mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic device comprising: a first critical integrated circuit ; and a second critical integrated circuit in communication with the first critical integrated circuit ; wherein the first critical integrated circuit comprises a first security function block configured to authenticate an identity of the second critical integrated circuit , wherein the first security function block authenticates the identity of the second critical integrated circuit according to a chip identity of the second critical integrated circuit , characterized by that the chip identity of the second integrated circuit is created using at least one pair of symmetric antifuse structures in a non-volatile memory physically unclonable function , and the chip identity of the second critical integrated circuit is determined based on which antifuse structures rupture when a programming voltage is applied. a first critical integrated circuit ; and a second critical integrated circuit in communication with the first critical integrated circuit ; wherein the first critical integrated circuit comprises a first security function block configured to authenticate an identity of the second critical integrated circuit , wherein the first security function block authenticates the identity of the second critical integrated circuit according to a chip identity of the second critical integrated circuit , characterized by that the chip identity of the second integrated circuit is created using at least one pair of symmetric antifuse structures in a non-volatile memory physically unclonable function , and the chip identity of the second critical integrated circuit is determined based on which antifuse structures rupture when a programming voltage is applied.
Device for selecting a combination of patterns, in particular for a timepiece, which device comprises: ▪ a first, so-called inner disc (DI), and a second, so-called outer disc (DE), which are coaxial, the inner disc (DI) having a smaller diameter than the outer disc (DE), the discs (DI, DE) comprising a plurality of angular sectors of the same size, at least two angular sectors of each disc (DI, DE) bearing a pattern (A, B, C; D, E, F) on their periphery (HI, HE), ▪ actuating means allowing the inner disc (DI) to be rotated, and gear means coupling the two discs (DI, DE) in a speed reducing ratio, so that the outer disc (DE) rotates more slowly than the inner disc (DI), the driving disc being the inner disc (DI) and the driven disc being the outer disc (DE), ▪ a dial (CD) extending opposite the inner disc (DI), the dial (CD) comprising an aperture (GC) for pairing a pattern (A, B, C) of the inner disc (DI) with a pattern (D, E, F) of the outer disc (DE), the device being such that a complete rotation of the inner disc (DI) causes the outer disc (DE) to rotate by one angular sector, the size of the aperture (GC) being sufficiently large for each pattern (D, E, F) of the outer disc (DE) to be successively paired with all of the patterns (A, B, C) of the inner disc (DI) when the inner disc (DI) is rotated. ▪ a first, so-called inner disc (DI), and a second, so-called outer disc (DE), which are coaxial, the inner disc (DI) having a smaller diameter than the outer disc (DE), the discs (DI, DE) comprising a plurality of angular sectors of the same size, at least two angular sectors of each disc (DI, DE) bearing a pattern (A, B, C; D, E, F) on their periphery (HI, HE), ▪ actuating means allowing the inner disc (DI) to be rotated, and gear means coupling the two discs (DI, DE) in a speed reducing ratio, so that the outer disc (DE) rotates more slowly than the inner disc (DI), the driving disc being the inner disc (DI) and the driven disc being the outer disc (DE), ▪ a dial (CD) extending opposite the inner disc (DI), the dial (CD) comprising an aperture (GC) for pairing a pattern (A, B, C) of the inner disc (DI) with a pattern (D, E, F) of the outer disc (DE),
A device for encoding an input sequence comprising message bits into a codeword of a sliding window polar code of length N and dimension K which is decodable through a sliding window of size M, where a transformation matrix of the sliding window polar code is defined as T = W 2 S ⊗ T M /2 , where S = N / M and m = log 2 ( M /2), and where T M /2 is a transformation matrix of a classical polar code based on a kernel matrix T 2 = 1 0 1 1 , defined as T M / 2 = T 2 ⊗ m , and where W 2 S is a full binary lower triangular matrix of size 2 S x2 S , wherein the device is configured to: - sequentially encode each of a plurality of blocks of the input sequence by applying the transformation matrix, T M /2 to an auxiliary sequence to sequentially obtain each block of the codeword, wherein the auxiliary sequence is obtained by performing an XOR operation to the block and a previous block of the input sequence, or in case of the first block of the input sequence, the XOR operation is not performed; and - sequentially output each obtained codeword block of the codeword. - sequentially encode each of a plurality of blocks of the input sequence by applying the transformation matrix, T M /2 to an auxiliary sequence to sequentially obtain each block of the codeword, wherein the auxiliary sequence is obtained by performing an XOR operation to the block and a previous block of the input sequence, or in case of the first block of the input sequence, the XOR operation is not performed; and - sequentially output each obtained codeword block of the codeword.
A MEMS sensor device package (600; 700; 800; 900; 1000; 1100) comprising: a sensor assembly comprising a sensor device (616; 716; 816; 916; 1016b; 1116b) and a sensor circuit (614; 714; 814; 914; 1014b; 1114b) coupled to the sensor device (616; 716; 816; 916; 1016b; 1116b) via a communicating link; a package housing comprising a top member (602; 702; 802; 902; 1002; 1102) and a bottom member attached to the top member (602; 702; 802; 902; 1002; 1102) for encapsulating the sensor assembly; a passageway (620; 720; 820a; 920; 1020b; 1120) fluidly coupled the sensor device (616; 716; 816; 916; 1016b; 1116b) which allows attributes outside the package housing to enter and fluidly communicate with the sensor device (616; 716; 816; 916; 1016b; 1116b), wherein the passageway (620; 720; 820a; 920; 1020b; 1120) is included into the package housing; wherein the top member (602; 702; 802; 902; 1002; 1102) comprises a top wall and side walls, the side walls are attached to the bottom member , and the passageway (620; 720; 820a; 920; 1020b; 1120) is formed in at least one of the side walls; characterized in that the sensor assembly is mounted to the top member (602; 702; 802; 902; 1002; 1102); and the sensor device (616; 716; 816; 916; 1016b; 1116b) is mounted to the side wall and the passageway (620; 720; 820a; 920; 1020b; 1120) is located adjacent to the sensor device (616; 716; 816; 916; 1016b; 1116b). a sensor assembly comprising a sensor device (616; 716; 816; 916; 1016b; 1116b) and a sensor circuit (614; 714; 814; 914; 1014b; 1114b) coupled to the sensor device (616; 716; 816; 916; 1016b; 1116b) via a communicating link; a package housing comprising a top member (602; 702; 802; 902; 1002; 1102) and a bottom member attached to the top member (602; 702; 802; 902; 1002; 1102) for encapsulating the sensor assembly; a passageway (620; 720; 820a; 920; 1020b; 1120) fluidly coupled the sensor device (616; 716; 816; 916; 1016b; 1116b) which allows attributes outside the package housing to enter and fluidly communicate with the sensor device (616; 716; 816; 916; 1016b; 1116b), wherein the passageway (620; 720; 820a; 920; 1020b; 1120) is included into the package housing; wherein the top member (602; 702; 802; 902; 1002; 1102) comprises a top wall and side walls, the side walls are attached to the bottom member , and the passageway (620; 720; 820a; 920; 1020b; 1120) is formed in at least one of the side walls; characterized in that the sensor assembly is mounted to the top member (602; 702; 802; 902; 1002; 1102); and the sensor device (616; 716; 816; 916; 1016b; 1116b) is mounted to the side wall and the passageway (620; 720; 820a; 920; 1020b; 1120) is located adjacent to the sensor device (616; 716; 816; 916; 1016b; 1116b).
Method for performing a pressure test on a tank , wherein the tank is connected via a tank valve to a tank feed line , which has a first valve for interrupting the tank feed line , wherein the first valve is opened for filling the tank, characterized in that during the pressure test, prior to the tank being filled via the tank feed line , a substance flow of a gaseous, pressurized medium, in particular in the form of hydrogen, is directed to the tank , with the first valve closed, via a bypass line bridging the first valve , is throttled by means of a throttle provided in the bypass line such that downstream of the throttle a tank feed-line pressure acting on the tank valve rises in a controlled manner, wherein the tank valve is opened in particular when the tank feed-line pressure exceeds the tank pressure prevailing in the tank , wherein the tank feed-line pressure is measured and the tank feed-line pressure that is established after the opening of the tank valve in the tank feed line is determined as the tank pressure.
A flexible sensor patch comprising: a flexible base having outer and inner surfaces and a periphery; an adhesive layer disposed on at least a portion of the outer surface; a sensor comprising a capacitive sensor element , the capacitive sensor element comprising: a first conductive electrode ; a second conductive electrode ; and a dielectric microporous material disposed between the first and second conductive electrodes; and the sensor further comprising a radiofrequency transponder disposed on the flexible base and coplanar with the first conductive electrode which is surrounded by the radiofrequency transponder , and a flexible porous cover secured to the flexible base along at least major portion of the periphery, wherein the flexible porous cover and the flexible base collectively enclose at least a major portion of the sensor . a flexible base having outer and inner surfaces and a periphery; an adhesive layer disposed on at least a portion of the outer surface; a sensor comprising a capacitive sensor element , the capacitive sensor element comprising: a first conductive electrode ; a second conductive electrode ; and a dielectric microporous material disposed between the first and second conductive electrodes; and the sensor further comprising a radiofrequency transponder disposed on the flexible base and coplanar with the first conductive electrode which is surrounded by the radiofrequency transponder , and a first conductive electrode ; a second conductive electrode ; and a dielectric microporous material disposed between the first and second conductive electrodes; and the sensor further comprising a radiofrequency transponder disposed on the flexible base and coplanar with the first conductive electrode which is surrounded by the radiofrequency transponder , and a flexible porous cover secured to the flexible base along at least major portion of the periphery, wherein the flexible porous cover and the flexible base collectively enclose at least a major portion of the sensor .
Supply device for the electrical supply of at least one consumer , with a primary power supply system , in which a fuel cell device having a first primary power supply system connection and a second primary power supply system connection is present, with a secondary power supply system , in which a battery having a first secondary power supply system connection and a second secondary power supply system connection is present, which battery has an operational voltage range, which has an upper limit of a maximum voltage and a lower limit of a minimum voltage, and which has an operational current intensity range for supplying current to the at least one consumer , wherein the first primary power supply system connection and the first secondary power supply system connection are connected to each other via a barrier diode and the second primary power supply system connection and the second secondary power supply system connection are directly connected to each other, whereby the primary power supply system is connected to the secondary power supply system without a voltage transformer and a no-load voltage of the fuel cell device corresponds at most to the maximum voltage of the battery , characterised in that an impedance spectroscopy device is present in the primary power supply system , which impedance spectroscopy device is configured to carry out an impedance spectroscopy measurement to check for the presence of frost start conditions at the fuel cell device or at individual fuel cells of the fuel cell device , the impedance spectroscopy device being connected at one end to the first primary power supply system connection and at the other end to the second primary power supply system connection .
An apparatus , e.g. a user device, UE, for a wireless communication network, comprising one or more antennas for receiving a radio signal, wherein the apparatus is configured or preconfigured to measure, for a position measurement, one or more first radio resources and one or more second radio resources, wherein the one or more first radio resources and the one or more second radio resources are for transmitting positioning reference signals, characterized in that the apparatus is configured to activate or deactivate, in response to a certain event, a measuring of the one or more second radio resources in addition to, or instead of, the one or more first radio resources for the position measurement, wherein the certain event is a measurement of a predetermined positioning reference signal. wherein the apparatus is configured or preconfigured to measure, for a position measurement, one or more first radio resources and one or more second radio resources, wherein the one or more first radio resources and the one or more second radio resources are for transmitting positioning reference signals, characterized in that the apparatus is configured to activate or deactivate, in response to a certain event, a measuring of the one or more second radio resources in addition to, or instead of, the one or more first radio resources for the position measurement, wherein the certain event is a measurement of a predetermined positioning reference signal.
An infra-red detection device comprising: an infra-red detection section including a pair of opposed pyroelectric elements; a plurality of optical elements arranged to direct infra-red radiation to the infrared detection section; and a masking section arranged in contact with the first optical element to partially mask a first optical element of the plurality of optical elements, such that a first part of the first optical element is masked and a second part of the first optical element is not masked, such that the masking section is arranged to attenuate infra-red radiation directed via the first optical element, wherein the first optical element is a Fresnel facet, and the first optical element and masking section are such that a shape of a detection zone associated with the first optical element is unaffected by the presence or absence of the masking section, the masking of the first optical element by the masking section is the same for both of the pair of pyroelectric elements, and the first part of the first optical element is masked by a portion of the masking section that is opaque to infrared radiation. an infra-red detection section including a pair of opposed pyroelectric elements; a plurality of optical elements arranged to direct infra-red radiation to the infrared detection section; and a masking section arranged in contact with the first optical element to partially mask a first optical element of the plurality of optical elements, such that a first part of the first optical element is masked and a second part of the first optical element is not masked, such that the masking section is arranged to attenuate infra-red radiation directed via the first optical element, wherein the first optical element is a Fresnel facet, and the first optical element and masking section are such that a shape of a detection zone associated with the first optical element is unaffected by the presence or absence of the masking section, the masking of the first optical element by the masking section is the same for both of the pair of pyroelectric elements, and the first part of the first optical element is masked by a portion of the masking section that is opaque to infrared radiation.
Release substrate comprising a) a carrier substrate having a front side and a reverse side opposite the front side, and b) a release layer disposed on the front side and/or reverse side of the carrier substrate, characterized in that the release layer comprises or consists of a polymeric binder and a wax based on a vegetable oil, wherein - the carrier substrate is a paper or paperboard, - the release substrate additionally contains an interlayer and the interlayer is disposed between the carrier substrate and the release layer and - the interlayer contains an inorganic pigment selected from the list consisting of calcined kaolin, kaolin, kaolinite, magnesium silicate hydrate, silicon oxide, bentonite, calcium carbonate, aluminium hydroxide, aluminium oxide and boehmite. a) a carrier substrate having a front side and a reverse side opposite the front side, and b) a release layer disposed on the front side and/or reverse side of the carrier substrate, characterized in that the release layer comprises or consists of a polymeric binder and a wax based on a vegetable oil, wherein - the carrier substrate is a paper or paperboard, - the release substrate additionally contains an interlayer and the interlayer is disposed between the carrier substrate and the release layer and - the interlayer contains an inorganic pigment selected from the list consisting of calcined kaolin, kaolin, kaolinite, magnesium silicate hydrate, silicon oxide, bentonite, calcium carbonate, aluminium hydroxide, aluminium oxide and boehmite. - the carrier substrate is a paper or paperboard, - the release substrate additionally contains an interlayer and the interlayer is disposed between the carrier substrate and the release layer - the interlayer contains an inorganic pigment selected from the list consisting of calcined kaolin, kaolin, kaolinite, magnesium silicate hydrate, silicon oxide, bentonite, calcium carbonate, aluminium hydroxide, aluminium oxide and boehmite.
A wake up signal sending method, applied by a base station, comprising: configuring (S101, 5301) and sending to a terminal a number of groups corresponding to a wake up signal, WUS, and position information about the WUS; and sending (S102, S302) to the terminal, a signal corresponding to a first sequence corresponding to the WUS in a resource position corresponding to the position information, wherein the first sequence is a corresponding sequence selected from a sequence set, the sequence set is determined according to the number of groups, or the sequence set is determined according to a maximum number of groups. configuring (S101, 5301) and sending to a terminal a number of groups corresponding to a wake up signal, WUS, and position information about the WUS; and sending (S102, S302) to the terminal, a signal corresponding to a first sequence corresponding to the WUS in a resource position corresponding to the position information, wherein the first sequence is a corresponding sequence selected from a sequence set, the sequence set is determined according to the number of groups, or the sequence set is determined according to a maximum number of groups.
A method for producing a partially hydrolysed lignocellulosic material comprising the steps: (i) treating a lignocellulosic material with sulphuric acid, wherein sulphuric acid is present in an amount from 0.5% to 5% by weight of the lignocellulosic material; (ii) treating the lignocellulosic material of step (i) with an agent that comprises glycerol, wherein glycerol is present in an amount from 30% to 100% by weight of the agent and wherein the agent is present at an amount of 25% to 200% by weight of the lignocellulosic material and wherein the agent further comprises no acid or less than 0.1% of an acid by weight of the agent; thereby producing a partially hydrolysed lignocellulosic material. (i) treating a lignocellulosic material with sulphuric acid, wherein sulphuric acid is present in an amount from 0.5% to 5% by weight of the lignocellulosic material; (ii) treating the lignocellulosic material of step (i) with an agent that comprises glycerol, wherein glycerol is present in an amount from 30% to 100% by weight of the agent and wherein the agent is present at an amount of 25% to 200% by weight of the lignocellulosic material and wherein the agent further comprises no acid or less than 0.1% of an acid by weight of the agent;
A control device for a vehicle configured to travel in a one-pedal mode in which driving and braking are controlled in response to operations on only an accelerator pedal , the control device comprising an electronic control unit configured to: control a braking force of the vehicle by using deceleration maps in which decelerations in a plurality of traveling directions are set for any points based on traveling history data, and calculate, during traveling in the one-pedal mode, a deceleration level based on deceleration information associated with a current traveling direction and a current position of the vehicle among pieces of deceleration information included in the deceleration maps. control a braking force of the vehicle by using deceleration maps in which decelerations in a plurality of traveling directions are set for any points based on traveling history data, and calculate, during traveling in the one-pedal mode, a deceleration level based on deceleration information associated with a current traveling direction and a current position of the vehicle among pieces of deceleration information included in the deceleration maps.