mhurhangee/ep-ind-claims huggingface dataset:
A system having scalable sockets to support User Datagram Protocol, UDP, connections, the system comprising: a plurality of UDP sockets, each of the plurality of UDP sockets associated with a corresponding one of a plurality of UDP connections, one or more remote clients connecting to one or more of the plurality of UDP connections; a send buffer and a receive buffer for each UDP socket of the plurality of UDP sockets, the send buffer and the receive buffer performing one or more synchronization operations on network traffic to be communicated via a network stack; and a processor performing a network stack lookup for a plurality of UDP flows corresponding to the network traffic using the network stack to identify the UDP socket corresponding to the remote client, wherein the network stack lookup is performed for each of the UDP connections, having corresponding UDP flows, and comprises identifying a socket object on which to deliver data, each of the plurality of UDP flows corresponding to one of the plurality of UDP connections to support communication of the network traffic over the plurality of UDP connections using the plurality of UDP sockets. a plurality of UDP sockets, each of the plurality of UDP sockets associated with a corresponding one of a plurality of UDP connections, one or more remote clients connecting to one or more of the plurality of UDP connections; a send buffer and a receive buffer for each UDP socket of the plurality of UDP sockets, the send buffer and the receive buffer performing one or more synchronization operations on network traffic to be communicated via a network stack; and a processor performing a network stack lookup for a plurality of UDP flows corresponding to the network traffic using the network stack to identify the UDP socket corresponding to the remote client, wherein the network stack lookup is performed for each of the UDP connections, having corresponding UDP flows, and comprises identifying a socket object on which to deliver data, each of the plurality of UDP flows corresponding to one of the plurality of UDP connections to support communication of the network traffic over the plurality of UDP connections using the plurality of UDP sockets.
A method comprising: decoding a fabric vector instruction in a receiving processing element, the fabric vector instruction comprising an operation and an instruction source operand specifying a source operand descriptor stored in a register of the receiving processing element, the register addressable via instruction execution by the receiving processing element, the fabric vector instruction compatible with processing of a vector of elements receivable at the receiving processing element via a coupling with a fabric; type-determining that the instruction source operand is a fabric vector comprising the vector of elements receivable via the fabric, as specified by the source operand descriptor, the source operand descriptor enabled to specify one of at least the fabric vector and a memory vector; responsive to the type-determining that the instruction source operand is a fabric vector, associating a virtual input queue and a respective receive virtual channel with the fabric vector; receiving in the virtual input queue as a fabric packet at least one packet via the fabric, the fabric packet comprising a number of input data elements of the fabric vector and the receiving being in accordance with the receive virtual channel specifying one of a plurality of communication pathways enabled by the fabric; selectively reading the number of input data elements from the virtual input queue; and selectively performing an iteration of the operation using the number of input data elements. decoding a fabric vector instruction in a receiving processing element, the fabric vector instruction comprising an operation and an instruction source operand specifying a source operand descriptor stored in a register of the receiving processing element, the register addressable via instruction execution by the receiving processing element, the fabric vector instruction compatible with processing of a vector of elements receivable at the receiving processing element via a coupling with a fabric; type-determining that the instruction source operand is a fabric vector comprising the vector of elements receivable via the fabric, as specified by the source operand descriptor, the source operand descriptor enabled to specify one of at least the fabric vector and a memory vector; responsive to the type-determining that the instruction source operand is a fabric vector, associating a virtual input queue and a respective receive virtual channel with the fabric vector; receiving in the virtual input queue as a fabric packet at least one packet via the fabric, the fabric packet comprising a number of input data elements of the fabric vector and the receiving being in accordance with the receive virtual channel specifying one of a plurality of communication pathways enabled by the fabric; selectively reading the number of input data elements from the virtual input queue; and selectively performing an iteration of the operation using the number of input data elements.
A gripper device for gripping a pipe, the gripper device comprises: - a support structure, - a gripper arm arrangement comprising a first gripper arm and a second gripper arm comprising an open state which enables the pipe to be introduced into an opening between the gripper arms (12, 14) and an engaged state in which end portions of the gripper arms (12, 14) are adapted to engage with the pipe, - a drive arm arrangement comprising a first drive arm and a second drive arm movably connecting the respective first gripper arm and the second gripper arm to the support structure, - a pivot arrangement comprising a first pivot and a second pivot rotationally connecting the respective first drive arm and the second drive arm to the support structure, and - a drive mechanism comprising a transmission drive shaft and a transmission arrangement comprising a first transmission member, a second transmission member and a third transmission member, wherein the first transmission member, the second transmission member and the third transmission member are each rotatable with respect to each other and coupled directly or indirectly with each other, wherein the first transmission member is coupled with the drive shaft, the second transmission member is coupled to the first transmission member, and the third transmission member is coupled with the second transmission member, wherein the second transmission member is coupled to the first drive arm and the third transmission member is coupled to the second drive arm, characterised in that the first transmission member, second transmission member and third transmission member of the transmission arrangement are coaxially arranged. - a support structure, - a gripper arm arrangement comprising a first gripper arm and a second gripper arm comprising an open state which enables the pipe to be introduced into an opening between the gripper arms (12, 14) and an engaged state in which end portions of the gripper arms (12, 14) are adapted to engage with the pipe, - a drive arm arrangement comprising a first drive arm and a second drive arm movably connecting the respective first gripper arm and the second gripper arm to the support structure, - a pivot arrangement comprising a first pivot and a second pivot rotationally connecting the respective first drive arm and the second drive arm to the support structure, and - a drive mechanism comprising a transmission drive shaft and a transmission arrangement comprising a first transmission member, a second transmission member and a third transmission member,
IGF-1 for use in treating a mammal that has suffered a myocardial infarction to stimulate repair or survival of cardiac muscle, or to stimulate left ventricular remodeling, in which the IGF-1 is administered to the individual by means of a stent that comprises the IGF-1 and which is introduced into the coronary circulation upstream of the site of the myocardial infarction in sufficient quantity to reduce the effects of the myocardial infarction on the individual by exerting anti-apoptotic and/or cardiotrophic effects on affected or diseased tissue.
Hydrodynamic retarder, having a bladed rotor and a bladed stator which together form a working chamber which can be filled with and emptied of working medium; 1.1 having a working medium vessel for storing working medium that is presently not situated in the working chamber; 1.2 having a control pressure action system for the action of a control pressure medium on the working medium contained in the working medium vessel, such that a greater or lesser amount of working medium is displaced from the working medium vessel into the working chamber in order to set a desired braking torque; characterized by the following features: 1.3 a centrifugal separator is provided for separating working medium from the control pressure medium; 1.4 the centrifugal separator is connected in flow-conducting fashion, so as to be acted on by the pressure of the control pressure medium, to an outlet of the working medium vessel for control pressure medium, and is driven by the pressure of the control pressure medium. 1.1 having a working medium vessel for storing working medium that is presently not situated in the working chamber; 1.2 having a control pressure action system for the action of a control pressure medium on the working medium contained in the working medium vessel, such that a greater or lesser amount of working medium is displaced from the working medium vessel into the working chamber in order to set a desired braking torque; characterized by the following features: 1.3 a centrifugal separator is provided for separating working medium from the control pressure medium; 1.4 the centrifugal separator is connected in flow-conducting fashion, so as to be acted on by the pressure of the control pressure medium, to an outlet of the working medium vessel for control pressure medium, and is driven by the pressure of the control pressure medium.
A method of making a bearing component of a medical implant suitable for use as an artificial joint, the method comprising: preheating crosslinked ultrahigh molecular weight polyethylene (UHMWPE) polymer to a temperature above 80°C and below its melting point, wherein the crosslinked polymer is in a bulk form elongated in an axial direction compared to an orthogonal direction; deforming the preheated crosslinked polymer at a temperature above 80°C and below its melting point by solid state extrusion at a draw ratio less than 3, wherein the solid state extrusion comprises applying a compressive force to the preheated crosslinked polymer orthogonal to an axial direction of the preheated crosslinked polymer; cooling the extruded crosslinked polymer to a solidification temperature while maintaining a compressive force to the extruded crosslinked polymer; stress relieving the cooled UHMWPE after extrusion by heating to a stress relief temperature below the melting point of the UHMWPE and machining the bearing component from the extruded crosslinked polymer, in such a way that the load bearing axis, in use, corresponds to the axial direction of the crosslinked polymer. preheating crosslinked ultrahigh molecular weight polyethylene (UHMWPE) polymer to a temperature above 80°C and below its melting point, wherein the crosslinked polymer is in a bulk form elongated in an axial direction compared to an orthogonal direction; deforming the preheated crosslinked polymer at a temperature above 80°C and below its melting point by solid state extrusion at a draw ratio less than 3, wherein the solid state extrusion comprises applying a compressive force to the preheated crosslinked polymer orthogonal to an axial direction of the preheated crosslinked polymer; cooling the extruded crosslinked polymer to a solidification temperature while maintaining a compressive force to the extruded crosslinked polymer; stress relieving the cooled UHMWPE after extrusion by heating to a stress relief temperature below the melting point of the UHMWPE and machining the bearing component from the extruded crosslinked polymer, in such a way that the load bearing axis, in use, corresponds to the axial direction of the crosslinked polymer.
An HIV-1 vaccine comprising a human cytomegalovirus (HCMV) backbone or a rhesus cytomegalovirus (RhCMV) backbone, wherein the HCMV or RhCMV backbone comprises a nucleic acid sequence encoding a fusion antigen comprising a Gag/Nef fusion, wherein the Gag/Nef fusion consists of the amino acid sequence of SEQ ID NO: 706, and wherein the HCMV backbone lacks the UL130-128 gene region.
A storage container comprising: a container base; a container cover hingedly coupled to the container base for pivotal displacement between an open position and a closed position; a magnet fixed to the container cover and configured to secure the storage container to a metallic surface; characterized in that, the container cover and the container base, when in the open position, are configured to open to a maximum angle of between sixty and one-hundred and twenty degrees; wherein it further comprises a display package having a blister assembly including a front blister surface having a first opening therein and a rear blister surface coupled to the front blister surface and defining a first cavity, wherein the container base is securable within the first cavity with the container cover coupled to the first container portion for pivotal displacement between the open position and the closed position while the container based is secured within the blister assembly, so that the magnet is configured to secure the display package to the metallic surface with the container cover in the open position; wherein the magnet is located at or beyond the outer perimeter of the blister assembly when the second container portion is in the open position. a container base; a container cover hingedly coupled to the container base for pivotal displacement between an open position and a closed position; a magnet fixed to the container cover and configured to secure the storage container to a metallic surface; characterized in that, the container cover and the container base, when in the open position, are configured to open to a maximum angle of between sixty and one-hundred and twenty degrees;
A flame retardant resin composition comprising a base resin which contains 18 to 85% by mass of high density polyethylene, 9 to 69% by mass of low density polyethylene, and 3 to 25% by mass of a maleic anhydride modified ethylene-a olefin copolymer, wherein, with respect to 100 parts by mass of the base resin, 25 parts by mass or more and 110 parts by mass or less of calcium carbonate particles, more than 1 part by mass and 10 parts by mass or less of a silicone-based compound, and 2 parts by mass or more and 20 parts by mass or less of a fatty acid-containing compound are blended.
A deployable membrane structure for an antenna, the deployable membrane structure comprising: a membrane comprising a plurality of first regions of higher-stiffness material (101, 102, 103, 104; 401, 402) integrally connected via one or more second regions of lower-stiffness material (111, 112, 113, 114; 411, 412), wherein the one or more second regions are formed from compliant material configured to permit the membrane to be folded into a collapsed configuration and subsequently unfolded into a deployed configuration, and are arranged so as to allow adjacent ones of the plurality of first regions to be folded so as to lie against one another, and wherein the membrane comprises a radio-frequency reflective material, such that when deployed, the membrane is configured to form a primary reflector of the antenna. a membrane comprising a plurality of first regions of higher-stiffness material (101, 102, 103, 104; 401, 402) integrally connected via one or more second regions of lower-stiffness material (111, 112, 113, 114; 411, 412), wherein the one or more second regions are formed from compliant material configured to permit the membrane to be folded into a collapsed configuration and subsequently unfolded into a deployed configuration, and are arranged so as to allow adjacent ones of the plurality of first regions to be folded so as to lie against one another, and wherein the membrane comprises a radio-frequency reflective material, such that when deployed, the membrane is configured to form a primary reflector of the antenna.
A back-illuminated solid-state image pickup device comprising: a semiconductor substrate having a light incident surface at a back surface side; and a charge transfer electrode disposed at an opposite surface at an opposite side of the semiconductor substrate with respect to the light incident surface, characterized in that the opposite surface has an uneven surface in a region where the charge transfer electrode is provided, wherein a distance D1 along a thickness direction of the semiconductor substrate between a deepest portion of a depressed portion and an apex or top surface of a projected portion of the uneven surface, is 0.06 to 1 μm. a semiconductor substrate having a light incident surface at a back surface side; and a charge transfer electrode disposed at an opposite surface at an opposite side of the semiconductor substrate with respect to the light incident surface, characterized in that the opposite surface has an uneven surface in a region where the charge transfer electrode is provided, wherein a distance D1 along a thickness direction of the semiconductor substrate between a deepest portion of a depressed portion and an apex or top surface of a projected portion of the uneven surface, is 0.06 to 1 μm.
Brewing chamber of a coffee machine for a coffee pad, having a brewing chamber upper part embodied as one piece having an outer sealing, which brewing chamber upper part comprises openings for the water fed to the brewing chamber, and a brewing chamber lower part, wherein the brewing chamber upper part is manufactured from an elastic material, characterised in that the brewing chamber upper part has a centrally-arranged elastic indentation element (36, 38).
A position locating instrument comprising: at least one light emission port (13, 23) through which light from a wavelength-changeable light source is emitted; and at least one light receiving port (12, 22) that detects light emitted or reflected by an adjacent position locating instrument, wherein a wavelength of the wavelength-changeable light source is swept within a predetermined wavelength range in a predetermined cycle, the light emitted from the light emission port has a fanlike pattern and has an emission angle varying, as a monotonic function of a wavelength of the light, in a direction perpendicular to a direction in which the light spreads in the fanlike pattern, and the position locating instrument detects light emitted by the adjacent position locating instrument, or detects light reflected by the adjacent position locating instrument, and then detects the wavelength of the detected light by measuring a time difference between two timings of detecting light of a predetermined wavelength in one cycle of the wavelength sweeping so that at least one of parameters for relative positional relation between the position locating instruments and attitude of the position locating instrument is measured. at least one light emission port (13, 23) through which light from a wavelength-changeable light source is emitted; and at least one light receiving port (12, 22) that detects light emitted or reflected by an adjacent position locating instrument, wherein a wavelength of the wavelength-changeable light source is swept within a predetermined wavelength range in a predetermined cycle, the light emitted from the light emission port has a fanlike pattern and has an emission angle varying, as a monotonic function of a wavelength of the light, in a direction perpendicular to a direction in which the light spreads in the fanlike pattern, and the position locating instrument detects light emitted by the adjacent position locating instrument, or detects light reflected by the adjacent position locating instrument, and then detects the wavelength of the detected light by measuring a time difference between two timings of detecting light of a predetermined wavelength in one cycle of the wavelength sweeping so that at least one of parameters for relative positional relation between the position locating instruments and attitude of the position locating instrument is measured.
An apparatus for a User Equipment, UE (102, 200, 410), the apparatus comprising transceiver circuitry and hardware processing circuitry, the hardware processing circuitry being adapted to configure the transceiver circuitry to: receive, from an Evolved Node-B, eNB (104, 300, 405), arranged to operate in a network, a primary synchronization signal, PSS, that is based on one or more PSS symbol sequences; and transmit, to a second UE (102, 200, 415), a primary device-to-device synchronization signal, PD2DSS, for a device-to-device, D2D, communication session between the UE (102, 200, 410) and the second UE (102, 200, 415), wherein the PD2DSS is based on one or more PD2DSS symbol sequences, which are different than the PSS symbol sequences used for the PSS, the PD2DSS is transmitted according to a network reference timing that is based at least partly on the reception of the PSS, and the PD2DSS includes a first PD2DSS portion based on a Fourier Transform, FT, of a first PD2DSS symbol sequence and further includes a second PD2DSS portion based on an FT of a second PD2DSS symbol sequence. receive, from an Evolved Node-B, eNB (104, 300, 405), arranged to operate in a network, a primary synchronization signal, PSS, that is based on one or more PSS symbol sequences; and transmit, to a second UE (102, 200, 415), a primary device-to-device synchronization signal, PD2DSS, for a device-to-device, D2D, communication session between the UE (102, 200, 410) and the second UE (102, 200, 415), wherein the PD2DSS is based on one or more PD2DSS symbol sequences, which are different than the PSS symbol sequences used for the PSS, the PD2DSS is transmitted according to a network reference timing that is based at least partly on the reception of the PSS, and the PD2DSS includes a first PD2DSS portion based on a Fourier Transform, FT, of a first PD2DSS symbol sequence and further includes a second PD2DSS portion based on an FT of a second PD2DSS symbol sequence.
An apparatus for receiving a signal, comprising: a demodulator configured to generate a binary signal from a received signal; a clock data recovery, CDR, circuitry configured to sample the binary signal and detect a phase error of the binary signal with respect to a local oscillator signal in the apparatus and generate CDR state information for the binary signal, wherein the CDR circuitry is configured to generate the CDR state information from at least three consecutive samples of the binary signal sampled at least twice a symbol rate of the binary signal; a soft information generation circuitry configured to map the CDR state information to soft information for the binary signal; and a decoder configured to decode the binary signal using the soft information. a demodulator configured to generate a binary signal from a received signal; a clock data recovery, CDR, circuitry configured to sample the binary signal and detect a phase error of the binary signal with respect to a local oscillator signal in the apparatus and generate CDR state information for the binary signal, wherein the CDR circuitry is configured to generate the CDR state information from at least three consecutive samples of the binary signal sampled at least twice a symbol rate of the binary signal; a soft information generation circuitry configured to map the CDR state information to soft information for the binary signal; and a decoder configured to decode the binary signal using the soft information.