mhurhangee/patent-ind-claim-en huggingface dataset:
A method of operating a base station in a carrier aggregation system, the method comprising: transmitting downlink control information, DCI, including a downlink assignment index, DAI, through an enhanced physical downlink control channel, E-PDCCH, of a first subframe; transmitting data scheduled by the DCI through a physical downlink shared channel, PDSCH, of the first subframe; and receiving acknowledgement, ACK,/negative-acknowledgement, NACK, for the data through a physical uplink control channel, PUCCH, in a second subframe, wherein the DCI transmitted in the E-PDCCH includes an ACK/NACK resource offset, ARO, field which is not present in DCI transmitted (S110) in a physical downlink control channel, PDCCH, and wherein when the DAI value is greater than 1, the ARO field is used to select an RRC field and thereby determine a single resource among a plurality of PUCCH resources pre-set explicitly by RRC fields within an RRC message transmitted through a higher layer signal, and the single resource is used to receive the ACK/NACK. transmitting downlink control information, DCI, including a downlink assignment index, DAI, through an enhanced physical downlink control channel, E-PDCCH, of a first subframe; transmitting data scheduled by the DCI through a physical downlink shared channel, PDSCH, of the first subframe; and receiving acknowledgement, ACK,/negative-acknowledgement, NACK, for the data through a physical uplink control channel, PUCCH, in a second subframe, wherein the DCI transmitted in the E-PDCCH includes an ACK/NACK resource offset, ARO, field which is not present in DCI transmitted (S110) in a physical downlink control channel, PDCCH, and wherein when the DAI value is greater than 1, the ARO field is used to select an RRC field and thereby determine a single resource among a plurality of PUCCH resources pre-set explicitly by RRC fields within an RRC message transmitted through a higher layer signal, and the single resource is used to receive the ACK/NACK.
A hot melt adhesive composition comprising: (a) an essentially amorphous, single site-catalyzed, high molecular weight propylene copolymer; (b) a semicrystalline, single site-catalyzed, low molecular weight propylene copolymer; (c) polyisobutene; and (d) a 1-butene-based copolymer polymer, wherein the 1-butene-based copolymer has a density of at most 0.907 g/cm 3 ; wherein: the composition is tackifier-free, the high molecular weight propylene copolymer has a weight average molecular weight of at least about 80,000 g/mol, preferably at least about 95,000 g/mol, and most preferably at least about 105,000 g/mol and has a heat of fusion of at most about 20 J/g, preferably at most about 15 J/g, and most preferably at most about 10 J/g; and the low molecular weight propylene copolymer has a weight average molecular weight of at most about 60,000 g/mol, preferably at most about 40,000 g/mol, and most preferably at most about 30,000 g/mol and has a heat of fusion of at least about 20 J/g, preferably at least about 25 J/g, and most preferably at least about 30 J/g. (a) an essentially amorphous, single site-catalyzed, high molecular weight propylene copolymer; (b) a semicrystalline, single site-catalyzed, low molecular weight propylene copolymer; (c) polyisobutene; and (d) a 1-butene-based copolymer polymer, wherein the 1-butene-based copolymer has a density of at most 0.907 g/cm 3 ; the high molecular weight propylene copolymer has a weight average molecular weight of at least about 80,000 g/mol, preferably at least about 95,000 g/mol, and most preferably at least about 105,000 g/mol and has a heat of fusion of at most about 20 J/g, preferably at most about 15 J/g, and most preferably at most about 10 J/g; and the low molecular weight propylene copolymer has a weight average molecular weight of at most about 60,000 g/mol, preferably at most about 40,000 g/mol, and most preferably at most about 30,000 g/mol and has a heat of fusion of at least about 20 J/g, preferably at least about 25 J/g, and most preferably at least about 30 J/g.
A refrigerator for a vehicle, comprising: a compartment ; a machine room provided at a side of the compartment ; a compressor provided in the machine room to compress a refrigerant; a condenser provided in the machine room to condense the refrigerant; an evaporator provided in the compartment to evaporate the refrigerant and thereby to cool the compartment ; a machine room cover covering an inner space of the machine room ; and a controller mounted on the machine room cover ; characterized in that : the compartment is provided with a vacuum adiabatic wall for insulation; and the controller is provided on a stepped portion of the machine room cover . a compartment ; a machine room provided at a side of the compartment ; a compressor provided in the machine room to compress a refrigerant; a condenser provided in the machine room to condense the refrigerant; an evaporator provided in the compartment to evaporate the refrigerant and thereby to cool the compartment ; a machine room cover covering an inner space of the machine room ; and a controller mounted on the machine room cover ; characterized in that : the compartment is provided with a vacuum adiabatic wall for insulation; and the controller is provided on a stepped portion of the machine room cover . the compartment is provided with a vacuum adiabatic wall for insulation; and the controller is provided on a stepped portion of the machine room cover .
A compound of the following general formula [A] for use in a method for the in vivo diagnosis of a viral infection wherein residues R independently represent hydrogen or C1-C6 alkyl, preferably methyl, and residue -OX is derived from a flavoring agent of general formula HOX, wherein OH is a hydroxy group and X is an aliphatic, aromatic, or heterocyclic residue, wherein the flavoring agent is thymol or carvacrol.
A balloon catheter comprising: an inner tube ; and a balloon fixed to the inner tube , the balloon being capable of transforming a transition between a folded state and an expanded state, characterized in that : the balloon has n wing portions , n being an integer of 2 or more, and n valley portions , n being an integer of 2 or more, formed between the wing portions adjacent thereto when the balloon is folded around an outer periphery of the inner tube , the n wing portions and the n valley portions are arranged in a circumferential direction, and a distance (X3, X5, X7) between at least one valley portion of the n valley portions and the inner tube is shorter than distances (X2, X4, X6) between other valley portions and the inner tube . an inner tube ; and a balloon fixed to the inner tube , the balloon being capable of transforming a transition between a folded state and an expanded state, characterized in that : the balloon has n wing portions , n being an integer of 2 or more, and n valley portions , n being an integer of 2 or more, formed between the wing portions adjacent thereto when the balloon is folded around an outer periphery of the inner tube , the n wing portions and the n valley portions are arranged in a circumferential direction, and a distance (X3, X5, X7) between at least one valley portion of the n valley portions and the inner tube is shorter than distances (X2, X4, X6) between other valley portions and the inner tube . the balloon has n wing portions , n being an integer of 2 or more, and n valley portions , n being an integer of 2 or more, formed between the wing portions adjacent thereto when the balloon is folded around an outer periphery of the inner tube , the n wing portions and the n valley portions are arranged in a circumferential direction, and a distance (X3, X5, X7) between at least one valley portion of the n valley portions and the inner tube is shorter than distances (X2, X4, X6) between other valley portions and the inner tube .
An electric impedance thomography device comprising: a plurality of electrodes which can be arranged about the chest of a patient, and a control and analyzing unit which is, by progamming, configured to supply at least one electrode pair as a feeding electrode pair with an alternating current or with an alternating voltage, to record a voltage signal or a current signal as a measured signal with a plurality of the remaining electrode pairs from the plurality of electrodes, and to let other electrode pairs of the plurality of electrode pairs act consecutively as the feeding electrode pair, to reconstruct from the measured signals, with a reconstruction algorithm, a matrix of image elements which represent the distribution of the impedance changes in the electrode plane, and to repeatedly record measured signals over time and to reconstruct matrices, and to display them with a display device, wherein the control and analyzing unit is further configured to determine a time series of a global ventilation curve from the sequence of the reconstructed matrices as a time series of the mean impedance change or as a time series of a measured respiration volume and to determine an inspiration or expiration phase therein, to divide the inspiration or expiration phase of the global ventilation curve into a number (1, 2, ... M steps ) of steps of equal volume change, to determine times corresponding to these steps of equal volume change in the inspiration or expiration phase, to determine, for each image element, the change in the local impedance between these times and to determine each time the ratio of this local change in impedance of the image element to the global equal volume change to thereby form a local sequence of relative impedance changes of the image element as a function of the number of steps of equal volume change, characterized in that the control and analyzing unit is further configured to fit, for each image element in an inspiration or expiration phase a straight line to the local sequence of relative impedance changes as a function of the step number (1, 2, ... M steps ) of equal volume changes and to determine the zero point of the straight line, to assign to this zero point a time within the inspiration or expiration phase, and to assign to the image element a ventilation variable at this time, as a scalar indicator for the curve of the local impedance change, and to display the image element as a function of the ventilation variable thus determined in gray scale value or color coding on the display device.
A branched polymer, wherein the branched polymer is a reaction product of reactants comprising a combination of two or more monoethylenically unsaturated ester monomers, a chain transfer agent in an amount of 3 to 15 weight percent, and a crosslinker in an amount of 3 to 15 weight percent of a crosslinker, wherein weight percent is based on total amount of reactants, provided the amount of crosslinker is within +/- 5 weight percent of the amount of chain transfer agent, wherein the crosslinker comprises at least two carbon-carbon double bonds having different reactivity.
A method for constructing a vertical positioning model, wherein the method comprises: a computer device determining , in measurement reports MRs of a mobile terminal uploaded by the mobile terminal during one call, a signature feature of measurement report call information MRCALL, the signature feature of the MRCALL being proportions of appearance of cells in the call of the mobile terminal and by the method further comprising; the computer device obtaining a round test signature feature of a target building , wherein the round test signature feature is proportions of the cells in the target building , and location information of the target building corresponds to information about a current location of the mobile terminal ; and the computer device constructing a vertical positioning model based on the signature feature of the MRCALL the round test signature feature, and height information of the target building , wherein the vertical positioning model is used to measure vertical information of a target mobile terminal . a computer device determining , in measurement reports MRs of a mobile terminal uploaded by the mobile terminal during one call, a signature feature of measurement report call information MRCALL, the signature feature of the MRCALL being proportions of appearance of cells in the call of the mobile terminal and by the method further comprising; the computer device obtaining a round test signature feature of a target building , wherein the round test signature feature is proportions of the cells in the target building , and location information of the target building corresponds to information about a current location of the mobile terminal ; and the computer device constructing a vertical positioning model based on the signature feature of the MRCALL the round test signature feature, and height information of the target building , wherein the vertical positioning model is used to measure vertical information of a target mobile terminal .
A method for synchronizing a femto cell with a macro cell, the method comprising: receiving a macro cell forward link signal from a macro cell at a forward link receiver in the femto cell; and synchronizing a transmission timing of the femto cell with a transmission timing of the macro cell in reliance on the macro cell forward link signal; wherein a synchronization timing derived at the femto cell from the macro cell forward link signal is shifted in time due to a propagation delay from the macro cell to the femto cell, and wherein the propagation delay is computed from known locations of the macro cell and the femto cell. receiving a macro cell forward link signal from a macro cell at a forward link receiver in the femto cell; and synchronizing a transmission timing of the femto cell with a transmission timing of the macro cell in reliance on the macro cell forward link signal; wherein a synchronization timing derived at the femto cell from the macro cell forward link signal is shifted in time due to a propagation delay from the macro cell to the femto cell, and wherein the propagation delay is computed from known locations of the macro cell and the femto cell.
A method for controlling current levels on a Universal Serial Bus, USB, cable , characterized in comprising: detecting whether a cable is a legacy Type-A to Type-C cable ; detecting whether the cable is compliant or not compliant with a USB Type-C specification; and setting a current draw based on whether the cable is legacy or not legacy and on whether the cable is compliant or not-compliant with the USB Type-C specification. detecting whether a cable is a legacy Type-A to Type-C cable ; detecting whether the cable is compliant or not compliant with a USB Type-C specification; and setting a current draw based on whether the cable is legacy or not legacy and on whether the cable is compliant or not-compliant with the USB Type-C specification.
A display and detection system comprising: an image sensor ; a display screen ; and an antireflection system covering the display screen and the image sensor , characterized in that the antireflection system comprises an electrically-controllable rectilinear polarizer . an image sensor ; a display screen ; and an antireflection system covering the display screen and the image sensor , characterized in that the antireflection system comprises an electrically-controllable rectilinear polarizer .
A first device comprising: means for receiving , at the first device and from a second device, first information indicating that candidate occasions are to be skipped for monitoring physical downlink control channel; means for determining a target occasion from the candidate occasions based on second information indicating that skipping monitoring is applicable to a physical downlink control channel with a downlink control information format for scheduling downlink assignment or uplink grant, wherein the skipping monitoring does not apply to wake up signaling occasions; and wherein the first device is configured to skip monitoring the physical downlink control channel on the target occasion. means for receiving , at the first device and from a second device, first information indicating that candidate occasions are to be skipped for monitoring physical downlink control channel; means for determining a target occasion from the candidate occasions based on second information indicating that skipping monitoring is applicable to a physical downlink control channel with a downlink control information format for scheduling downlink assignment or uplink grant, wherein the skipping monitoring does not apply to wake up signaling occasions; and wherein the first device is configured to skip monitoring the physical downlink control channel on the target occasion.
An elevator brake control device for controlling an elevator brake including a plurality of brake applicators (42; 44; 46; 48; 50), the brake control device comprising: at least one primary switch (52; 54) configured to selectively conduct current for lifting all of the brake applicators (42; 44; 46; 48; 50); and a plurality of secondary switches (62; 64; 66; 68; 70), each of the secondary switches (62; 64; 66; 68; 70) being associated with one of the brake applicators (42; 44; 46; 48; 50), each of the secondary switches (62; 64; 66; 68; 70) being configured to selectively conduct current for lifting the associated one of the brake applicators (42; 44; 46; 48; 50), wherein the plurality of secondary switches (62; 64; 66; 68; 70) are between the at least one primary switch (52; 54) and the associated one of the brake applicators (42; 44; 46; 48; 50); characterized in that the elevator brake control device further comprises: a controller configured to control the at least one primary switch (52; 54) and the plurality of secondary switches (62; 64; 66; 68; 70), the controller being configured to change a state of a selected one of the secondary switches (62; 64; 66; 68; 70) from a closed state to an open state only while the at least one primary switch (52; 54) is open. at least one primary switch (52; 54) configured to selectively conduct current for lifting all of the brake applicators (42; 44; 46; 48; 50); and a plurality of secondary switches (62; 64; 66; 68; 70), each of the secondary switches (62; 64; 66; 68; 70) being associated with one of the brake applicators (42; 44; 46; 48; 50), each of the secondary switches (62; 64; 66; 68; 70) being configured to selectively conduct current for lifting the associated one of the brake applicators (42; 44; 46; 48; 50), wherein the plurality of secondary switches (62; 64; 66; 68; 70) are between the at least one primary switch (52; 54) and the associated one of the brake applicators (42; 44; 46; 48; 50); characterized in that the elevator brake control device further comprises: a controller configured to control the at least one primary switch (52; 54) and the plurality of secondary switches (62; 64; 66; 68; 70), the controller being configured to change a state of a selected one of the secondary switches (62; 64; 66; 68; 70) from a closed state to an open state only while the at least one primary switch (52; 54) is open.
Longitudinal seat adjuster for a seat, in particular a vehicle seat , comprising at least - a rail pair (P1, P2) having a lower rail and an upper rail which is displaceably mounted on the lower rail , - a drive unit , - a transmission unit having a transmission housing (8.1), wherein the transmission unit and the drive unit are coupled to each other, - a holder (10.2) for fastening the transmission housing (8.1) to the upper rail , and - a covering element (11.1), wherein the upper rail has at least one through-opening (4.2), through which at least one housing portion (8.1.1) of the transmission housing (8.1) projects, and the covering element (11.1) for covering the transmission housing (8.1) comprises at least one covering region (11.4.1), which is formed by two covering legs (11.4) arranged opposite each other in parallel, and the covering element (11.1) comprises at least one covering sub-region (11.4.1a) arranged laterally with respect to the covering region (11.4.1), wherein the covering sub-region (11.4.1a) is defined by means of a covering wing (11.4.2) which projects perpendicularly in a longitudinal direction from one of the covering legs (11.4), wherein the covering region (11.4.1) is connected to the housing portion (8.1.1) in a force-fitting and/or form-fitting manner, and the covering sub-region (11.4.1a) covers at least one connection region (VB) of the holder (10.2) with the upper rail above the upper rail by means of the covering wings (11.4.2). - a rail pair (P1, P2) having a lower rail and an upper rail which is displaceably mounted on the lower rail , - a drive unit , - a transmission unit having a transmission housing (8.1), wherein the transmission unit and the drive unit are coupled to each other, - a holder (10.2) for fastening the transmission housing (8.1) to the upper rail , and - a covering element (11.1), wherein the upper rail has at least one through-opening (4.2), through which at least one housing portion (8.1.1) of the transmission housing (8.1) projects, and the covering element (11.1) for covering the transmission housing (8.1) comprises at least one covering region (11.4.1), which is formed by two covering legs (11.4) arranged opposite each other in parallel, and the covering element (11.1) comprises at least one covering sub-region (11.4.1a) arranged laterally with respect to the covering region (11.4.1), wherein the covering sub-region (11.4.1a) is defined by means of a covering wing (11.4.2) which projects perpendicularly in a longitudinal direction from one of the covering legs (11.4), wherein the covering region (11.4.1) is connected to the housing portion (8.1.1) in a force-fitting and/or form-fitting manner, and the covering sub-region (11.4.1a) covers at least one connection region (VB) of the holder (10.2) with the upper rail above the upper rail by means of the covering wings (11.4.2).
An information management method, comprising: generating, by a software defined network, SDN-type controller, a first message, wherein the first message carries an address of a first next hop of a network device, the first message comprises first identification information, and the first identification information is used to instruct the network device to delete, from a next hop table associated with a routing table of the network device and stored in the network device, an entry that is of the first next hop and that corresponds to the address of the first next hop; and sending, by the SDN-type controller, the first message to the network device, so that the network device deletes the entry of the first next hop as indicated by the first identification information without needing to delete the next-hop in a route withdrawal manner by binding a route prefix. generating, by a software defined network, SDN-type controller, a first message, wherein the first message carries an address of a first next hop of a network device, the first message comprises first identification information, and the first identification information is used to instruct the network device to delete, from a next hop table associated with a routing table of the network device and stored in the network device, an entry that is of the first next hop and that corresponds to the address of the first next hop; and sending, by the SDN-type controller, the first message to the network device, so that the network device deletes the entry of the first next hop as indicated by the first identification information without needing to delete the next-hop in a route withdrawal manner by binding a route prefix.
Use of an intumescent material for sealing the flattened end of a stabilizer for motor vehicles consisting of a hollow profile section made of metal, and the end being flattened relative to the hollow profile section , the intumescent material being fitted in the hollow profile section , wherein the sealing is achieved within the hollow profile section in an area close or immediately adjacent to the flattened end , wherein the material , after its activation, expands by means of heating and completely seals this area of the hollow profile section relative to the flattened end .