mhurhangee/patent-ind-claim-en huggingface dataset:
A user equipment, UE , comprising: receiving circuitry configured to: receive a Radio Resource Control, RRC, message comprising information used for configuring at least a periodicity, a number of repetitions, an offset of a resource with respect to system frame number equal to 0, a time domain allocation, a frequency domain allocation, and a frequency hopping offset; processing circuitry configured to: determine, based on at least the periodicity, the offset, the time domain allocation, and the frequency domain allocation, a first physical uplink shared channel, PUSCH, resource; and determine, based on at least the frequency hopping offset, one or more second PUSCH resources; and transmitting circuitry configured to: perform, based on the number of repetitions, repetitions of a transport block, TB, on a plurality of PUSCH resources with frequency hopping in consecutive slots, the plurality of PUSCH resources comprising the first PUSCH resource and the one or more second PUSCH resources receiving circuitry configured to: receive a Radio Resource Control, RRC, message comprising information used for configuring at least a periodicity, a number of repetitions, an offset of a resource with respect to system frame number equal to 0, a time domain allocation, a frequency domain allocation, and a frequency hopping offset; processing circuitry configured to: determine, based on at least the periodicity, the offset, the time domain allocation, and the frequency domain allocation, a first physical uplink shared channel, PUSCH, resource; and determine, based on at least the frequency hopping offset, one or more second PUSCH resources; and determine, based on at least the periodicity, the offset, the time domain allocation, and the frequency domain allocation, a first physical uplink shared channel, PUSCH, resource; and determine, based on at least the frequency hopping offset, one or more second PUSCH resources; and transmitting circuitry configured to: perform, based on the number of repetitions, repetitions of a transport block, TB, on a plurality of PUSCH resources with frequency hopping in consecutive slots, the plurality of PUSCH resources comprising the first PUSCH resource and the one or more second PUSCH resources
A method of data communication, comprising: transmitting a sequence start condition over a data wire of a serial bus, the sequence start condition indicating whether clock pulses are to be provided in a clock signal on a clock wire of the serial bus concurrently with a transaction initiated by the sequence start condition; transmitting a first datagram over the serial bus when the sequence start condition indicates that the clock pulses are to be concurrently provided in the clock signal; and transmitting a second datagram over the serial bus when the sequence start condition indicates that no clock pulses are to be concurrently provided in the clock signal, wherein the second datagram is transmitted in a data signal with embedded timing information. transmitting a sequence start condition over a data wire of a serial bus, the sequence start condition indicating whether clock pulses are to be provided in a clock signal on a clock wire of the serial bus concurrently with a transaction initiated by the sequence start condition; transmitting a first datagram over the serial bus when the sequence start condition indicates that the clock pulses are to be concurrently provided in the clock signal; and transmitting a second datagram over the serial bus when the sequence start condition indicates that no clock pulses are to be concurrently provided in the clock signal, wherein the second datagram is transmitted in a data signal with embedded timing information.
A link recovery method performed by a terminal device, comprising: determining (S310), by the terminal device, a link failure of a first control resource set, CORESET, 0, wherein the first CORESET is associated with a first synchronization signal block, SSB; determining (S320), by the terminal device, a second SSB from a SSB set, wherein a signal quality of the second SSB is greater than or equal to a threshold; and sending (S330), by the terminal device, a link failure recovery request to a network device, wherein the link failure recovery request comprises information indicating the second SSB, wherein the link failure recovery request is used to request to recover a communication link based on the second SSB, characterized in that the method further comprises: detecting, by the terminal device, on a second CORESET 0, downlink control information, sent by the network device, in a common search space, CSS, set associated with the first CORESET 0, wherein the second CORESET 0 is associated with the second SSB. determining (S310), by the terminal device, a link failure of a first control resource set, CORESET, 0, wherein the first CORESET is associated with a first synchronization signal block, SSB; determining (S320), by the terminal device, a second SSB from a SSB set, wherein a signal quality of the second SSB is greater than or equal to a threshold; and sending (S330), by the terminal device, a link failure recovery request to a network device, wherein the link failure recovery request comprises information indicating the second SSB, wherein the link failure recovery request is used to request to recover a communication link based on the second SSB, characterized in that the method further comprises: detecting, by the terminal device, on a second CORESET 0, downlink control information, sent by the network device, in a common search space, CSS, set associated with the first CORESET 0, wherein the second CORESET 0 is associated with the second SSB.
A method of communicating data employing a time division duplex, TDD, or half duplex frequency division duplex, FDD, arrangement, the method comprising the following steps: - a base station transmitting data blocks in allocated downlink sub-frames to a terminal, - the base station receiving feedback reports for the data blocks in allocated uplink sub-frames from the terminal, the feedback reports indicating whether errors have occurred in the data blocks, wherein the number of the allocated downlink sub-frames exceeds the number of the allocated uplink sub-frames and the feedback reports are scheduled in the allocated uplink sub-frames according to a predetermined spreading rule known by the base station and the terminal, dictating that the feedback reports are distributed evenly over the allocated uplink sub-frames, and - based on the predetermined spreading rule, the base station deriving which of the allocated downlink sub-frames each feedback report refers to. - a base station transmitting data blocks in allocated downlink sub-frames to a terminal, - the base station receiving feedback reports for the data blocks in allocated uplink sub-frames from the terminal, the feedback reports indicating whether errors have occurred in the data blocks, wherein the number of the allocated downlink sub-frames exceeds the number of the allocated uplink sub-frames and the feedback reports are scheduled in the allocated uplink sub-frames according to a predetermined spreading rule known by the base station and the terminal, dictating that the feedback reports are distributed evenly over the allocated uplink sub-frames, and - based on the predetermined spreading rule, the base station deriving which of the allocated downlink sub-frames each feedback report refers to.
Filling apparatus for filling a refrigerant-receiving compartment , which is assigned to a cooling container for cooling products, with carbon dioxide snow, having a supply unit and having a filling pistol which is couplable to the supply unit , wherein the filling pistol has an expansion nozzle , which is connectable to at least one filling opening of the refrigerant-receiving compartment and which serves for the feed of liquid carbon dioxide, and a suction-extraction opening , which is connectable to a gas outlet opening of the refrigerant receiving compartment and which serves for discharging gaseous carbon dioxide, and said filling pistol is connected to the supply unit by means of a carbon dioxide liquid feed line , which is connected in terms of flow to the at least one filling opening , and by means of a suction-extraction line , which is connected in terms of flow to the suction-extraction opening , and having a control valve for regulating the feed of liquid carbon dioxide into the carbon dioxide liquid feed line , a suction-extraction device for the suction-extraction of gaseous carbon dioxide from the suction-extraction line , and a control and monitoring unit for controlling the filling process, characterized in that the expansion nozzle is equipped with at least two nozzle heads which protrude substantially parallel to one another from a front section of the expansion nozzle and which have in each case at least one nozzle opening , wherein the nozzle openings of the nozzle heads are in each case directed towards one another and arranged so as to be inclined in the direction of the front section of the expansion nozzle .
A flame-retardant optical cable comprising a polymeric central loose tube housing optical fibres , and a metallic armour surrounding the polymeric central loose tube , characterized by a multi-layered sheath surrounding and in direct contact with the metallic armour , wherein the multi-layered sheath comprises an inner layer , an intermediate layer and an outer layer , all made of a LSOH flame-retardant material, the LSOH material of the intermediate layer having a limiting oxygen index (LOI) higher than the LOI of the LSOH material of the inner layer and of the outer layer .
A vehicle comprising at least one sensor arranged to determine the width of a gap faced or entered by the vehicle in its direction of travel, a processing unit arranged to compare the determined width of the gap to a set distance thereby to determine if the vehicle and/or an object towed by the vehicle can be driven through the gap, and a driver interface arranged to output a result to a driver of the vehicle if the processing unit determines that the vehicle and/or an object towed by the vehicle can be driven through the gap, characterised in that the processing unit is operable to compare the distance from one edge defining the gap to the vehicle to the distance from the other edge defining the gap to the vehicle so as to determine a misalignment distance, which indicates how misaligned the centre of the vehicle is with the centre of the gap, the driver interface is arranged to output an indication of whether the centres are aligned or not to a driver of the vehicle , and the indication comprises information on how misaligned the centre of the vehicle and the centre of the gap are, including the misalignment distance and the direction the vehicle must move to align the centres.
A sheet for covering products, said sheet comprising at least one layer made of a highly reflective moisture vapor permeable substrate, the substrate having an outer side and an inner side as seen from the protected product, wherein said outer side has a light reflectivity of greater than 65% of visible light, and wherein said inner side comprises in addition at least one metal layer having an emissivity of less than 0.35 to provide a thermal insulation through high reflection and low convection while providing controlled moisture vapor permeability, characterized in that said sheet further comprising a sealed layer containing a coolant, an evaporation part (EP) and a condensation part (CP), such that the coolant flows to the evaporation part to evaporate toward the condensation part to then condensate, thus dissipating heat.
A user equipment, UE , in a communication system, the UE comprising: a transceiver ; and a controller coupled with the transceiver and configured to: receive a number of physical downlink control channels, PDCCHs, that include downlink control information, DCI, formats scheduling receptions of physical downlink shared channels, PDSCHs, that include transport blocks, TBs, and transmit a physical uplink control channel, PUCCH, that includes a number of hybrid automatic repeat request acknowledgement, HARQ-ACK, information bits in response to the receptions of the TBs in the PDSCHs on a PUCCH resource, characterized in that wherein the PUCCH resource is determined from a field in a last DCI format among the DCI formats being ordered, wherein the field in the last DCI format indicates the PUCCH resource from a set of PUCCH resources determined based on the number of HARQ-ACK information bits. a transceiver ; and a controller coupled with the transceiver and configured to: receive a number of physical downlink control channels, PDCCHs, that include downlink control information, DCI, formats scheduling receptions of physical downlink shared channels, PDSCHs, that include transport blocks, TBs, and transmit a physical uplink control channel, PUCCH, that includes a number of hybrid automatic repeat request acknowledgement, HARQ-ACK, information bits in response to the receptions of the TBs in the PDSCHs on a PUCCH resource, characterized in that wherein the PUCCH resource is determined from a field in a last DCI format among the DCI formats being ordered, wherein the field in the last DCI format indicates the PUCCH resource from a set of PUCCH resources determined based on the number of HARQ-ACK information bits. receive a number of physical downlink control channels, PDCCHs, that include downlink control information, DCI, formats scheduling receptions of physical downlink shared channels, PDSCHs, that include transport blocks, TBs, and transmit a physical uplink control channel, PUCCH, that includes a number of hybrid automatic repeat request acknowledgement, HARQ-ACK, information bits in response to the receptions of the TBs in the PDSCHs on a PUCCH resource, characterized in that wherein the PUCCH resource is determined from a field in a last DCI format among the DCI formats being ordered, wherein the field in the last DCI format indicates the PUCCH resource from a set of PUCCH resources determined based on the number of HARQ-ACK information bits.
A pedestal comprising: a frame portion on which a plurality of legs coupled to a bottom surface of a laundry processor are seatable; a housing configured to surround the frame portion; a plurality of seat portions recessively formed on an upper portion of the housing in a body with the housing to form a plurality of leg seat points, and characterized in that : the plurality of seat portions form openings to expose a part of the frame portion to the outside of the housing, and the plurality of seat portions are formed to be bent so that the seat portions become narrower in a direction from an upper portion of the housing to an inside of the housing. a frame portion on which a plurality of legs coupled to a bottom surface of a laundry processor are seatable; a housing configured to surround the frame portion; a plurality of seat portions recessively formed on an upper portion of the housing in a body with the housing to form a plurality of leg seat points, and characterized in that : the plurality of seat portions form openings to expose a part of the frame portion to the outside of the housing, and the plurality of seat portions are formed to be bent so that the seat portions become narrower in a direction from an upper portion of the housing to an inside of the housing. the plurality of seat portions form openings to expose a part of the frame portion to the outside of the housing, and the plurality of seat portions are formed to be bent so that the seat portions become narrower in a direction from an upper portion of the housing to an inside of the housing.
A window member comprising a transparent substrate , wherein in plan view of the window member , the transparent substrate itself includes a first region (A), and a second region (B) having higher radio-wave transmissivity than the first region (A), wherein the transparent substrate comprises a first glass sheet , and a second glass sheet which is laminated to the first glass sheet via an intermediate film , wherein the second glass sheet has a non-overlapped portion which is not overlapped with the first glass sheet , and the second region (B) is defined in the non-overlapped portion , wherein the non-overlapped portion is not overlapped with the first glass sheet in at least a part of an edge portion of the second glass sheet , wherein a radio-wave transmitting material having higher radio-wave transmissivity than the first region (A) is disposed in the non-overlapped portion , wherein the radio-wave transmitting material is a resin, wherein the intermediate film is removed correspondingly to the non-overlapped portion , and characterised in that the radio-wave transmitting material has a property adhering to the first glass sheet and the second glass sheet . wherein in plan view of the window member , the transparent substrate itself includes a first region (A), and a second region (B) having higher radio-wave transmissivity than the first region (A), wherein the transparent substrate comprises a first glass sheet , and a second glass sheet which is laminated to the first glass sheet via an intermediate film , wherein the second glass sheet has a non-overlapped portion which is not overlapped with the first glass sheet , and the second region (B) is defined in the non-overlapped portion , wherein the non-overlapped portion is not overlapped with the first glass sheet in at least a part of an edge portion of the second glass sheet , wherein a radio-wave transmitting material having higher radio-wave transmissivity than the first region (A) is disposed in the non-overlapped portion , wherein the radio-wave transmitting material is a resin, wherein the intermediate film is removed correspondingly to the non-overlapped portion , and characterised in that the radio-wave transmitting material has a property adhering to the first glass sheet and the second glass sheet .
An image processing device configured to process image data obtained externally, the image processing device comprising: a preprocessing circuit configured to carry out preprocessing during processing of said image data; and a circuit configuration controller configured to carry out partial reconfiguration of the preprocessing circuit for processing of said image data; the preprocessing circuit including: a plurality of arithmetic converter circuits configured to perform arithmetic computations on said image data to convert the image data; and a timing control circuit provided between each one in the plurality of arithmetic converter circuits connected in order of processing, the timing control circuit configured to secure the reliable exchange of data; wherein the image processing device halts operation of the arithmetic converter circuits , the circuit configuration controller partially reconfigures the preprocessing circuit by reconfiguring at least one arithmetic converter circuit in the plurality of arithmetic converter circuits while excluding the timing control circuit from reconfiguration, and the image processing device starts operation of the arithmetic converter circuits after circuit reconfiguration processes end for all of the arithmetic converter circuits requiring reconfiguration. a preprocessing circuit configured to carry out preprocessing during processing of said image data; and a circuit configuration controller configured to carry out partial reconfiguration of the preprocessing circuit for processing of said image data; the preprocessing circuit including: a plurality of arithmetic converter circuits configured to perform arithmetic computations on said image data to convert the image data; and a timing control circuit provided between each one in the plurality of arithmetic converter circuits connected in order of processing, the timing control circuit configured to secure the reliable exchange of data; wherein a plurality of arithmetic converter circuits configured to perform arithmetic computations on said image data to convert the image data; and a timing control circuit provided between each one in the plurality of arithmetic converter circuits connected in order of processing, the timing control circuit configured to secure the reliable exchange of data; wherein the image processing device halts operation of the arithmetic converter circuits , the circuit configuration controller partially reconfigures the preprocessing circuit by reconfiguring at least one arithmetic converter circuit in the plurality of arithmetic converter circuits while excluding the timing control circuit from reconfiguration, and the image processing device starts operation of the arithmetic converter circuits after circuit reconfiguration processes end for all of the arithmetic converter circuits requiring reconfiguration.
Robot vacuum cleaner comprising a mobile base and a hand vacuum cleaner , with first reception means being arranged between the mobile base and the hand vacuum cleaner to enable their engagement into one another in order to vacuum clean a surface by means of the hand vacuum cleaner during displacements of the mobile base on said surface , said hand vacuum cleaner being removable from said mobile base for the individual use thereof, characterised in that the hand vacuum cleaner comprises a body and a suction tube provided at its end with a first nozzle , the first reception means comprising a housing shaped like a funnel communicating with a suction inlet under the mobile base by means of a second nozzle , the first and second nozzles being configured to fit into one another when the body and the suction tube are engaged in the housing , the shapes of the body and of the suction tube fitting with those of the housing .
Method for processing disposed cooling equipment, the method comprising the following steps: - removal of coolants from the cooling equipment; - separating insulation foam and transporting it to a closed environment , where the insulation foam is pulverized to release foaming agents; - collecting the coolants and collecting the foaming agents released in the closed environment ; - separating the collected foaming agents and the coolants at least into one or more CFC fractions and one or more hydrocarbon fractions by distillation by gradually increasing the temperature. - removal of coolants from the cooling equipment; - separating insulation foam and transporting it to a closed environment , where the insulation foam is pulverized to release foaming agents; - collecting the coolants and collecting the foaming agents released in the closed environment ; - separating the collected foaming agents and the coolants at least into one or more CFC fractions and one or more hydrocarbon fractions by distillation by gradually increasing the temperature.