mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus configured to sense presence and motion in a monitored space, the apparatus comprising: a dual-element assembly further comprising a first thermal sensing element and a second thermal sensing element further comprising a first terminal having a first polarity and a second terminal having a second polarity; a lens array coupled to the thermal sensing elements , wherein the lens array comprises a plurality of lenses, each of which is configured to direct incident thermal energy from a respective one of a plurality of optically-defined spatial zones (A, B) located within the monitored space onto the first and/or the second thermal sensing element ; and an electronic circuitry in electrical communication with dual-element assembly and configured to read a resulting signal of the dual-element assembly and an individual output signal of each the first thermal sensing element and the second thermal sensing element , wherein each of the first thermal sensing element and the second thermal sensing element has a first terminal having the first polarity and a second terminal having the second polarity, characterized in that the electronic circuitry , the first thermal sensing element and the second thermal sensing element are electrically connected at a connection point comprising their first terminals or their second terminals . a dual-element assembly further comprising a first thermal sensing element and a second thermal sensing element further comprising a first terminal having a first polarity and a second terminal having a second polarity; a lens array coupled to the thermal sensing elements , wherein the lens array comprises a plurality of lenses, each of which is configured to direct incident thermal energy from a respective one of a plurality of optically-defined spatial zones (A, B) located within the monitored space onto the first and/or the second thermal sensing element ; and an electronic circuitry in electrical communication with dual-element assembly and configured to read a resulting signal of the dual-element assembly and an individual output signal of each the first thermal sensing element and the second thermal sensing element , wherein each of the first thermal sensing element and the second thermal sensing element has a first terminal having the first polarity and a second terminal having the second polarity, characterized in that the electronic circuitry , the first thermal sensing element and the second thermal sensing element are electrically connected at a connection point comprising their first terminals or their second terminals .
Device for replacing a pallet to be replaced and supporting a load with a replacing pallet with the possibility of keeping this pallet raised wherein it comprises a portal element transversely placed at median portion of a slide member and characterized in that the portal element is carrying a bulkhead element transverse to the slide member and raised or raiseable with respect to the latter forming a window for the passage of the pallet to be replaced (P) where the slide member is horizontal, is assigned for sliding pallets in a longitudinal sliding direction (T) and has a first surface (PS) for the load supported by the pallet; said device comprises a plurality of support members one end of each of which is rotatably constrained to a respective rotation pin perpendicularly fixed to said slide member where such rotation pins of the support members are distributed on two respective geometric lines or bands parallel to the sliding direction (T) and placed one to, or on, one side of the first surface (PS) and the other placed to or on the opposite side of the first surface; each support member can swing around the respective rotation pin at least between a protruding condition (S) in which it is perpendicular to the sliding direction (T) and protrudes above the first surface (PS) of the slide member and a retracted condition (R) in which it is parallel to the sliding direction (T) and does not occupy said first surface (PS).
A user equipment, UE, comprising: a receiving unit configured to receive from an eNode B, eNB, , a downlink control information, DCI, in a first carrier, and to receive from the eNB a burst comprising at least a last flexible physical downlink shared channel, PDSCH, in a second carrier; wherein the DCI is transmitted in a first subframe comprising 14 OFDM symbols, wherein the last flexible PDSCH starts at one of subframe boundaries and ends at one of symbol boundaries in the first subframe and in a second subframe, the second subframe comprising 14 OFDM symbols and being consecutive to the first subframe, wherein the DCI contains a length indicator to indicate a length of OFDM symbols of the last flexible PDSCH, by a reduced number of bits, wherein the reduced number of bits is less than 5 bits, which is necessary to indicate all lengths of 1 to 28 OFDM symbols. wherein the DCI is transmitted in a first subframe comprising 14 OFDM symbols, wherein the last flexible PDSCH starts at one of subframe boundaries and ends at one of symbol boundaries in the first subframe and in a second subframe, the second subframe comprising 14 OFDM symbols and being consecutive to the first subframe, wherein the DCI contains a length indicator to indicate a length of OFDM symbols of the last flexible PDSCH, by a reduced number of bits, wherein the reduced number of bits is less than 5 bits, which is necessary to indicate all lengths of 1 to 28 OFDM symbols.
A method, operational at a device, comprising: identifying , by the device, one or more selectively activated features needed at the device to use a network service; obtaining authorization information and one or more feature activation keys associated with features that the device has been authorized to activate; and using the one or more feature activation keys to activate and/or maintain activation of the features that the device has been authorized to activate that match the one or more selectively activated features needed to use the network service. identifying , by the device, one or more selectively activated features needed at the device to use a network service; obtaining authorization information and one or more feature activation keys associated with features that the device has been authorized to activate; and using the one or more feature activation keys to activate and/or maintain activation of the features that the device has been authorized to activate that match the one or more selectively activated features needed to use the network service.
A single carrier transmission method, that minimizes spectral efficiency loss and reduces out of band emission by using adaptive filtering in a block, formed of the following method steps; - digitalizing the original information source in order to carry out the encoding, - coding the information source in order to compress the message that increases spectral efficiency of a communication system, - converting the message into symbols, - before transmitting, filtering the symbols by square root Raised Cosine (SRRC) filters having variable roll-off factors wherein minimum roll-off factor is used for center symbols for the transmitted block and the roll off factor is increased successively from the center pulses towards the edge pulses and hence maximum roll-off factor is used for edge pulses in order to reduce out of band emission and to increase reliability by enabling minimum loss in spectral efficiency for URLLC, - passing the transmitted signal over a wireless channel with a limited band, - adding additive white Gaussian noise (AWGN), before reaching the receiver, to the signal that is transmitted which comprises a channel effect, - the same SRRC filter and roll-off factor that is used in the transmitter in order to provide match-filtering is used by the receiver, - mapping the symbols to data bits. - digitalizing the original information source in order to carry out the encoding, - coding the information source in order to compress the message that increases spectral efficiency of a communication system, - converting the message into symbols, - before transmitting, filtering the symbols by square root Raised Cosine (SRRC) filters having variable roll-off factors wherein minimum roll-off factor is used for center symbols for the transmitted block and the roll off factor is increased successively from the center pulses towards the edge pulses and hence maximum roll-off factor is used for edge pulses in order to reduce out of band emission and to increase reliability by enabling minimum loss in spectral efficiency for URLLC, - passing the transmitted signal over a wireless channel with a limited band, - adding additive white Gaussian noise (AWGN), before reaching the receiver, to the signal that is transmitted which comprises a channel effect, - the same SRRC filter and roll-off factor that is used in the transmitter in order to provide match-filtering is used by the receiver, - mapping the symbols to data bits.
A method performed by a user device that supports a plurality of message authentication code, MAC, lengths for integrity protection of wireless communications, the method comprising: receiving , from a base station (104-1), a first message including i) an information element indicating a first MAC length of the plurality of MAC lengths and ii) a MAC having a second MAC length of the plurality of MAC lengths; when the information element indicates that the first MAC length is to be used for integrity protection, generating a second message including a MAC having the first MAC length; and transmitting the second message to the base station (104-1). receiving , from a base station (104-1), a first message including i) an information element indicating a first MAC length of the plurality of MAC lengths and ii) a MAC having a second MAC length of the plurality of MAC lengths; when the information element indicates that the first MAC length is to be used for integrity protection, generating a second message including a MAC having the first MAC length; and transmitting the second message to the base station (104-1).
A method for determining intensity of pain, the method comprising: quantitatively measuring an expression level of a panel of blood biomarkers personalized by gender and diagnosis in a sample obtained from a subject; obtaining a reference expression level of the blood biomarkers; and identifying a difference in the expression level of the panel of blood biomarkers in the sample and the reference expression level of the blood biomarkers, wherein the difference in the expression level of the panel of blood biomarkers in the sample obtained from the subject and the reference expression level of the blood biomarkers determines the intensity of pain wherein the panel of biomarkers consists of all the biomarkers from the group of biomarkers consisting of GNG7, CNTN1, LY9, CCDC144B, GBP1, Hs.666804/MFAP3, CASP6, COMT, RAB33A, ZYX, Hs.696420/MTERF1, COL27A1, HRAS, CALCA, Hs.596713/PPP1R14B, ASTN2, ELAC2, HLA-DQB1, PNOC, TCF15, TOP3A, H05785/LRRC75A, CLSPN, COL2A1, Hs.554262, PIK3CD, SVEP1, TNFRSF11B, ZNF91, CDK6, EDN1, AF090920/PPFIBP2, DCAF12, DNAJC18, HLA-DRB1, SEPT7P2, VEGFA, WNK1, AF087971/PBRM1, Hs.659426/PHC3, CCDC85C, GSPT1, LOXL2, MBNL3, PTN, RALGAPA2, YBX3, ZNF441, CCND1, Catechol-O-Methyltransferase, HTR2A, NF1, SHMT1, TSPO, DENND1B, MCRS1, OSBP2, FAM134B, ZNF429 and Hs.677263/SMURF2.
Method for providing a photovoltaic module having one or more photovoltaic cells , comprising providing a print on a foil , and laminating the foil as part of the photovoltaic module , wherein providing the print comprises: applying a rasterization algorithm on an image to provide a pattern of dots , wherein dot locations of the pattern of dots are aligned with predetermined types of a surface area of a front side of the photovoltaic module , the predetermined types of surface areas being aligned with parts of the photovoltaic module which in operation shield radiation from reaching the one or more photovoltaic cells .
Cooling system for an induction hob comprising an air blower for generating an airflow according to a first direction , and a heat-sink device through which air blown by the air blower is conveyed, the cooling system further comprises airflow deflecting means cooperating with said heat-sink device for deflecting at least a portion of said airflow from said first direction to a second direction which significantly deviates from said first direction , characterized in that said airflow deflecting means comprises openings in a common base of said heat-sink device .
Steam turbine, comprising a guide device having guide vanes , which are arranged in a guide channel between an inner guide ring and an outer guide ring , wherein the guide vanes are connected to the inner and outer guide rings and are fastened by the outer guide ring to a guide-vane carrier , into the inner peripheral contour of which the outer guide ring is inserted, characterised in that an outer contour of the inner guide ring continuously changes in diameter across the guide vanes and the inner guide ring comprises vane recesses of which the shape has been adapted to the cross-sectional contour of the guide vanes , in which recesses the guide vanes are received at a vane end portion, wherein the vane recesses are in the form of through-hole-shaped openings such that the guide vanes can be inserted through the inner guide ring , wherein the guide vanes are retained in the vane recesses by an annular or annular-segment-shaped retaining strip , which can be inserted into an annular or annular-segment-shaped retaining recess in the inner ring , which recess extends from an end face into the inner ring transversely to the longitudinal direction of the guide vanes in the form of a groove, and can be brought into engagement with a retaining notch in the guide vanes in each case.
Method for operating a soldering device , the soldering device comprising a solder pot and a solder nozzle inserted into the soldering device, through which nozzle solder is pumped to create a solder wave , an image representation of the solder wave being acquired , an instantaneous operating state of the soldering device being determined from the acquired image representation by means of automated processing of the acquired image representation depending on information about the soldering device , characterized in that the information about the soldering device is determined depending on a reference representation of the solder wave , the reference representation being acquired or read in from a memory as an image representation, the reference representation characterizing an oxidation degree of the solder nozzle , information about the acquired image representation being compared with information about the reference representation, an instantaneous oxidation degree of the solder nozzle being detected when the solder flows out over at least a portion of a surface of the solder nozzle , depending on a result of the comparison, and in that , when a limit value for the oxidation degree is exceeded, an operating state of the soldering device for breaking up an oxide layer is permitted .
An apparatus comprising means for performing: - receiving, from a data provider, an identifier of a function, an encrypted output of the function, when run with random data, and the random data in encrypted form, and from a requesting party or a server, an encrypted computation result obtained by processing input data with the function, and from the server or the data provider, the input data in encrypted form; characterized in that the means are configured to perform: - obtaining a homomorphic polynomial factorization of the function, comprising obtaining a decomposed representation of the function, the representation comprising a sum of polynomials, and - verifying that the computation result is correct by checking, whether a difference between the encrypted output and the encrypted computation result equals a value of the decomposed representation, wherein the encrypted random data and the encrypted input data are used as parameter values in the sum of polynomials. - receiving, from a data provider, an identifier of a function, an encrypted output of the function, when run with random data, and the random data in encrypted form, and from a requesting party or a server, an encrypted computation result obtained by processing input data with the function, and from the server or the data provider, the input data in encrypted form; - obtaining a homomorphic polynomial factorization of the function, comprising obtaining a decomposed representation of the function, the representation comprising a sum of polynomials, and - verifying that the computation result is correct by checking, whether a difference between the encrypted output and the encrypted computation result equals a value of the decomposed representation, wherein the encrypted random data and the encrypted input data are used as parameter values in the sum of polynomials.
A moisture-curing two-component composition consisting of a component A containing at least one polyoxyalkylene and/or polyacrylate prepolymer which has at least one hydrolyzable silane group and is liquid at room temperature (25 °C), and at least one inert admixture which is solid at room temperature (25 °C) and has a softening point of 40 to 150 °C (measured according to DIN ISO 4625), selected from hydrocarbons, polyesters or polyamides, and a component B which has a viscosity of 5,000 to 800,000 mPas at 25 °C (measured according to Brookfield, EN ISO 2555) and contains at least one compound that crosslinks the prepolymers, wherein the two-component composition and component A each have hot-melt adhesive properties, wherein the composition is free of metal catalysts and component B contains - 0 to 30 wt.% of one or more silane-crosslinkable compounds, - 2 to 60 wt.% of water-absorbing substances, - 10 to 60 wt.% of auxiliaries and additives, - 0.5 to 15 wt.% of water, the sum having to amount to 100%. - 0 to 30 wt.% of one or more silane-crosslinkable compounds, - 2 to 60 wt.% of water-absorbing substances, - 10 to 60 wt.% of auxiliaries and additives, - 0.5 to 15 wt.% of water,
A method of selectively expanding a number of T cells, the method comprising: modifying human T cells to express a TCR, wherein the TCR comprises a murine constant region; producing a population of cells comprising a number of the human T cells expressing the TCR and a number of human T cells not expressing the TCR; and culturing the population of cells in the presence of (i) irradiated feeder cells, (ii) one or more cytokines, and (iii) a first antibody, or an antigen-binding portion thereof, wherein the first antibody specifically binds to the murine constant region of the TCR, so as to selectively expand the number of the human T cells expressing the TCR over the number of the human T cells not expressing the TCR. modifying human T cells to express a TCR, wherein the TCR comprises a murine constant region; producing a population of cells comprising a number of the human T cells expressing the TCR and a number of human T cells not expressing the TCR; and culturing the population of cells in the presence of (i) irradiated feeder cells, (ii) one or more cytokines, and (iii) a first antibody, or an antigen-binding portion thereof, wherein the first antibody specifically binds to the murine constant region of the TCR, so as to selectively expand the number of the human T cells expressing the TCR over the number of the human T cells not expressing the TCR.
A movable device for joining a tool to a loading machine, said machine being provided with a set of blades for coupling said tool and with extendable and retractable securing bolts , and the rear portion of the tool being provided with respective housings for securing the blades and with respective grooves arranged in respective projections for securing the bolts , characterised in that the housings are longer than the width of the blades, and it comprises a set of abutments movable along the housings between at least two positions that determine various positions for securing the blades of the loading machine, by means of which the length of the housings adapts to the width of the blades; and in that the projections have a series of grooves corresponding to each of the positions for securing the blades in the housings as a function of the position of the abutments . the housings are longer than the width of the blades, and it comprises a set of abutments movable along the housings between at least two positions that determine various positions for securing the blades of the loading machine, by means of which the length of the housings adapts to the width of the blades; and in that the projections have a series of grooves corresponding to each of the positions for securing the blades in the housings as a function of the position of the abutments .
An electronic module , comprising: - a semiconductor package ; and - a clip connected to the semiconductor package ( and connected to or comprising at least one fastening element which is configured to make a connection to an external heatsink, wherein the fastening element comprises a screw, and the clip comprises two through-holes (2.4, 2.5) in which the screw is inserted, characterized in that - the semiconductor package comprises a die pad and a semiconductor die, the die pad being exposed at a lower main face of the semiconductor package , and the semiconductor die being mounted on the die pad, wherein - the module further comprises an insulation layer which is directly connected with a portion (2.2) of the clip , and wherein - the insulation layer is applied to the lower main face of the semiconductor package and the portion (2.2) of the clip is applied to the insulation layer remote from the semiconductor package . - a semiconductor package ; and - a clip connected to the semiconductor package ( and connected to or comprising at least one fastening element which is configured to make a connection to an external heatsink, wherein the fastening element comprises a screw, and the clip comprises two through-holes (2.4, 2.5) in which the screw is inserted, characterized in that - the semiconductor package comprises a die pad and a semiconductor die, the die pad being exposed at a lower main face of the semiconductor package , and the semiconductor die being mounted on the die pad, wherein - the module further comprises an insulation layer which is directly connected with a portion (2.2) of the clip , and wherein - the insulation layer is applied to the lower main face of the semiconductor package and the portion (2.2) of the clip is applied to the insulation layer remote from the semiconductor package .
A control information sending method, performed by a network device, comprising: sending broadcast information in a broadcast channel, wherein the broadcast channel is located in a synchronization signal block, the broadcast information includes indication information that indicates a time-domain resource set of a control channel and a time domain location of the synchronization signal block is used to determine a time domain location of the control channel from the time-domain resource set; and sending control information in the time-domain location of the control channel. sending broadcast information in a broadcast channel, wherein the broadcast channel is located in a synchronization signal block, the broadcast information includes indication information that indicates a time-domain resource set of a control channel and a time domain location of the synchronization signal block is used to determine a time domain location of the control channel from the time-domain resource set; and sending control information in the time-domain location of the control channel.