mhurhangee/patent-ind-claim-en huggingface dataset:
A block-based computing system (100; 900; 1000) comprising: a plurality of processor cores comprising a first processor core (110; 905; 1005) configured to: execute instructions of a first instruction block, wherein the first instruction block is an atomic collection of block-based processor instructions that includes an instruction block header and a plurality of instructions; and in response to determining that a branch in the first instruction block will be taken, generate a target address pointing to a second instruction block before the first instruction block is committed; and control logic (160; 920; 1020) configured to receive the target address pointing to the second instruction block and to initiate non-speculative execution of the second instruction block , before the first instruction block is committed, based on exit type information encoded in the header of the first instruction block and the target address, wherein the exit type information indicates a type of the branch. a plurality of processor cores comprising a first processor core (110; 905; 1005) configured to: execute instructions of a first instruction block, wherein the first instruction block is an atomic collection of block-based processor instructions that includes an instruction block header and a plurality of instructions; and in response to determining that a branch in the first instruction block will be taken, generate a target address pointing to a second instruction block before the first instruction block is committed; and execute instructions of a first instruction block, wherein the first instruction block is an atomic collection of block-based processor instructions that includes an instruction block header and a plurality of instructions; and in response to determining that a branch in the first instruction block will be taken, generate a target address pointing to a second instruction block before the first instruction block is committed; and control logic (160; 920; 1020) configured to receive the target address pointing to the second instruction block and to initiate non-speculative execution of the second instruction block , before the first instruction block is committed, based on exit type information encoded in the header of the first instruction block and the target address, wherein the exit type information indicates a type of the branch.
A method of making a genetically modified rodent, comprising modifying a rodent genome to comprise at an endogenous Major Histocompatibility Complex II (MHC II) a gene locus a first nucleotide sequence encoding a chimeric human/rodent MHC II α polypeptide and/or at an endogenous Major Histocompatibility Complex II (MHC II) β gene locus a second nucleotide sequence encoding a chimeric human/rodent MHC II β polypeptide, wherein a human portion of the chimeric human/rodent MHC II α polypeptide comprises human MHC II α1 and α2 extracellular domains and/or a human portion of the chimeric human/rodent MHC II β polypeptide comprises human MHC II β1 and β2 extracellular domains, and wherein the chimeric human/rodent MHC II α and/or MHC II β polypeptides form a functional MHC II complex on a surface of a cell of the rodent.
Valve for controlling gas flow, comprising - a housing with at least one gas inlet ; at least one first gas outlet and one second gas outlet ; - a valve device adapted for blocking or unblocking the first gas outlet and/or the second gas outlet and/or the gas inlet ; the valve device comprising - an axially movable shaft driven by an actuator ; - a valve body comprising a first valve body element and a second valve body element and being arranged on the axially movable shaft ; - the first valve body element being adapted for blocking or unblocking the gas inlet ; - the second valve body element being adapted for blocking or unblocking the first gas outlet or the second gas outlet ; - the first valve body element and the second valve body element being fixedly connected to each other; wherein the valve body is adapted to block or unblock the gas inlet , the first gas outlet and the second gas outlet via linear movement along a longitudinal axis L of the shaft , wherein the valve comprises a cavity having a cylindrical shape, the gas inlet being arranged on a first side of the cavity and the first gas outlet and the second gas outlet being arranged on a second side opposite the first side of the cavity , wherein the first valve body element is designed as a section of a cylindrical surface and the shape of the first valve body element is matching the cylindrical shape of an inner wall of the cavity , wherein the second valve body element is disc-shaped to be able to block a cross section of the cavity , wherein the valve body is movable to unblock gas inlet and both first gas outlet and second gas outlet at the same time. - a housing with at least one gas inlet ; at least one first gas outlet and one second gas outlet ; - a valve device adapted for blocking or unblocking the first gas outlet and/or the second gas outlet and/or the gas inlet ; - an axially movable shaft driven by an actuator ; - a valve body comprising a first valve body element and a second valve body element and being arranged on the axially movable shaft ; - the first valve body element being adapted for blocking or unblocking the gas inlet ; - the second valve body element being adapted for blocking or unblocking the first gas outlet or the second gas outlet ; - the first valve body element and the second valve body element being fixedly connected to each other;
A sensor unit for determining core body temperature by measurable values detected on a surface outside the body, comprising an analog/digital converter , a microcontroller , a reading/storage unit and at least one monolithic heat flux sensor and at least one temperature sensor , wherein the sensor unit comprises at least one printed circuit board , wherein the at least one monolithic heat flux sensor consists of a sandwich-like structure made of multiple layers of different materials from metals and at least one electrically insulating matrix layer, forming a body that is closed on at least one side and a plurality of measurement junctions between different metal layers, the at least one monolithic heat flux sensor and the at least one temperature sensor are placed on soldering pads on the printed circuit board and are fixed spatially separate from one another on the same side of the printed circuit board by means of solder, and wherein the at least one monolithic heat flux sensor and the at least one temperature sensor are connected via cables or circuit traces to the analog/digital converter , the microcontroller , and the reading/storage unit , wherein the at least one monolithic heat flux sensor , the at least one temperature sensor , the analog/digital converter , the microcontroller and the reading/storage unit can be connected to the electronics of a portable computer system by means of connecting cables or circuit traces and the at least one printed circuit board with the monolithic heat flux sensors , temperature sensors and analog/digital converter arranged thereon are at least partially enclosed by a sensor unit casing . wherein the sensor unit comprises at least one printed circuit board , wherein the at least one monolithic heat flux sensor consists of a sandwich-like structure made of multiple layers of different materials from metals and at least one electrically insulating matrix layer, forming a body that is closed on at least one side and a plurality of measurement junctions between different metal layers, the at least one monolithic heat flux sensor and the at least one temperature sensor are placed on soldering pads on the printed circuit board and are fixed spatially separate from one another on the same side of the printed circuit board by means of solder, and wherein the at least one monolithic heat flux sensor and the at least one temperature sensor are connected via cables or circuit traces to the analog/digital converter , the microcontroller , and the reading/storage unit , wherein the at least one monolithic heat flux sensor , the at least one temperature sensor , the analog/digital converter , the microcontroller and the reading/storage unit can be connected to the electronics of a portable computer system by means of connecting cables or circuit traces and the at least one printed circuit board with the monolithic heat flux sensors , temperature sensors and analog/digital converter arranged thereon are at least partially enclosed by a sensor unit casing .
A golf ball comprising: a golf ball precursor, the precursor comprising an inner core layer , an outer core layer substantially surrounding inner core layer , and an inner cover layer substantially surrounding outer core layer , but not comprising an outer cover layer , and an outer cover layer substantially surrounding the golf ball precursor, wherein the outer cover layer comprises a composition of an over-indexed thermoplastic polyurethane elastomer having an NCO index of at least about 1.01; and has a 100% modulus of less than about 14.71 MPa (150 kg/cm 2 ), wherein the outer core layer has a thickness of from about 5 mm to about 9 mm, and wherein the inner cover layer has a thickness of less than about 1.2 mm. a golf ball precursor, the precursor comprising an inner core layer , an outer core layer substantially surrounding inner core layer , and an inner cover layer substantially surrounding outer core layer , but not comprising an outer cover layer , and an outer cover layer substantially surrounding the golf ball precursor, wherein the outer cover layer comprises a composition of an over-indexed thermoplastic polyurethane elastomer having an NCO index of at least about 1.01; and has a 100% modulus of less than about 14.71 MPa (150 kg/cm 2 ), comprises a composition of an over-indexed thermoplastic polyurethane elastomer having an NCO index of at least about 1.01; and has a 100% modulus of less than about 14.71 MPa (150 kg/cm 2 ), wherein the outer core layer has a thickness of from about 5 mm to about 9 mm, and wherein the inner cover layer has a thickness of less than about 1.2 mm.
A method of transporting at least one media item along a transport path , comprising: in a first mode of operation, applying an urging force to at least one media item to transport said media item at least partially along a transport path ; and in a second mode of operation, releasing the urging force on said media item to allow at least one end region of the media item to move freely along a reoriented transport path ; characterised in that the method further comprises: in the first mode of operation, coupling at least one drive member to a first belt of a first transport member and to a second belt of a second transport member to urge the at least one media item along the transport path when the first and second belts are rotated by said drive member ; and in the second mode of operation, when said media item extends between the first and second belts , decoupling said drive member from the first and/or second belt whereby the first and/or second belt is free to rotate to allow the at least one end region of the media item to move freely along the reoriented transport path . in a first mode of operation, applying an urging force to at least one media item to transport said media item at least partially along a transport path ; and in a second mode of operation, releasing the urging force on said media item to allow at least one end region of the media item to move freely along a reoriented transport path ; characterised in that the method further comprises: in the first mode of operation, coupling at least one drive member to a first belt of a first transport member and to a second belt of a second transport member to urge the at least one media item along the transport path when the first and second belts are rotated by said drive member ; and in the second mode of operation, when said media item extends between the first and second belts , decoupling said drive member from the first and/or second belt whereby the first and/or second belt is free to rotate to allow the at least one end region of the media item to move freely along the reoriented transport path . in the first mode of operation, coupling at least one drive member to a first belt of a first transport member and to a second belt of a second transport member to urge the at least one media item along the transport path when the first and second belts are rotated by said drive member ; and in the second mode of operation, when said media item extends between the first and second belts , decoupling said drive member from the first and/or second belt whereby the first and/or second belt is free to rotate to allow the at least one end region of the media item to move freely along the reoriented transport path .
Use of a multi-phase system for removing crosslinked photoresists from surfaces comprising two immiscible liquids, one of the liquids being water and the other of the two liquids being a water-insoluble substance with a solubility of less than 4 g/l in water, further containing at least one surfactant and optionally additives and/or auxiliaries, the surfactant being a cationic, anionic or nonionic or amphoteric surfactant, characterized in that the multiphase system has a turbidity value of greater than 0 to less than or equal to 200 NTU, measured with a Hach 2100 turbidimeter, wherein the water-insoluble substance is present in an amount of 1.5-30% by weight, based on the total weight of the multiphase system, and wherein the at least one surfactant is present in an amount of 2-20% by weight, based on the total weight of the Multi-phase system, is present, the water-insoluble substance is selected from the group consisting of alkanes, cycloalkanes, aromatics, long-chain alkanoic acid esters, esters of di- or tricarboxylic acids, terpenes, or mixtures thereof, one or more amphiphiles are also contained in the multiphase system and one of the amphiphiles is selected from acetoacetates of the formula III CH 3 -CO-CH 2 -CO-O-R 5 [Formel III] wherein R 5 is C 1 to C 4 alkyl.
A FASN inhibitor for use in a method of treating non-alcoholic steatohepatitis (NASH), whereby the FASN inhibitor reduces steatosis, TH17-dependent inflammation, and fibrosis, wherein said method comprises administering said FASN inhibitor to said patient, and wherein the FASN inhibitor is: or a pharmaceutically acceptable salt thereof.
A method for printing, the method comprising steps of: providing a substrate extending in a machine direction, the substrate comprising a first surface and an opposing second surface and defining a width in a cross direction; depositing energy curable ink onto the first surface of the substrate , wherein an amount of the energy curable ink penetrates into the substrate from the first surface toward the second surface ; advancing the substrate in the machine direction past a light source ; directing ultraviolet light from the light source toward the first surface of the substrate , wherein a portion of the ultraviolet light travels through substrate and away from the second surface of the substrate ; reflecting ultraviolet light traveling from the second surface of the substrate toward the second surface of the substrate ; and curing a first portion of the energy curable ink with ultraviolet light traveling from the light source toward the first surface of the substrate ; and curing a second portion of the energy curable ink with reflected ultraviolet light . providing a substrate extending in a machine direction, the substrate comprising a first surface and an opposing second surface and defining a width in a cross direction; depositing energy curable ink onto the first surface of the substrate , wherein an amount of the energy curable ink penetrates into the substrate from the first surface toward the second surface ; advancing the substrate in the machine direction past a light source ; directing ultraviolet light from the light source toward the first surface of the substrate , wherein a portion of the ultraviolet light travels through substrate and away from the second surface of the substrate ; reflecting ultraviolet light traveling from the second surface of the substrate toward the second surface of the substrate ; and curing a first portion of the energy curable ink with ultraviolet light traveling from the light source toward the first surface of the substrate ; and curing a second portion of the energy curable ink with reflected ultraviolet light .
A method of wireless communications by a user equipment, UE, comprising: measuring both common reference signals, CRS, and channel state information reference signals, CSI-RS, transmitted from transmission points involved in uplink, UL, CoMP transmissions; detecting a plurality of cells based on CSI-RS; enabling CRS interference cancelation, CRS-IC, after detecting the plurality of cells; and performing power control using pathloss compensation for UL transmissions based on both the CRS and the CSI-RS. measuring both common reference signals, CRS, and channel state information reference signals, CSI-RS, transmitted from transmission points involved in uplink, UL, CoMP transmissions; detecting a plurality of cells based on CSI-RS; enabling CRS interference cancelation, CRS-IC, after detecting the plurality of cells; and performing power control using pathloss compensation for UL transmissions based on both the CRS and the CSI-RS.
A method of a base station for transmitting and receiving data through a network slice comprising: receiving (S210) a non-access stratum, NAS, message including network slice request information from a user equipment, UE, configured with the network slice, said network slice request information being used for requesting the network slice; controlling (S220) the network slice request information to be transferred to a core network entity: receiving (S230) specific network slice information that is configured based on the network slice request information from the core network entity; characterized in that the method further comprises: during handover preparation, transmitting (S340) the specific network slice information, included in a handover request message, to a target base station; and receiving a handover command (S430) generated based on at least one of the specific network slice information and network slice information allowed by the target base station, from the target base station, and transmitting the handover command to the UE for handover, wherein when a protocol data unit, PDU, session associated with a network slice that the target base station does not support is included in the specific network slice information, receiving a handover response message including information for indicating the PDU session associated with the network slice not supported by the target base station from the target base station, wherein the user equipment being configured with one or more network slices, one network slice being associated with one PDU session. receiving (S210) a non-access stratum, NAS, message including network slice request information from a user equipment, UE, configured with the network slice, said network slice request information being used for requesting the network slice; controlling (S220) the network slice request information to be transferred to a core network entity: receiving (S230) specific network slice information that is configured based on the network slice request information from the core network entity; characterized in that the method further comprises: during handover preparation, transmitting (S340) the specific network slice information, included in a handover request message, to a target base station; and receiving a handover command (S430) generated based on at least one of the specific network slice information and network slice information allowed by the target base station, from the target base station, and transmitting the handover command to the UE for handover, wherein when a protocol data unit, PDU, session associated with a network slice that the target base station does not support is included in the specific network slice information, receiving a handover response message including information for indicating the PDU session associated with the network slice not supported by the target base station from the target base station, wherein the user equipment being configured with one or more network slices, one network slice being associated with one PDU session.
A method in a first network device in a packet network of enabling link failure detection in a multi-chassis link aggregation group, MC-LAG, the method comprising: transmitting an Internet Protocol, IP, packet over a first link that is part of the MC-LAG , wherein the MC-LAG couples the first network device with a second network device and a third network device that are part of an Inter-Chassis Redundancy, ICR, system and being characterized by the IP packet including a payload including a Bidirectional Forwarding Detection, BFD, control packet , and wherein the destination address of the IP packet is one of a multicast IP address and a broadcast IP address.
A communications module adapted for use with a defibrillator, comprising a power supply system configured to supply power to the communications module, a power connector adapted for connection to the defibrillator to provide power from the communications module to the defibrillator, a data connector adapted for connection to the defibrillator to transfer defibrillator data between the defibrillator and the communications module, characterised in that a power switch is connected between the power supply system and the power connector to transmit power from the power supply system to the power connector, and a processor is configured to control the power switch to provide power from the communications module to the defibrillator to enable the transfer of the defibrillator data between the defibrillator and the communications module without engaging a power supply of the defibrillator.
Irritant spraying apparatus comprising a dispensing device , for dispensing an irritant , and a cleaning device, characterised in that the cleaning device is in the form of a rinsing device which automatically cleans the dispensing device after a process of dispensing the irritant has ended, by conducting a gas through the dispensing device for a period of time.
A tool retention system , comprising: a spool having an elongated channel , and a collar dividing the elongated channel into a first portion and a second portion; a fastener disposed within the elongated channel and passing through the collar, the fastener having a head located within the first portion and a threaded shank located within the second portion; a resilient member disposed between the head of the fastener and the collar; and a slider threadingly engaged with the threaded shank and configured to slide within the second portion of the elongated channel as the fastener is rotated; wherein the rotation of the fastener in a first direction moves the slider to compress the resilient member and rotating the fastener in a second direction moves the slider to allow the resilient member to decompress, wherein decompression of the resilient member locks the fastener , slider , and resilient member to the spool . a spool having an elongated channel , and a collar dividing the elongated channel into a first portion and a second portion; a fastener disposed within the elongated channel and passing through the collar, the fastener having a head located within the first portion and a threaded shank located within the second portion; a resilient member disposed between the head of the fastener and the collar; and a slider threadingly engaged with the threaded shank and configured to slide within the second portion of the elongated channel as the fastener is rotated; wherein the rotation of the fastener in a first direction moves the slider to compress the resilient member and rotating the fastener in a second direction moves the slider to allow the resilient member to decompress, wherein decompression of the resilient member locks the fastener , slider , and resilient member to the spool .