mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: transmitting a bandwidth portion assignment to indicate an assignment of at least one first bandwidth portion of a plurality of bandwidth portions within an available bandwidth to a first numerology, the first numerology having an associated first OFDM subcarrier spacing and first symbol duration; the plurality of bandwidth portions having at least one second bandwidth portion that is assigned to a second numerology, the second numerology having an associated second OFDM subcarrier spacing and second symbol duration; the first OFDM subcarrier spacing being one of 7.5 kHz, 15 kHz, 30 kHz, or 60 kHz; and the second OFDM subcarrier spacing being a different one of 7.5 kHz, 15 kHz, 30 kHz, or 60 kHz; characterized by transmitting a resource block allocation field to indicate an allocation of resource blocks within the indicated at least one first bandwidth portion assigned to the first numerology; the resource block allocation field having a size that is proportional to a size of a bandwidth over which resource block allocation is performed, wherein the available bandwidth is divided into the plurality of bandwidth portions, which are used as the unit of assignment for assigning at least one sub-band to each of the first and second numerology, and wherein a sub-band comprises a contiguous set of one or more bandwidth portions. transmitting a bandwidth portion assignment to indicate an assignment of at least one first bandwidth portion of a plurality of bandwidth portions within an available bandwidth to a first numerology, the first numerology having an associated first OFDM subcarrier spacing and first symbol duration; the plurality of bandwidth portions having at least one second bandwidth portion that is assigned to a second numerology, the second numerology having an associated second OFDM subcarrier spacing and second symbol duration; the first OFDM subcarrier spacing being one of 7.5 kHz, 15 kHz, 30 kHz, or 60 kHz; and the second OFDM subcarrier spacing being a different one of 7.5 kHz, 15 kHz, 30 kHz, or 60 kHz; characterized by transmitting a resource block allocation field to indicate an allocation of resource blocks within the indicated at least one first bandwidth portion assigned to the first numerology; the resource block allocation field having a size that is proportional to a size of a bandwidth over which resource block allocation is performed, wherein the available bandwidth is divided into the plurality of bandwidth portions, which are used as the unit of assignment for assigning at least one sub-band to each of the first and second numerology, and wherein a sub-band comprises a contiguous set of one or more bandwidth portions.
A data packet transmission method executed by a receiving device or a chip of a receiving device, wherein the receiving device is a terminal or a network device, the method comprising: receiving an N-th data packet by a protocol layer entity, wherein the N-th data packet is in an undelivered state, in which the N-th data packet has not yet been delivered by the protocol layer entity to an upper protocol layer entity or to a core network device, since a data packet before the N-th data packet in a reordering window has not yet been received; and delivering the N-th data packet during running of a reordering timer upon an arrival of a delay cut-off moment corresponding to the N-th data packet or an arrival of a delay cut-off moment of a data packet before the N-th data packet in the reordering window; characterized by wherein the N-th data packet carries a sending moment of the N-th data packet, and the method further comprises: determining the delay cut-off moment corresponding to the N-th data packet based on the sending moment of the N-th data packet and a transmission delay budget; or wherein data packets are sent periodically, and the method further comprises determining the delay cut-off moment corresponding to the N-th data packet as T d + (N - 1) S, wherein T d is a delay cut-off moment corresponding to a 1st data packet, S is a data packet sending period, N is a sequence number of the N-th data packet, and N is greater than or equal to 1. receiving an N-th data packet by a protocol layer entity, wherein the N-th data packet is in an undelivered state, in which the N-th data packet has not yet been delivered by the protocol layer entity to an upper protocol layer entity or to a core network device, since a data packet before the N-th data packet in a reordering window has not yet been received; and delivering the N-th data packet during running of a reordering timer upon an arrival of a delay cut-off moment corresponding to the N-th data packet or an arrival of a delay cut-off moment of a data packet before the N-th data packet in the reordering window; characterized by wherein the N-th data packet carries a sending moment of the N-th data packet, and the method further comprises: determining the delay cut-off moment corresponding to the N-th data packet based on the sending moment of the N-th data packet and a transmission delay budget; or wherein data packets are sent periodically, and the method further comprises determining the delay cut-off moment corresponding to the N-th data packet as T d + (N - 1) S, wherein T d is a delay cut-off moment corresponding to a 1st data packet, S is a data packet sending period, N is a sequence number of the N-th data packet, and N is greater than or equal to 1.
A method for determining an energy consumption based on three-dimensional, 3D, motion tracking using an electronic device, comprising: determining a weight and a height of a user's body comprising a plurality of body segments, each body segments attached with a reference point; determining volumetric weights of each body segment based on the weight and the height of the user's body; selecting at least one body segment of the plurality of the body segments as an analysis target; calculating a motion quantity of the analysis target by multiplying each volumetric weight of at least one body segment by an amount of a movement of respective reference point using a three-dimensional, 3D, vector to analyze the reference point; and determining an energy consumption of the analysis target on the basis of the motion quantity wherein the amount of movement of a given reference point is calculated by setting the location of said reference point before the motion of the analysis target as an origin in 3D space and determining the moving distance, moving speed and/or angle of said reference point after the lapse of a predetermined time. determining a weight and a height of a user's body comprising a plurality of body segments, each body segments attached with a reference point; determining volumetric weights of each body segment based on the weight and the height of the user's body; selecting at least one body segment of the plurality of the body segments as an analysis target; calculating a motion quantity of the analysis target by multiplying each volumetric weight of at least one body segment by an amount of a movement of respective reference point using a three-dimensional, 3D, vector to analyze the reference point; and determining an energy consumption of the analysis target on the basis of the motion quantity wherein the amount of movement of a given reference point is calculated by setting the location of said reference point before the motion of the analysis target as an origin in 3D space and determining the moving distance, moving speed and/or angle of said reference point after the lapse of a predetermined time.
Perfected portable air conditioner provided with an external container comprising internally a refrigerating circuit having at least a compressor, a condenser, an expansion member and an evaporator, there also being present a fan that generates a stream of air passing through the condenser, characterized in that said refrigerating circuit has an auxiliary exchanger inside which a hot gas exiting from the compressor is made to circulate, before being sent to the condenser, for a first reduction in temperature, said auxiliary exchanger being disposed with respect to said fan and said condenser in such a way that the same stream of air arriving from the fan hits first the condenser and then the auxiliary exchanger, and in that said auxiliary exchanger is a de-superheater.
A method for the automated collection of data comprising: electronically receiving information defining a geofence around a geographic area; electronically collecting data associated with a vehicle while the vehicle is operated outside the geofenced area, wherein the data collected is selected from the group consisting of (a) image data collected via one or more imaging devices disposed on the vehicle and (b) telematics data via one or more data collection devices disposed on the vehicle; characterized in, monitoring the location of the vehicle; determining whether the vehicle has entered the geofenced area; and after determining the vehicle has entered the geofenced area, automatically stopping the collection of the data while the vehicle is operated within the geofenced area. electronically receiving information defining a geofence around a geographic area; electronically collecting data associated with a vehicle while the vehicle is operated outside the geofenced area, wherein the data collected is selected from the group consisting of (a) image data collected via one or more imaging devices disposed on the vehicle and (b) telematics data via one or more data collection devices disposed on the vehicle; characterized in, monitoring the location of the vehicle; determining whether the vehicle has entered the geofenced area; and after determining the vehicle has entered the geofenced area, automatically stopping the collection of the data while the vehicle is operated within the geofenced area.
A disposable cup (1, 31, 51, 81) comprising a tamper evident removable membrane (7, 63, 87) secured at or near a rim (3, 69) of an open end thereof to seal the cup (1, 31, 51, 81), characterised in that it comprises a plurality of compartments (13, 35, 53, 83) which make up an operatively bottom region (12, 33, 55) of the cup (1, 31, 51, 81) and that are at least partially filled with a consumable product, wherein the operatively bottom region (12, 33, 55) of the cup (1, 31, 51, 81) is at least partially deformable under externally applied force to facilitate dislodgement of the consumable product from the compartments (13, 35, 53, 83), and the membrane (7, 63, 87) includes a sleeve which is shaped and dimensioned to correspond to an inner side surface (20, 45) of the cup (1, 31, 51, 81) extending at least partially into the cup (1, 31, 51, 81), and a radially extending disc-shaped base (23, 61, 89) substantially spanning a diameter of the cup (1, 31, 51, 81).
A debris sensor, comprising: a body including a first end and a second end; a magnetic chip collector connected to the body, wherein the magnetic chip collector is configured as a source of a magnetic field so as to capture ferrous particles; a ferrous particle sensor connected to the body, wherein the ferrous particle sensor is configured to sense changes in the magnetic field caused by ferrous particles in the magnetic field; a conductive particle sensor connected to the body, characterized in that: the magnetic chip collector is connected to the body at a position closer to the second end than the ferrous particle sensor, and a plurality of magnets (50, 52) is disposed closer to the second end than the magnetic chip collector; wherein a sensing coil (62, 64) of the conductive particle sensor is configured to sense magnetic fields generated by eddy currents created in conductive particles as the conductive particles flow through a magnetic field created by the plurality of magnets (50, 52). a body including a first end and a second end; a magnetic chip collector connected to the body, wherein the magnetic chip collector is configured as a source of a magnetic field so as to capture ferrous particles; a ferrous particle sensor connected to the body, wherein the ferrous particle sensor is configured to sense changes in the magnetic field caused by ferrous particles in the magnetic field; a conductive particle sensor connected to the body, characterized in that: the magnetic chip collector is connected to the body at a position closer to the second end than the ferrous particle sensor, and a plurality of magnets (50, 52) is disposed closer to the second end than the magnetic chip collector; the magnetic chip collector is connected to the body at a position closer to the second end than the ferrous particle sensor, and a plurality of magnets (50, 52) is disposed closer to the second end than the magnetic chip collector; wherein a sensing coil (62, 64) of the conductive particle sensor is configured to sense magnetic fields generated by eddy currents created in conductive particles as the conductive particles flow through a magnetic field created by the plurality of magnets (50, 52).
Use of an additive in an epoxy adhesive containing an epoxy resin, the additive comprising a star-shaped star polymer having a core/shell structure dispersed in a form of a micelle or vesicle in the epoxy resin contained in the epoxy adhesive, wherein the star polymer is formed via atomic transfer radical polymerization (ATRP) between an arm-polymer and a cross-linker, wherein the arm-polymer includes a polyacrylate having one halogenated terminal, and the cross-linker includes a diacrylate-based compound or a dimethacrylate-based compound, wherein the core includes a polymer resulting from polymerization of the cross-linker, and a portion of the armpolymer constitutes the shell, wherein the state of the star polymers in the epoxy resin is measured by transmission electron microscope.
A method for manufacturing a concentrating photovoltaic solar sub-module equipped with a reflective face having a concave predefined geometric shape, characterised in that it comprises laminating, in a single step, a multi-layer assembly comprising in succession: - a structural element (F, P, RD) equipped with a reflective first face and a second face, opposite the first; - a dissipative layer of a material with a thermal conductivity which is higher than that of the material from which the structural element is composed, said dissipative layer being placed on the second face of the structural element; - a layer of encapsulant or of adhesive; - a photovoltaic receiver, the layer of encapsulant or of adhesive being placed between the dissipative layer and the receiver; - a layer made of transparent encapsulating material, covering at least the entire surface of the photovoltaic receiver; and - a transparent protective layer covering the layer made of transparent encapsulating material; and in that, during the lamination, the reflective face of the structural element is shaped by being brought into contact with a convex surface of a counter-mold, in order to obtain the reflective face of concave predefined geometric shape. - a structural element (F, P, RD) equipped with a reflective first face and a second face, opposite the first; - a dissipative layer of a material with a thermal conductivity which is higher than that of the material from which the structural element is composed, said dissipative layer being placed on the second face of the structural element; - a layer of encapsulant or of adhesive; - a photovoltaic receiver, the layer of encapsulant or of adhesive being placed between the dissipative layer and the receiver; - a layer made of transparent encapsulating material, covering at least the entire surface of the photovoltaic receiver; and - a transparent protective layer covering the layer made of transparent encapsulating material;
A stent delivery system, comprising: an inner shaft having a distal region; a stent disposed about the distal region; a deployment sheath slidably disposed about the inner shaft; and a handle coupled to the inner shaft; the handle including a clip member having a first holding portion and a second holding portion; wherein the inner shaft extends through the first holding portion and the second holding portion; and a holding cuff thermally bonded to the inner shaft, the holding cuff being positioned between the first holding portion and the second holding portion. an inner shaft having a distal region; a stent disposed about the distal region; a deployment sheath slidably disposed about the inner shaft; and a handle coupled to the inner shaft; the handle including a clip member having a first holding portion and a second holding portion; wherein the inner shaft extends through the first holding portion and the second holding portion; and a holding cuff thermally bonded to the inner shaft, the holding cuff being positioned between the first holding portion and the second holding portion.
A secondary air flow biasing apparatus for a circulating fluidized bed combustion system, comprising: a sorbent feed path configured to convey processed sorbent particles to a circulating fluidized bed furnace by utilizing a portion of secondary combustion air supplied to the circulating fluidized bed furnace; a first air injection port configured to be disposed within a wall of a lower portion of the circulating fluidized bed furnace, at a first elevation above a primary air distribution grate of the circulating fluidized bed furnace; a second air injection port configured to be disposed within the wall of the lower portion of the circulating fluidized bed furnace, at a second elevation above the first elevation; characterized in, that it comprises an air/sorbent separation device in fluid communication with the sorbent feed path, the separation device configured to separate a substantial portion of the secondary combustion air in the sorbent feed path from the processed sorbent particles in the sorbent feed path such that a relatively lean sorbent-to-air mixture is introduced through the second air injection port and a relatively rich sorbent-to-air mixture is introduced through the first air injection port. a sorbent feed path configured to convey processed sorbent particles to a circulating fluidized bed furnace by utilizing a portion of secondary combustion air supplied to the circulating fluidized bed furnace; a first air injection port configured to be disposed within a wall of a lower portion of the circulating fluidized bed furnace, at a first elevation above a primary air distribution grate of the circulating fluidized bed furnace; a second air injection port configured to be disposed within the wall of the lower portion of the circulating fluidized bed furnace, at a second elevation above the first elevation; characterized in, that it comprises an air/sorbent separation device in fluid communication with the sorbent feed path, the separation device configured to separate a substantial portion of the secondary combustion air in the sorbent feed path from the processed sorbent particles in the sorbent feed path such that a relatively lean sorbent-to-air mixture is introduced through the second air injection port and a relatively rich sorbent-to-air mixture is introduced through the first air injection port.
Method for detection of a methicillin resistant coagulase positive Staphylococcus aureus (MRSA) strain by means of a sequence specific amplification reaction, whereby the strain to be detected comprises a chromosomal Staphylococcus mec (SSCmec) cassette, wherein one or more first forward primer(s), preferably 3, 2 or most preferably 1 forward primer, is used in the amplification reaction, of which the 5' end hybridizes to the target DNA sequence within the SSCmec cassette and the 3' end hybridizes in the adjacent chromosomal DNA, characterized in that a first forward primer(s) comprises a sequence according to SEQ ID NO 1 (CATCATTTATGGTATGCTTCTCCAC), wherein the 3' end of SEQ ID NO 1 comprises no additional nucleotides.
Method of operating a variable speed wind turbine as a function of a wind speed, the wind turbine having a rotor with a plurality of blades, and one or more pitch mechanisms for rotating the blades, and the method comprising in steady-state conditions following a power curve describing the operation of the wind turbine as a function of wind speed, the power curve comprising a sub-nominal zone of operation for wind speeds below the nominal wind speed and a supra-nominal zone of operation for wind speeds above the nominal wind speed, and wherein in steady-state conditions in the sub-nominal zone of operation, the blades are not pitched, and wherein the sub-nominal zone of operation comprises a first operational range, a second operational range and a third operational range, wherein the first operational range extends from a cut-in wind speed to a first wind speed, wherein the rotor speed is kept substantially constant at a first value, the second operational range extends from the first wind speed to a second wind speed, wherein both the rotor speed and generator torque are varied as a function of wind speed, and the third operational range extends from the second wind speed to the nominal wind speed, wherein the rotor speed is kept substantially constant at a second value, and the method further comprising in transient conditions in which the wind turbine cannot follow the power curve in the second operational range, changing the pitch angles of the blades. the first operational range extends from a cut-in wind speed to a first wind speed, wherein the rotor speed is kept substantially constant at a first value, the second operational range extends from the first wind speed to a second wind speed, wherein both the rotor speed and generator torque are varied as a function of wind speed, and the third operational range extends from the second wind speed to the nominal wind speed, wherein the rotor speed is kept substantially constant at a second value, and