a centerline , the counter-flow heat exchanger comprising: a first fluid path , wherein the first fluid path comprises a first supply tube connected to a first transition area separating the first fluid path into a first array of first passageways , and wherein the first array of first passageways merge at a first converging area into a first discharge tube ; and a second fluid path , wherein the second fluid path comprises a second supply tube connected to a second transition area separating the second fluid path into a second array of second passageways , and wherein the second array of second passageways merge at a second converging area into a second discharge tube , wherein the first passageways and the second passageways have a substantially helical path around the centerline of the counter-flow heat exchanger , and wherein the first array and the second array are arranged together such that each first passageway is adjacent to at least one second passageway , characterized in that the first passageways and the second passageways alternate moving outwardly in the radial direction from the centerline , wherein each first passageway is separated from an adjacent second passageway by a dividing wall , wherein the dividing wall has a first surface that defines a side surface of the first passageway and a second surface that defines a side surface of the second passageway , wherein the first fluid path and the second fluid path and an outer wall encasing are additively manufactured as a single, integrated component. a first fluid path , wherein the first fluid path comprises a first supply tube connected to a first transition area separating the first fluid path into a first array of first passageways , and wherein the first array of first passageways merge at a first converging area into a first discharge tube ; and a second fluid path , wherein the second fluid path comprises a second supply tube connected to a second transition area separating the second fluid path into a second array of second passageways , and wherein the second array of second passageways merge at a second converging area into a second discharge tube , wherein the first passageways and the second passageways have a substantially helical path around the centerline of the counter-flow heat exchanger , and wherein the first array and the second array are arranged together such that each first passageway is adjacent to at least one second passageway , characterized in that the first passageways and the second passageways alternate moving outwardly in the radial direction from the centerline , wherein each first passageway is separated from an adjacent second passageway by a dividing wall , wherein the dividing wall has a first surface that defines a side surface of the first passageway and a second surface that defines a side surface of the second passageway , wherein the first fluid path and the second fluid path and an outer wall encasing are additively manufactured as a single, integrated component.
A wearable device for administering medication to a subject, comprising: - a tube comprising a medication administration end and an activation end, the tube defining a lumen between the medication administration end and the activation end ; - a medication administration assembly attached to the medication administration end ; - an activation assembly attached to the activation end ; - a syringe disposed within the lumen, wherein the syringe contains the medication and comprises a first end and an opposite second end; - a plunger disposed within the lumen and operatively connected to the first end of the syringe ; and - a rupturable seal provided to the second end of the syringe , the second end of the syringe being approximate to the medication administration end , wherein the activation assembly is configured to activate the plunger and break the rupturable seal , such that a fluid communication is established between the second end of the syringe and the medication administration assembly to allow transportation of the medication from the syringe to the medication administration assembly through the medication administration end , characterized in that the tube is a flexible tube ; and the medication administration end and the activation end of the flexible tube are configured to operatively approach each other to form a partial loop of the flexible tube . - a tube comprising a medication administration end and an activation end, the tube defining a lumen between the medication administration end and the activation end ; - a medication administration assembly attached to the medication administration end ; - an activation assembly attached to the activation end ; - a syringe disposed within the lumen, wherein the syringe contains the medication and comprises a first end and an opposite second end; - a plunger disposed within the lumen and operatively connected to the first end of the syringe ; and - a rupturable seal provided to the second end of the syringe , the second end of the syringe being approximate to the medication administration end ,
Internal combustion engine , notably for a motor vehicle, comprising at least one partial low-pressure exhaust gas recirculation circuit and a device for regulating the air consumption of the engine with a first calculator of a first fresh air flow-rate setpoint value (Q air_cons1 ) of the engine, characterized in that the regulation device further comprises a second fresh air flow-rate setpoint calculator configured to generate, from a temperature value (T EGR_BP ) measured by a temperature sensor arranged on a low-pressure exhaust gas recirculation line and from the first fresh air flow-rate setpoint (Q air_cons1 ), a corrected value (Q air_cons2 ) of the fresh air flow-rate setpoint and in that it comprises a comparator capable of delivering an uprated fresh air flow-rate setpoint value corresponding to the highest value out of the first fresh air flow-rate setpoint (Q air_cons1 ) and the corrected fresh air flow-rate setpoint value (Q air_cons2 ), the regulation device comprising a second regulator configured to calculate, from the uprated fresh air flow-rate setpoint value (Q cons ), a position setpoint (β BP , γ echap ) of at least one gas flow-rate regulation device of the gas circuit of the engine.
A microcapsule comprising: a shell that has a three-dimensional cross-linked structure containing a hydrophilic group and Structure , wherein the hydrophilic group is selected from an anionic group or a nonionic group; and a core that is in the interior of the shell, wherein at least one of the shell or the core has a polymerizable group, wherein the polymerizable group is a thermally polymerizable group selected from an epoxy group, an oxetanyl group, an aziridinyl group, an azetidinyl group, a ketone group, an aldehyde group, or a blocked isocyanate group, in Structure , X represents a (p + m + n)-valent organic group formed by linking at least two groups selected from -NH-, >N-, -C(=O)-, -O-, -S-, and an aliphatic hydrocarbon group which may have a ring structure, provided that an organic group having an aromatic ring is excluded from the organic group represented by X, in Structure , R 1 , R 2 , and R 3 each independently represent an aliphatic hydrocarbon group having 5 to 15 carbon atoms which may have a ring structure, provided that an aliphatic hydrocarbon group having an aromatic ring is excluded from the aliphatic hydrocarbon group represented by R 1 , R 2 , and R 3 , and in Structure , * represents a binding position, each of p, m, and n is equal to or greater than 0, and p + m + n equals 3 or greater. a shell that has a three-dimensional cross-linked structure containing a hydrophilic group and Structure , wherein the hydrophilic group is selected from an anionic group or a nonionic group; and a core that is in the interior of the shell, wherein at least one of the shell or the core has a polymerizable group, wherein the polymerizable group is a thermally polymerizable group selected from an epoxy group, an oxetanyl group, an aziridinyl group, an azetidinyl group, a ketone group, an aldehyde group, or a blocked isocyanate group, in Structure , X represents a (p + m + n)-valent organic group formed by linking at least two groups selected from -NH-, >N-, -C(=O)-, -O-, -S-, and an aliphatic hydrocarbon group which may have a ring structure, provided that an organic group having an aromatic ring is excluded from the organic group represented by X, in Structure , R 1 , R 2 , and R 3 each independently represent an aliphatic hydrocarbon group having 5 to 15 carbon atoms which may have a ring structure, provided that an aliphatic hydrocarbon group having an aromatic ring is excluded from the aliphatic hydrocarbon group represented by R 1 , R 2 , and R 3 , and in Structure , * represents a binding position, each of p, m, and n is equal to or greater than 0, and p + m + n equals 3 or greater.
A transmitter communication device for a device-to-device, D2D, communication network , the D2D communication network comprising a plurality of communication devices, including one or more receiver communication devices (103-1, 103-2) and a plurality of relay communication devices , the transmitter communication device comprising: a processor configured to: select a subset of relay communication devices from the plurality of relay communication devices for relaying a communication message to the one or more receiver communication devices (103-1, 103-2), and configure the subset of relay communication devices to relay the communication message using one of a plurality of relay modes, including a first relay mode and a second relay mode, wherein the first relay mode is an amplify and forward relay mode and the second relay mode is a decode and forward relay mode; and a communication interface configured to transmit the communication message to the one or more receiver communication devices (103-1, 103-2) via the subset of relay communication devices , wherein the plurality of relay modes comprises a third relay mode, wherein the third relay mode comprises a time-domain equalization and forwarding of the communication message, and wherein the processor is configured to configure the subset of relay communication devices to relay the communication message using one of the first relay mode, the second relay mode, and the third relay mode. select a subset of relay communication devices from the plurality of relay communication devices for relaying a communication message to the one or more receiver communication devices (103-1, 103-2), and configure the subset of relay communication devices to relay the communication message using one of a plurality of relay modes, including a first relay mode and a second relay mode, wherein the first relay mode is an amplify and forward relay mode and the second relay mode is a decode and forward relay mode; and a communication interface configured to transmit the communication message to the one or more receiver communication devices (103-1, 103-2) via the subset of relay communication devices , wherein the plurality of relay modes comprises a third relay mode, wherein the third relay mode comprises a time-domain equalization and forwarding of the communication message, and wherein the processor is configured to configure the subset of relay communication devices to relay the communication message using one of the first relay mode, the second relay mode, and the third relay mode.
A method of producing a tube of duplex stainless steel comprising the following composition, in weight%, C max 0.06; Cr 21-24.5; Ni 2.0-5.5; Si max 1.5; Mo 0.01-1.0 Cu 0.01-1.0; Mn max 2.0; N 0.05-0.3; P max 0.04; S max 0.03; and balance Fe and unavoidable impurities, and having a PRE-value of at least 23.0, wherein the method comprises the steps of: a) providing a melt of the duplex stainless steel; b) casting a body of the duplex stainless steel from the melt; c) forming a bar of the body; d) forming a tube of the bar by generating a hole therein; e) reducing the diameter and/or wall thickness of the tube by hot extrusion at a temperature in the range of from 1100°C to 1200°C and a cross-sectional area reduction in the range of from 92-98%.; f) further reducing the diameter and/or wall thickness of the tube by cold deformation by subjecting the tube to a cross sectional area reduction in the range of from 50-95%, and g) annealing the cold deformed tube; wherein after step g), the duplex stainless steel of the obtained tube consists of 40-60% austenite and 40-60% ferrite and wherein step g) comprises subjecting said tube to a temperature in the range of from 950°C-1060°C for a time period of from 0.3-10 minutes and to an atmosphere consisting of a gas mixture comprising 1-6 vol% nitrogen gas and the remainder is H 2 or an inert gas. a) providing a melt of the duplex stainless steel; b) casting a body of the duplex stainless steel from the melt; c) forming a bar of the body; d) forming a tube of the bar by generating a hole therein; e) reducing the diameter and/or wall thickness of the tube by hot extrusion at a temperature in the range of from 1100°C to 1200°C and a cross-sectional area reduction in the range of from 92-98%.; f) further reducing the diameter and/or wall thickness of the tube by cold deformation by subjecting the tube to a cross sectional area reduction in the range of from 50-95%, and g) annealing the cold deformed tube;
A steering shaft for a motor vehicle, comprising a hollow shaft in which an inner shaft is arranged telescopically coaxially in the axial direction, wherein at least one rolling body is held with form fit in the circumferential direction and able to roll in the axial direction in a rolling body holding element of a rolling body cage arranged between the inner shaft and the hollow shaft , which is arranged in the axial direction between radially projecting stop elements of the hollow shaft and radially projecting stop elements of the inner shaft , wherein the rolling body cage has end-face axial support surfaces which are oriented in the axial direction against the stop elements , wherein the rolling body cage has at least one transfer element extending axially between the support surfaces , characterized in that the transfer element is formed at least partly from a harder and/or stronger material than the material of the rolling body holding element .
A method for managing data in a Quality-of-Storage, QoSt, network comprising a plurality of nodes , the method comprising: receiving current QoSt network topology information from the plurality of nodes ; receiving a plurality of data streams from a plurality of applications on a plurality of servers at a data storage interface of the QoSt network; performing differentiated treatment upon received data streams in the data storage interface contingent upon at least different types of data in said received data streams based on one or more QoSt attributes, the QoSt attributes consider properties relevant to the plurality of applications; performing a plurality of data management operations on the data obtained by the plurality of data streams based on the data storage interface and based on said current QoSt network topology information, wherein the plurality of data management operations comprise at least one of: data traffic monitoring, data traffic management, and data traffic congestion control; monitoring data stream usage in real time; determining based on results of the data stream usage monitoring whether a data stream of the received data streams is too large to fit in one of the available data repository units of the QoSt network; segmenting the data stream into two or more sub-streams; and distributing the two or more sub-streams for storage by multiple data repository units accessed by the data storage interface. receiving current QoSt network topology information from the plurality of nodes ; receiving a plurality of data streams from a plurality of applications on a plurality of servers at a data storage interface of the QoSt network; performing differentiated treatment upon received data streams in the data storage interface contingent upon at least different types of data in said received data streams based on one or more QoSt attributes, the QoSt attributes consider properties relevant to the plurality of applications; performing a plurality of data management operations on the data obtained by the plurality of data streams based on the data storage interface and based on said current QoSt network topology information, wherein the plurality of data management operations comprise at least one of: data traffic monitoring, data traffic management, and data traffic congestion control; monitoring data stream usage in real time; determining based on results of the data stream usage monitoring whether a data stream of the received data streams is too large to fit in one of the available data repository units of the QoSt network; segmenting the data stream into two or more sub-streams; and distributing the two or more sub-streams for storage by multiple data repository units accessed by the data storage interface.
Full jacket safety projectile with a full jacket and a central penetration core centered in the full jacket with a front-sided, blind hole-like recess being filled with an explosive agent , wherein the penetration core having at least one first and one second wedge-shaped constriction , wherein the full jacket has circumferential notches in the front region of the penetrating core , wherein on impact on a target the resulting central shockwave acting front-sided on the explosive agent and the recess in the penetration core splinters inside the target, wherein at the circumferential notches and/or wedge-shaped constrictions shockwaves (S1, S2) are reflected at the full jacket and/or in the penetration core and wherein that the same are impinging the explosive agent , by opposingly directed shockwaves (S1, S3; S2'), so that compressions counteracting to each other are evolving, which are directly initiating the explosive agent .