mhurhangee/ep-ind-claims huggingface dataset:
A secondary battery comprising: an electrode assembly; a case accommodating the electrode assembly, the case having an opening at a first end sized to accommodate the electrode assembly and a terminal hole at a second end opposite to the first end; a first current collector plate coupled to the electrode assembly; a terminal electrically coupled to the first current collector plate and extending through the terminal hole in the case; and a cap plate sealing the opening of the case; and an insulation member between the terminal and the case, wherein the case comprises a protrusion that protrudes in one direction along an edge of the terminal hole, towards the inside of the case or towards the outside of the case, and wherein the insulation member is coupled around an outer peripheral surface of the protrusion. an electrode assembly; a case accommodating the electrode assembly, the case having an opening at a first end sized to accommodate the electrode assembly and a terminal hole at a second end opposite to the first end; a first current collector plate coupled to the electrode assembly; a terminal electrically coupled to the first current collector plate and extending through the terminal hole in the case; and a cap plate sealing the opening of the case; and an insulation member between the terminal and the case, wherein the case comprises a protrusion that protrudes in one direction along an edge of the terminal hole, towards the inside of the case or towards the outside of the case, and wherein the insulation member is coupled around an outer peripheral surface of the protrusion.
Rotor cup for an open-end spinning rotor, in which a fiber material is able to be spun, and which has a coupling device for detachable connection to a rotor shaft of the spinning rotor, wherein the coupling device includes a positive-locking connection for the transmission of the turning moment between the rotor cup and the rotor shaft along with a magnetic device for the axial connection of the rotor shaft and the rotor cup, characterized in that the rotor cup has as coupling device at least one recess for a projection of the rotor shaft, wherein the recess includes a first, cylindrical section and a second section having at least one torque-transmitting mating portion in the form of at least one torque-transmitting surface, wherein the coupling device is arranged directly on the rotor cup without interposition of further components and that, a socket for a permanent magnet is arranged on the rotor cup, in particular in the bottom of the rotor cup, wherein the socket for the permanent magnet is formed by a bore hole.
A method for wireless communication at a user equipment, UE, the method comprising: monitoring a plurality of control channels, wherein each control channel of the plurality of control channels is configured to include a slot format indication, SFI, for one or more slots; detecting the SFI on at least one control channel of the plurality of control channels; identifying a set of symbols in a slot to transmit radio resource control, RRC, configured uplink signals to a base station; determining whether the set of symbols in the slot is configured as uplink, flexible, or downlink based at least in part on the at least one detected SFI of the plurality of control channels; transmitting the RRC configured uplink signals when it is determined that the set of symbols in the slot is configured as uplink; and canceling transmission of the RRC configured uplink signals when it is determined that the set of symbols in the slot is configured as flexible or downlink. monitoring a plurality of control channels, wherein each control channel of the plurality of control channels is configured to include a slot format indication, SFI, for one or more slots; detecting the SFI on at least one control channel of the plurality of control channels; identifying a set of symbols in a slot to transmit radio resource control, RRC, configured uplink signals to a base station; determining whether the set of symbols in the slot is configured as uplink, flexible, or downlink based at least in part on the at least one detected SFI of the plurality of control channels; transmitting the RRC configured uplink signals when it is determined that the set of symbols in the slot is configured as uplink; and canceling transmission of the RRC configured uplink signals when it is determined that the set of symbols in the slot is configured as flexible or downlink.
A system comprising a wet scrubber with at least a first spray level and a second spray level, downwardly spraying nozzles on each the first spray level and the second spray level arranged in vertical alignment one above the other, upwardly spraying anti-clogging nozzles alternating between the downwardly spraying nozzles on each the first spray level and the second spray level also arranged in vertical alignment one above the other, wherein each upwardly spraying anti-clogging nozzle comprises an upward extending portion with a spray orifice for dispersion of absorption liquid and an opposed extended portion with a spray orifice for dispersion of absorption liquid, the anti-clogging nozzle operable for particulate flow from the upward extending portion to the opposed extended portion to prevent particulate clogging of the upward extending portion, wherein the spray orifice of the upward extending portion of anti-clogging nozzle is sized approximately the same as the spray orifice of the downwardly spraying nozzle and the spray orifice of the opposed extended portion is smaller than the spray orifice of the upward extending portion of the anti-clogging nozzle and the spray orifice of the nozzle such that an absorption liquid is atomized or dispersed from at least a portion of the downwardly spraying nozzles and at least a portion of the upwardly spraying anti-clogging nozzles, wherein about 80% or more, or about 90% or more of the absorption liquid sprayed from the anti-clogging nozzles is sprayed upwardly from the upward extending portion and about 20% or less, or about 10% or less of the absorption liquid sprayed from the upwardly spraying anti-clogging nozzles is sprayed downwardly from the opposed extended portion.
A method for the production of a biopharmaceutical product, comprising: (a) infecting a biopharmaceutical-producing insect cell with at least one baculovirus, said at least one baculovirus comprising a genome coding for said biopharmaceutical product, and (b) maintaining the biopharmaceutical-producing insect cell under conditions such that the biopharmaceutical product is produced, wherein the genome of said at least one baculovirus is deficient for vp80 or wherein said biopharmaceutical-producing insect cell comprises an expression control system allowing the inactivation of vp80. (a) infecting a biopharmaceutical-producing insect cell with at least one baculovirus, said at least one baculovirus comprising a genome coding for said biopharmaceutical product, and (b) maintaining the biopharmaceutical-producing insect cell under conditions such that the biopharmaceutical product is produced, wherein the genome of said at least one baculovirus is deficient for vp80 or wherein said biopharmaceutical-producing insect cell comprises an expression control system allowing the inactivation of vp80.
An ink composition for inkjet recording, comprising: a dispersion medium configured to contain water and glycol ether of which boiling point is equal to or greater than 220 degrees centigrade, the glycol ether being any one of tripropylene glycol monomethyl ether, diethylene glycol isobutyl ether and triethylene glycol monobutyl ether; a pigment; and a core-shell particle configured to include a core consisting of hydrophobic acrylic resin and a shell consisting of at least one of aqueous urethane resin and acrylic graft aqueous urethane resin. a dispersion medium configured to contain water and glycol ether of which boiling point is equal to or greater than 220 degrees centigrade, the glycol ether being any one of tripropylene glycol monomethyl ether, diethylene glycol isobutyl ether and triethylene glycol monobutyl ether; a pigment; and a core-shell particle configured to include a core consisting of hydrophobic acrylic resin and a shell consisting of at least one of aqueous urethane resin and acrylic graft aqueous urethane resin.
An arrangement comprising a defrosting device and an evaporator, the defrosting device comprising: a heating unit provided at a lower portion of the evaporator; and a heat pipe connected to an inlet and an outlet of the heating unit, respectively, and having at least part thereof disposed adjacent to a cooling pipe of the evaporator such that the cooling pipe of the evaporator is heated by a working fluid of high temperature which is transferred in a heated state by the heating unit, the heating unit comprising a heater case and a heater, characterized by the heater case extending in one direction arranged in a left and right direction of the evaporator, and having the inlet and the outlet at both sides thereof, and the heater accommodated within the heater case and extending along a lengthwise direction of the heater case and provided with an active heating part for actively generating heat to heat the working fluid, and a passive heating part (171b") extending from the active heating part and heated up to temperature lower than temperature of the active heating part, wherein the active heating part and the passive heating part extend in a lengthwise direction of the heater, wherein the inlet is formed at a position away from the active heating part to prevent the working fluid returned after flowing along the heat pipe from being introduced directly into the active heating part.
A process for the of production of the compound of formula wherein as first step (step (ia)) a Darzens reaction is carried out between a compound of formula wherein R 1 is H or CH 3, preferably wherein R 1 is H, and a compound of formula wherein X is Cl or Br, preferably wherein X is Cl, and R 2 is C 1 -C 4 -alkyl, preferably methyl or ethyl, in the presence of MOR, wherein R is a C 1 -C 4 -alkyl group (preferably methyl or ethyl), and M signifies Na +, K + or Cs +, wherein from 1.0 to 1.1 mol equivalents of the compound of formula, based on the amount of the compound of formula, and from 1.0 to 1.1 mol equivalents of MOR, based on the amount of the compound of formula, is used and wherein step (ia) is carried out at a reaction temperature in the range of from -5°C to 5°C, followed by a second step (ib) whereby a saponification reaction in the presence of NaOH to form the compound of formula takes place, wherein step (ib) is carried out at room temperature and in step (ii) the compound of formula is undergoing a decarboxylation reaction to form the compound of formula, wherein step (ii) is carried out at room temperature. wherein as first step (step (ia)) a Darzens reaction is carried out between a compound of formula wherein R 1 is H or CH 3, preferably wherein R 1 is H, and a compound of formula wherein X is Cl or Br, preferably wherein X is Cl, and R 2 is C 1 -C 4 -alkyl, preferably methyl or ethyl, in the presence of MOR, wherein R is a C 1 -C 4 -alkyl group (preferably methyl or ethyl), and M signifies Na +, K + or Cs +, wherein from 1.0 to 1.1 mol equivalents of the compound of formula, based on the amount of the compound of formula, and from 1.0 to 1.1 mol equivalents of MOR, based on the amount of the compound of formula, is used and wherein step (ia) is carried out at a reaction temperature in the range of from -5°C to 5°C, followed by a second step (ib) whereby a saponification reaction in the presence of NaOH to form the compound of formula takes place, wherein step (ib) is carried out at room temperature and in step (ii) the compound of formula is undergoing a decarboxylation reaction to form the compound of formula, wherein step (ii) is carried out at room temperature.
A data packet processing method, comprising: sending, by a control plane network element (600, 610), a first request message to a user plane network element (700, 710), wherein the first request message is used to request to establish a first user plane channel between the control plane network element (600, 610) and the user plane network element (700, 710), and the first request message comprises a control plane side endpoint identifier of the first user plane channel; receiving, by the control plane network element (600, 610), a first response message from the user plane network element (700, 710), wherein the first response message is used to indicate that the first user plane channel is successfully established; and receiving, by the control plane network element (600, 610) via the first user plane channel, a first data packet sent by the user plane network element (700, 710), wherein the control plane network element (600, 610) and the user plane network element (700, 710) are network elements serving target user equipment, the control plane network element (600, 610) and the user plane network element (700, 710) of a same core network element are separated, and wherein the method is characterized in that the sending, by a control plane network element (600, 610), the first request message to a user plane network element (700, 710) comprises: sending, by the control plane network element (600, 610), the first request message to the user plane network element (700, 710) when the control plane network element (600, 610) determines that the target user equipment is in an idle mode. sending, by a control plane network element (600, 610), a first request message to a user plane network element (700, 710), wherein the first request message is used to request to establish a first user plane channel between the control plane network element (600, 610) and the user plane network element (700, 710), and the first request message comprises a control plane side endpoint identifier of the first user plane channel; receiving, by the control plane network element (600, 610), a first response message from the user plane network element (700, 710), wherein the first response message is used to indicate that the first user plane channel is successfully established; and receiving, by the control plane network element (600, 610) via the first user plane channel, a first data packet sent by the user plane network element (700, 710), wherein the control plane network element (600, 610) and the user plane network element (700, 710) are network elements serving target user equipment, the control plane network element (600, 610) and the user plane network element (700, 710) of a same core network element are separated, and wherein the method is characterized in that the sending, by a control plane network element (600, 610), the first request message to a user plane network element (700, 710) comprises: sending, by the control plane network element (600, 610), the first request message to the user plane network element (700, 710) when the control plane network element (600, 610) determines that the target user equipment is in an idle mode.
A DNA plasmid comprising a DNA sequence which contains (i) a first nucleotide sequence which encodes an mRNA molecule and, located downstream thereof, (ii) a second nucleotide sequence which encodes a modified poly tail, wherein said second nucleotide sequence is characterized in that it consists of (a) at least two A elements each defined as a nucleotide sequence consisting of 55 to 65 T nucleotides, and (b) at least one S element each S element consisting of one nucleotide that is not a T nucleotide, or 6 nucleotides, wherein each of the two terminal nucleotides is not a T nucleotide; wherein the total number of A elements is one more than the total number of S elements, and wherein any two A elements are separated by one S element. (i) a first nucleotide sequence which encodes an mRNA molecule and, located downstream thereof, (ii) a second nucleotide sequence which encodes a modified poly tail, wherein said second nucleotide sequence is characterized in that it consists of (a) at least two A elements each defined as a nucleotide sequence consisting of 55 to 65 T nucleotides, and (b) at least one S element each S element consisting of one nucleotide that is not a T nucleotide, or 6 nucleotides, wherein each of the two terminal nucleotides is not a T nucleotide; wherein the total number of A elements is one more than the total number of S elements, and wherein any two A elements are separated by one S element. (a) at least two A elements each defined as a nucleotide sequence consisting of 55 to 65 T nucleotides, and (b) at least one S element each S element consisting of one nucleotide that is not a T nucleotide, or 6 nucleotides, wherein each of the two terminal nucleotides is not a T nucleotide; one nucleotide that is not a T nucleotide, or 6 nucleotides, wherein each of the two terminal nucleotides is not a T nucleotide; wherein the total number of A elements is one more than the total number of S elements, and wherein any two A elements are separated by one S element.
A radiator for radiating heat of a refrigerant that is pressurized to supercritical pressure, the radiator comprising: Multiple plate fins extending in a vertical direction and disposed at a predetermined pitch; and a plurality of refrigerant flow passages (34A, 34B, 34C, 34D, 34E, 34F) formed in parallel by multiple heat transfer pipe groups inserted into the plate fins in multiple stages, wherein the plurality of refrigerant flow passages (34A, 34B, 34C, 34D, 34E, 34F) each include an inlet heat transfer pipe (40A, 40B, 40C) provided in upper parts of the plate fins, an outlet heat transfer pipe (42A1, 42A2, 42A, 42B, 42C) provided in lower parts of the plate fins, and an intermediate heat transfer pipe (41A1, 41B1, 41C1, 41A2, 41B2, 41C2, 41A3, 41B3) provided between the inlet heat transfer pipe (40A, 40B, 40C) and the outlet heat transfer pipe (42A1, 42A2, 42A, 42B, 42C), and a flow passage cross sectional area of the refrigerant flow passages (34A, 34B, 34C, 34D, 34E, 34F) is gradually reduced from the inlet heat transfer pipes (40A, 40B, 40C) to the outlet heat transfer pipes (42A1, 42A2, 42A, 42B, 42C). Multiple plate fins extending in a vertical direction and disposed at a predetermined pitch; and a plurality of refrigerant flow passages (34A, 34B, 34C, 34D, 34E, 34F) formed in parallel by multiple heat transfer pipe groups inserted into the plate fins in multiple stages, wherein the plurality of refrigerant flow passages (34A, 34B, 34C, 34D, 34E, 34F) each include an inlet heat transfer pipe (40A, 40B, 40C) provided in upper parts of the plate fins, an outlet heat transfer pipe (42A1, 42A2, 42A, 42B, 42C) provided in lower parts of the plate fins, and an intermediate heat transfer pipe (41A1, 41B1, 41C1, 41A2, 41B2, 41C2, 41A3, 41B3) provided between the inlet heat transfer pipe (40A, 40B, 40C) and the outlet heat transfer pipe (42A1, 42A2, 42A, 42B, 42C), and a flow passage cross sectional area of the refrigerant flow passages (34A, 34B, 34C, 34D, 34E, 34F) is gradually reduced from the inlet heat transfer pipes (40A, 40B, 40C) to the outlet heat transfer pipes (42A1, 42A2, 42A, 42B, 42C).
A user equipment comprising: receiver circuitry configured to: receive an indication of a downlink-reference UL/DL subframe configuration via RRC signaling, and a processor configured to: determine, based on the downlink-reference UL/DL subframe configuration, a DL HARQ timing for an UL transmission of HARQ feedback associated with a DL transmission on PDSCH, and characterized in that the indication of the downlink-reference UL/DL subframe configuration is associated with a HARQ round trip time which is set to a value of k + 4 subframes, where k is the interval between the DL transmission and the UL transmission of the HARQ feedback according to the downlink-reference UL/DL configuration; and the user equipment is configured to monitor, based on a DRX-RetransmissionTimer, at least one of DL subframes and DL subframes that include a Downlink Pilot Time Slot (DwPTS) for PDCCH transmission or an ePDCCH transmission related to a scheduled HARQ retransmission based on the DL-reference UL/DL subframe configuration. receiver circuitry configured to: receive an indication of a downlink-reference UL/DL subframe configuration via RRC signaling, and a processor configured to: determine, based on the downlink-reference UL/DL subframe configuration, a DL HARQ timing for an UL transmission of HARQ feedback associated with a DL transmission on PDSCH, and characterized in that the indication of the downlink-reference UL/DL subframe configuration is associated with a HARQ round trip time which is set to a value of k + 4 subframes, where k is the interval between the DL transmission and the UL transmission of the HARQ feedback according to the downlink-reference UL/DL configuration; and the user equipment is configured to monitor, based on a DRX-RetransmissionTimer, at least one of DL subframes and DL subframes that include a Downlink Pilot Time Slot (DwPTS) for PDCCH transmission or an ePDCCH transmission related to a scheduled HARQ retransmission based on the DL-reference UL/DL subframe configuration.
A valve closure and a dispensing coupler configured to operate the valve closure:- the valve closure having: - an inner sleeve which includes a socket and an annular inner valve seat; - a valve member having an annular sealing face co-operable with the inner valve seat; - spring means urging the valve member against the inner valve seat; - wherein the valve member incorporates a plurality of projections spaced radially inwards from the annular sealing face and projecting towards the socket; the dispensing coupler having: - a housing; - a tubular probe slidably received within the housing, the tubular probe having a central bore; - wherein a distal end of the tubular probe has an end face, a circumferentially-extending ring seal, and a circumferential locking recess disposed between the ring seal and the end face to engage a detachable closing element; characterised in that the circumferential locking recess has opposing upper and lower faces (48.1 and 48.2). the valve closure having: - an inner sleeve which includes a socket and an annular inner valve seat; - a valve member having an annular sealing face co-operable with the inner valve seat; - spring means urging the valve member against the inner valve seat; - wherein the valve member incorporates a plurality of projections spaced radially inwards from the annular sealing face and projecting towards the socket; - an inner sleeve which includes a socket and an annular inner valve seat; - a valve member having an annular sealing face co-operable with the inner valve seat; - spring means urging the valve member against the inner valve seat; - wherein the valve member incorporates a plurality of projections spaced radially inwards from the annular sealing face and projecting towards the socket; the dispensing coupler having: - a housing; - a tubular probe slidably received within the housing, the tubular probe having a central bore; - wherein a distal end of the tubular probe has an end face, a circumferentially-extending ring seal, and a circumferential locking recess disposed between the ring seal and the end face to engage a detachable closing element; - a housing; - a tubular probe slidably received within the housing, the tubular probe having a central bore; - wherein a distal end of the tubular probe has an end face, a circumferentially-extending ring seal, and a circumferential locking recess disposed between the ring seal and the end face to engage a detachable closing element; characterised in that the circumferential locking recess has opposing upper and lower faces (48.1 and 48.2).