mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: incorporating into an uplink grant message, by a base station in a communications system, information on whether a last symbol of an uplink subframe that is reserved by the base station for sounding reference signal, SRS, transmissions according to a cell-specific SRS subframe configuration, is available for a physical uplink shared channel, PUSCH; and transmitting the uplink grant message comprising the information on the last symbol to a user equipment, UE, wherein the UE is configured to ignore the cell-specific SRS subframe configuration when determining whether the last symbol of the uplink subframe is available for transmission of the PUSCH, and wherein the incorporating comprises incorporating one bit in the uplink grant message to indicate whether the last symbol is available for the PUSCH, and incorporating one bit in the uplink grant message to indicate whether the UE should send the SRS, wherein said bits are interpreted jointly, and wherein: a first combination of said bits indicates to not transmit the SRS, and puncture the PUSCH; a second combination of said bits indicates to not transmit the SRS, and transmit the PUSCH in the last symbol; a third combination of said bits indicates to transmit the SRS, and puncture the PUSCH; and a fourth combination of said bits indicates to transmit the SRS, and transmit the PUSCH. incorporating into an uplink grant message, by a base station in a communications system, information on whether a last symbol of an uplink subframe that is reserved by the base station for sounding reference signal, SRS, transmissions according to a cell-specific SRS subframe configuration, is available for a physical uplink shared channel, PUSCH; and transmitting the uplink grant message comprising the information on the last symbol to a user equipment, UE, wherein the UE is configured to ignore the cell-specific SRS subframe configuration when determining whether the last symbol of the uplink subframe is available for transmission of the PUSCH, and wherein the incorporating comprises incorporating one bit in the uplink grant message to indicate whether the last symbol is available for the PUSCH, and incorporating one bit in the uplink grant message to indicate whether the UE should send the SRS, wherein said bits are interpreted jointly, and wherein: a first combination of said bits indicates to not transmit the SRS, and puncture the PUSCH; a second combination of said bits indicates to not transmit the SRS, and transmit the PUSCH in the last symbol; a third combination of said bits indicates to transmit the SRS, and puncture the PUSCH; and a fourth combination of said bits indicates to transmit the SRS, and transmit the PUSCH. a first combination of said bits indicates to not transmit the SRS, and puncture the PUSCH; a second combination of said bits indicates to not transmit the SRS, and transmit the PUSCH in the last symbol; a third combination of said bits indicates to transmit the SRS, and puncture the PUSCH; and a fourth combination of said bits indicates to transmit the SRS, and transmit the PUSCH.
A method of operating a user equipment, UE, in a wireless communications network, the method comprising: sending, by the UE, an acknowledgement/negative acknowledgement, ACK/NACK, message after receiving data on a physical downlink shared channel, PDSCH, scheduled by an extended physical downlink control channel, E-PDCCH, wherein the sending is from at least one antenna port and uses at least one physical resource, and wherein the at least one physical resource is determined based at least partially on a resource over which the E-PDCCH is received, and wherein the resource over which the E-PDCCH is received consists of at least one extended control channel element, eCCE; the method being characterized by using, by the UE, the lowest index of the eCCE for the E-PDCCH transmission, plus at least an offset, to derive the physical resource for the ACK/NACK, wherein the offset is also used to derive a demodulation reference signal, DMRS, port used for E-PDCCH demodulation. sending, by the UE, an acknowledgement/negative acknowledgement, ACK/NACK, message after receiving data on a physical downlink shared channel, PDSCH, scheduled by an extended physical downlink control channel, E-PDCCH, wherein the sending is from at least one antenna port and uses at least one physical resource, and wherein the at least one physical resource is determined based at least partially on a resource over which the E-PDCCH is received, and wherein the resource over which the E-PDCCH is received consists of at least one extended control channel element, eCCE; the method being characterized by using, by the UE, the lowest index of the eCCE for the E-PDCCH transmission, plus at least an offset, to derive the physical resource for the ACK/NACK, wherein the offset is also used to derive a demodulation reference signal, DMRS, port used for E-PDCCH demodulation.
Flexible membrane for an inflatably deployable structure, which comprises at least one layer of a composite and at least one polymer film that is permeable to visible radiation and that covers one of the faces of this layer, said composite being formed from a fibrous material impregnated with a composition incorporating an epoxide or epoxy/acrylate resin and a photoinitiator, characterized in that the photoinitiator is chosen from iron-arene complex salts of general formula below: in which A represents an arene group while X represents a non-nucleophilic anion.
A method comprising: adding, by a hypervisor of a computer system, a virtual trusted platform module, TPM, device to a virtual machine, VM; determining, by the hypervisor, whether the virtual TPM device should operate in a read-only mode or a read-write mode; and upon determining that the virtual TPM device should operate in the read-only mode, refraining, by the hypervisor, from generating and storing identity information usable for uniquely identifying the virtual TPM device. adding, by a hypervisor of a computer system, a virtual trusted platform module, TPM, device to a virtual machine, VM; determining, by the hypervisor, whether the virtual TPM device should operate in a read-only mode or a read-write mode; and upon determining that the virtual TPM device should operate in the read-only mode, refraining, by the hypervisor, from generating and storing identity information usable for uniquely identifying the virtual TPM device.
Power plant for generating electrical power, having - a burner unit, in which thermal energy can be produced by burning a combustion fluid, - a turbine unit, in which a rotational movement can be produced with the thermal energy, - a generator unit which can be driven by the rotational movement to generate electrical power, and - a reformer unit, in which the energy carrier can be converted into combustion fluid with the supply of heat, wherein the reformer unit has, for the purpose of providing a heat supply, a reformer burning device, with which an energy carrier can be burnt, characterised in that in order to provide a heat supply, the power plant comprises an electric heating unit in addition to the reformer burning device, through which electric heating unit electrical energy can be converted into heat energy, the power plant comprises a control unit, with which a heating power of the electric heating unit can be increased and a heating power of the reformer burning device can be reduced, and vice versa, and the control unit is adapted, in dependence upon the available amount of electrical energy in an external power network, to increase the heating power of the electric heating unit and to reduce the heating power of the reformer burning device. - a burner unit, in which thermal energy can be produced by burning a combustion fluid, - a turbine unit, in which a rotational movement can be produced with the thermal energy, - a generator unit which can be driven by the rotational movement to generate electrical power, and - a reformer unit, in which the energy carrier can be converted into combustion fluid with the supply of heat, wherein the reformer unit has, for the purpose of providing a heat supply, a reformer burning device, with which an energy carrier can be burnt,
A protective mask (100, 400) comprising: a breathing chamber; an inlet chamber defining a flow passage leading into the breathing chamber; a first check valve between the inlet chamber and the breathing chamber, the first check valve configured to allow air flow from the inlet chamber into the breathing chamber; an exhaust chamber (124, 404); a second check valve between the breathing chamber and the exhaust chamber, the second check valve configured to allow air flow from the breathing chamber into the exhaust chamber; and an ultraviolet light source (110, 408) configured to administer a dose of ultraviolet light sufficient to decontaminate gas flowing through either the inlet chamber or the exhaust chamber, characterised in that the respective inlet or exhaust chamber including a catalyst to catalyze ozone back into oxygen. a breathing chamber; an inlet chamber defining a flow passage leading into the breathing chamber; a first check valve between the inlet chamber and the breathing chamber, the first check valve configured to allow air flow from the inlet chamber into the breathing chamber; an exhaust chamber (124, 404); a second check valve between the breathing chamber and the exhaust chamber, the second check valve configured to allow air flow from the breathing chamber into the exhaust chamber; and an ultraviolet light source (110, 408) configured to administer a dose of ultraviolet light sufficient to decontaminate gas flowing through either the inlet chamber or the exhaust chamber, characterised in that the respective inlet or exhaust chamber including a catalyst to catalyze ozone back into oxygen.
A pharmaceutical composition comprising a granulate containing an inert core which is coated by a first layer comprising an active ingredient and at least one excipient, this first layer being coated by a controlled release layer, the weight percentage of the controlled release layer being comprised between 1.0% and 60%, relative to the weight of the pharmaceutical composition, and the active ingredient being selected among brivaracetam and seletracetam.
A flexible lumenal assembly (100, 100A) configured for transiting a body lumen comprising a flexible lumenal member (102, 102A, 150) extending longitudinally and a monolithic structural support member (300, 400, 410) extending outside a portion of the flexible lumenal member (102, 102A, 150) and an outer tubular element over the monolithic structural support member (300, 400, 410) wherein the outer tubular element is configured to selectively apply pressure to the monolithic structural support member (300, 400, 410) by being selectively enlarged and contracted.
A computer-implemented method of predicting a tire gas temperature of an aircraft tire, the method being characterised in that it comprises: receiving data of a plurality of measurements of temperature with associated times after a landing event, the data measured by a tire monitoring device affixed to an aircraft wheel; selecting a temperature profile from a plurality of predetermined temperature profiles based on the received data, the plurality of temperature profiles representing heating and cooling under different conditions; and predicting a future tire gas temperature based on the selected temperature profile and the received data. receiving data of a plurality of measurements of temperature with associated times after a landing event, the data measured by a tire monitoring device affixed to an aircraft wheel; selecting a temperature profile from a plurality of predetermined temperature profiles based on the received data, the plurality of temperature profiles representing heating and cooling under different conditions; and predicting a future tire gas temperature based on the selected temperature profile and the received data.
A high strength steel sheet excellent in PWHT (Post Weld Heat Treatment) resistance having a composition comprising by weight percent: 0.1 to 0.3% of C; 0.15 to 0.50% of Si, 0.6 to 1.2% of Mn; 0.035% or less of P; 0.020% or less of S; optionally 0.001 to 0.05 % of Al; 0.01 to 0.35% of Cr; 0.005 to 0.2% of Mo; 0.005 to 0.05% of V; 0.001 to 0.05% of Nb; 0.001 to 0.05% of Ti; 0.0005 to 0.005% of Ca; 0.05 to 0.5% of Ni; one or more selected from the group consisting of 0.005 to 0.5% of Cu, 0.005 to 0.2% of Co and 0.005 to 0.2% of W; and Fe as well as unavoidable impurities as a remainder, wherein the composition satisfies the following relational expression: Cu + Ni + Cr + Mo: 1.5% or less, Cr + Mo: 0.4% or less, V + Nb: 0.1% or less, and Ca/S: 1.0 or less.
A welding system comprising a welding torch comprising a handle and a remote control system for said welding system, said remote control system comprising: - a control device; and - control circuitry configured to select a first operating parameter adjustment for a first operating parameter of the welding system based on a first actuation of the control device, wherein the control device comprises a multi-axis control device disposed on an outer surface of the handle of the welding torch, and wherein the multi-axis control device is configured to adjust a first parameter when the multi-axis control device is actuated along a first axis and a second parameter when actuated along a second axis, and wherein the control device is actuated at a first magnitude and wherein the first operating parameter adjustment comprises a first adjustment to the first operating parameter, characterized in that the first operating parameter adjustment comprises a second adjustment to a rate of change of the first operating parameter, the control device is configured to move along multiples axes at once and the control circuitry is configured to select the first operating parameter adjustment based on a greatest unit vector of the first actuation. - a control device; and - control circuitry configured to select a first operating parameter adjustment for a first operating parameter of the welding system based on a first actuation of the control device,
A method of making a tough hydrogel having a network of hydrophilic polymers containing absorbed water, the tough hydrogel being capable of absorbing large amounts of mechanical energy before failure, the tough hydrogel being suitable for use in articular cartilage replacement applications, the method comprising: a) preparing a hydrogel by blending a polyvinyl alcohol solution with a gellant at an elevated temperature and cooling down to room temperature, wherein the gellant is polyethylene glycol; b) contacting the hydrogel with an organic solvent to drive out water, wherein the hydrogel comprises a polymer which is not soluble in the organic solvent, and wherein the organic solvent is at least partially miscible in water; c) heating the hydrogel to a temperature of above 100°C, wherein the PEG remains in the hydrogel during heating and prevents collapse of porosity in the hydrogel; and d) cooling the heated hydrogel to room temperature, wherein the method dehydrates the hydrogel, thereby forming the tough hydrogel. a) preparing a hydrogel by blending a polyvinyl alcohol solution with a gellant at an elevated temperature and cooling down to room temperature, wherein the gellant is polyethylene glycol; b) contacting the hydrogel with an organic solvent to drive out water, wherein the hydrogel comprises a polymer which is not soluble in the organic solvent, and wherein the organic solvent is at least partially miscible in water; c) heating the hydrogel to a temperature of above 100°C, wherein the PEG remains in the hydrogel during heating and prevents collapse of porosity in the hydrogel; and d) cooling the heated hydrogel to room temperature, wherein the method dehydrates the hydrogel, thereby forming the tough hydrogel.
An endoscope apparatus (101, 140) comprising: an elongated insertion section configured to be inserted into an object subject to image-pickup; a light source section configured to emit laser light; a power supply section configured to supply electric power to the light source section; an enclosure section, in which the power supply section is disposed therein; an intermediate section configured to connect the enclosure section to the insertion section; a first light guide, disposed in the insertion section, and configured to guide the laser light emitted by the light source section, a second light guide, disposed in the insertion section, and configured to guide the laser light emitted by the light source section, and a fluorescent substance, disposed at a distal end of the insertion section, configured to illuminate illumination light by being excited by the laser light guided through the first light guide; and an optical path-switching unit configured to selectively switch an optical path of the laser light emitted by the light source section to at least one of the first light guide and the second light guide. an elongated insertion section configured to be inserted into an object subject to image-pickup; a light source section configured to emit laser light; a power supply section configured to supply electric power to the light source section; an enclosure section, in which the power supply section is disposed therein; an intermediate section configured to connect the enclosure section to the insertion section; a first light guide, disposed in the insertion section, and configured to guide the laser light emitted by the light source section, a second light guide, disposed in the insertion section, and configured to guide the laser light emitted by the light source section, and a fluorescent substance, disposed at a distal end of the insertion section, configured to illuminate illumination light by being excited by the laser light guided through the first light guide; and an optical path-switching unit configured to selectively switch an optical path of the laser light emitted by the light source section to at least one of the first light guide and the second light guide.
A method for obtaining a water in oil emulsion comprising a polypeptide of sequence YLQVNSLQTVYLEYRQVPVYLEEITGYL (SEQ ID No: 1) and compatible with administration to a human subject, said method comprising the following steps: (i) obtaining an aqueous antigenic phase by dissolving lyophilized polypeptide of SEQ No: 1 in pure sterile water; (ii) loading a first volume of said aqueous antigenic phase and a second volume of Montanide into a device comprising two syringes linked by a connector, wherein the ratio of the first volume to the second volume is comprised between 50/50 and 40/60; (iii) pre-emulsifying the formulation by performing at least three cycles of transfer of the whole formulation from one syringe to the other and then back to the first syringe, wherein each cycle lasts at least 6 seconds; and (iv) emulsifying the formulation by performing at least 20 additional transfer cycles, wherein each cycle lasts at most 2 seconds. (i) obtaining an aqueous antigenic phase by dissolving lyophilized polypeptide of SEQ No: 1 in pure sterile water; (ii) loading a first volume of said aqueous antigenic phase and a second volume of Montanide into a device comprising two syringes linked by a connector, wherein the ratio of the first volume to the second volume is comprised between 50/50 and 40/60; (iii) pre-emulsifying the formulation by performing at least three cycles of transfer of the whole formulation from one syringe to the other and then back to the first syringe, wherein each cycle lasts at least 6 seconds; and (iv) emulsifying the formulation by performing at least 20 additional transfer cycles, wherein each cycle lasts at most 2 seconds.
A method of receiving a device-to-device, D2D, discovery signal by a user equipment, UE, with one or more Receive, RX, chains on Frequency Division Duplex, FDD, carriers in a wireless communication system, the method comprising: receiving, from an eNodeB, information for configuring a gap for the D2D signal and securing a time necessary for frequency band switching operation of the one or more RX chains which are less than a number of RX chains necessary to perform simultaneous reception of a downlink signal and the D2D signal, wherein the UE does not receive the downlink signal in the gap during reception of the D2D signal or a D2D synchronization signal related to reception of the D2D signal, wherein the D2D signal includes at least one of D2D data and D2D discovery signal, and wherein the gap is configured on subframes belonging to a D2D discovery resource pool indicating discovery subframes as well as two or more subframes preceding and following the subframes belonging the D2D discovery resource pool. receiving, from an eNodeB, information for configuring a gap for the D2D signal and securing a time necessary for frequency band switching operation of the one or more RX chains which are less than a number of RX chains necessary to perform simultaneous reception of a downlink signal and the D2D signal, wherein the UE does not receive the downlink signal in the gap during reception of the D2D signal or a D2D synchronization signal related to reception of the D2D signal, wherein the D2D signal includes at least one of D2D data and D2D discovery signal, and wherein the gap is configured on subframes belonging to a D2D discovery resource pool indicating discovery subframes as well as two or more subframes preceding and following the subframes belonging the D2D discovery resource pool.
A range management method that is applied to a cluster node in a distributed storage system that comprises a cluster node and a client, comprising: partitioning, by the cluster node according to a configuration parameter, a range corresponding to a first routing table entry in a local routing table into at least two subranges, wherein the local routing table comprises at least one routing table entry, and each routing table entry comprises at least range information and replica information; the range information indicates information about a range corresponding to the routing table entry, and the replica information is used to record information about a cluster node set corresponding to the range; the first routing table entry refers to a routing table entry that is in the replica information and records information indicating the cluster node; separately establishing, by the cluster node, a log queue for each of the subranges; determining, by the cluster node, a corresponding subrange according to a key field of a data operation request when the data operation request is received from the client; and executing, by the cluster node according to the determined subrange, a data read/write operation corresponding to the data operation request, and updating, according to the data read/write operation, a log queue corresponding to the determined subrange. partitioning, by the cluster node according to a configuration parameter, a range corresponding to a first routing table entry in a local routing table into at least two subranges, wherein the local routing table comprises at least one routing table entry, and each routing table entry comprises at least range information and replica information; the range information indicates information about a range corresponding to the routing table entry, and the replica information is used to record information about a cluster node set corresponding to the range; the first routing table entry refers to a routing table entry that is in the replica information and records information indicating the cluster node; separately establishing, by the cluster node, a log queue for each of the subranges; determining, by the cluster node, a corresponding subrange according to a key field of a data operation request when the data operation request is received from the client; and executing, by the cluster node according to the determined subrange, a data read/write operation corresponding to the data operation request, and updating, according to the data read/write operation, a log queue corresponding to the determined subrange.