mhurhangee/ep-ind-claims huggingface dataset:
A wireless sensing device (WSD, WSD') comprising: - a vibration sensor (S, S') configured to detect a mechanical vibration (V, V') and to generate an electric signal (I, I') in response to said mechanical vibration (V, V'); and - a transceiver (TRX, TRX') suitable for establishing a wireless connection between said wireless sensing device (WSD, WSD') and a remote device, wherein said transceiver (TRX, TRX') is configured to be powered by at least a portion (I, I1') of said generated electric signal (I, I') and, depending on an intensity of said at least a portion (I, I1') of said generated electric signal (I, I'), to switch on and transmit a radio signal to said remote device, and wherein said transceiver (TRX, TRX') is configured to remain switched off if said intensity of said at least a portion (I, I1') of said generated electric signal (I, I') is not sufficient to power said transceiver (TRX, TRX'). - a vibration sensor (S, S') configured to detect a mechanical vibration (V, V') and to generate an electric signal (I, I') in response to said mechanical vibration (V, V'); and - a transceiver (TRX, TRX') suitable for establishing a wireless connection between said wireless sensing device (WSD, WSD') and a remote device,
A multi-core fiber, comprising: a plurality of cores (10 1-7) extending along a fiber axis; and formed of silica glass containing GeO 2; optical claddings (11 1-7) surrounding the plurality of cores, respectively; and a jacket of glass surrounding the plurality of cores and their claddings, in which fiber: a skew between optical signals propagating through the plurality of cores is 1 ps/m or less; a propagation constant difference between two adjacent cores of the plurality of cores is more than 0; both a refractive index difference and a diameter are different between the two adjacent cores of the plurality of cores; and a core structure change parameter Δ(Δn)/Δ is within a range of -1.5x10 -2 to-0.55x10 -2, Δ(Δn) representing a change amount of the refractive index difference between the cores and is expressed by percent and Δ representing a change amount of the diameter between the cores and is expressed by micrometer. a plurality of cores (10 1-7) extending along a fiber axis; and formed of silica glass containing GeO 2; optical claddings (11 1-7) surrounding the plurality of cores, respectively; and a jacket of glass surrounding the plurality of cores and their claddings, in which fiber: a skew between optical signals propagating through the plurality of cores is 1 ps/m or less; a propagation constant difference between two adjacent cores of the plurality of cores is more than 0; both a refractive index difference and a diameter are different between the two adjacent cores of the plurality of cores; and a core structure change parameter Δ(Δn)/Δ is within a range of -1.5x10 -2 to-0.55x10 -2, Δ(Δn) representing a change amount of the refractive index difference between the cores and is expressed by percent and Δ representing a change amount of the diameter between the cores and is expressed by micrometer. a skew between optical signals propagating through the plurality of cores is 1 ps/m or less; a propagation constant difference between two adjacent cores of the plurality of cores is more than 0; both a refractive index difference and a diameter are different between the two adjacent cores of the plurality of cores; and a core structure change parameter Δ(Δn)/Δ is within a range of -1.5x10 -2 to-0.55x10 -2, Δ(Δn) representing a change amount of the refractive index difference between the cores and is expressed by percent and Δ representing a change amount of the diameter between the cores and is expressed by micrometer.
Kitchen appliance, in particular domestic kitchen appliance, with a thermally insulating housing (1, 2) enclosing a storage chamber, wherein an air channel embedded into a wall surface of the housing (1, 2) communicates with the storage chamber via openings of a board extending between the air channel and the storage chamber, characterised in that the board is fixed on the wall surface by means of at least one yoke, which comprises a centre piece resting against a side of the board facing the storage chamber and latching hooks emerging from the centre piece and engaging through at least one opening of the board into undercuts of the air channel.
A sealing machine for the sealing of packages, said sealing machine comprising a sealing chamber in which packages can be sealed, wherein the sealing chamber comprises a working platform on which packages can be conveyed; a chamber lid movable relative to the working platform between an open and a closed position; a sealing mechanism for the sealing of packages; and a suction unit for suction of gas from a volume enclosed by the chamber lid and the working platform; wherein the sealing machine further comprises a protective frame kinematically connected to the chamber lid; characterized in that the protective frame has apertures through which gas can flow from the outer space into the enclosed volume.
A washing method of a handheld washing machine for washing laundry, comprising the following steps: a pre-washing step: spraying clean water to the laundry to wet the laundry: a main washing step: spraying a detergent to laundry through the handheld washing machine, then outputting a mechanical force to the laundry through the handheld washing machine to continuously wash the laundry, characterized by during the continuous washing, controlling a power pump to intermittently blow an airflow to the laundry by a nozzle, and outputting the mechanical force to the laundry by a brush head driven by a driving device, wherein the nozzle is disposed on the brush head. a main washing step: spraying a detergent to laundry through the handheld washing machine, then outputting a mechanical force to the laundry through the handheld washing machine to continuously wash the laundry, characterized by during the continuous washing, controlling a power pump to intermittently blow an airflow to the laundry by a nozzle, and outputting the mechanical force to the laundry by a brush head driven by a driving device, wherein the nozzle is disposed on the brush head.
A wireless communication method, the method performed by a terminal, the method comprising: performing a first determination, by a terminal configured with a number of downlink cells, for at least a first scheduling cell that supports an enhanced physical downlink control channel monitoring capability, of a first maximum number of physical downlink control channel, PDCCH, detection candidate sets and a second maximum number of non-overlapping control channel elements, CCEs, for a first subcarrier spacing and a span pattern that is determined based on (X, Y), wherein an interval between starts of two spans is not less than X symbols, wherein Y indicates a number of symbols in a span, and wherein the first maximum number and the second maximum number are determined for each span in a plurality of spans included in a time slot; performing a second determination, by the terminal, for at least a second scheduling cell that does not support the enhanced physical downlink control channel monitoring capability, of a third maximum number of PDCCH detection candidate sets and a fourth maximum number of non-overlapping CCEs for a second subcarrier spacing, wherein the third maximum number and the fourth maximum number are determined for each slot in a plurality of slots; and performing, by the terminal, a PDCCH monitoring operation related to a monitoring opportunity using the first maximum number, the second maximum number, the third maximum number, and the fourth maximum number. performing a first determination, by a terminal configured with a number of downlink cells, for at least a first scheduling cell that supports an enhanced physical downlink control channel monitoring capability, of a first maximum number of physical downlink control channel, PDCCH, detection candidate sets and a second maximum number of non-overlapping control channel elements, CCEs, for a first subcarrier spacing and a span pattern that is determined based on (X, Y), wherein an interval between starts of two spans is not less than X symbols, wherein Y indicates a number of symbols in a span, and wherein the first maximum number and the second maximum number are determined for each span in a plurality of spans included in a time slot; performing a second determination, by the terminal, for at least a second scheduling cell that does not support the enhanced physical downlink control channel monitoring capability, of a third maximum number of PDCCH detection candidate sets and a fourth maximum number of non-overlapping CCEs for a second subcarrier spacing, wherein the third maximum number and the fourth maximum number are determined for each slot in a plurality of slots; and performing, by the terminal, a PDCCH monitoring operation related to a monitoring opportunity using the first maximum number, the second maximum number, the third maximum number, and the fourth maximum number.
A T cell activating bispecific antigen binding molecule for use in a method for treating cancer, wherein the T cell activating bispecific antigen binding molecule is used in combination with a PD-1 axis binding antagonist, wherein the T cell activating bispecific antigen binding molecule comprises at least two antigen binding moieties, one of which is a crossover Fab molecule and one of which is a conventional Fab molecule, wherein the T cell activating bispecific antigen binding molecule further comprises an Fc domain composed of a first and second subunit capable of stable association, wherein the first antigen binding molecule comprises a first antigen binding moiety capable of binding to CD3 comprising at least one heavy chain complementarity determining region amino acid sequence selected from the group consisting of SEQ ID NO: 37, SEQ ID NO: 38 and SEQ ID NO:39 and at least one light chain CDR selected from the group of SEQ ID NO: 32, SEQ ID NO: 33, SEQ ID NO: 34, wherein the second antigen binding moiety is fused at the C-terminus of the Fab heavy chain to the N-terminus of the first or the second subunit of the Fc domain and the first antigen binding moiety is fused at the C-terminus of the Fab heavy chain to the N-terminus of the Fab heavy chain of the second antigen binding moiety, wherein the PD-1 axis binding antagonist inhibits the binding of PD-1 to its ligand binding partners, wherein the PD-1 axis binding antagonist is selected from the group consisting of an anti-PD-1 antibody, an anti-PD-L1 antibody and an anti-PD-L2 antibody.
A method implemented by an imaging device (10, 500), comprising: recording an image of a subject (22A, 22B) to which a wearable computing device (12A, 12B) is secured; responsive to the recording, wirelessly receiving data from the wearable computing device (12A, 12B), the data including an identifier of the wearable computing device (12A, 12B) and biometric data of the subject (22A, 22B); embedding the identifier and the biometric data as metadata in the recorded image; estimating a position of the subject (22A, 22B) within the recorded image; embedding an indication of the position as metadata in the recorded image, characterized in that estimating the position of the subject (22A, 22B) within the recorded image comprises: receiving a reference image of the subject's face from the wearable computing device (12A, 12B); and performing a facial recognition algorithm to determine the position of the subject (22A, 22B) within the recorded image based on the reference image. recording an image of a subject (22A, 22B) to which a wearable computing device (12A, 12B) is secured; responsive to the recording, wirelessly receiving data from the wearable computing device (12A, 12B), the data including an identifier of the wearable computing device (12A, 12B) and biometric data of the subject (22A, 22B); embedding the identifier and the biometric data as metadata in the recorded image; estimating a position of the subject (22A, 22B) within the recorded image; embedding an indication of the position as metadata in the recorded image, characterized in that estimating the position of the subject (22A, 22B) within the recorded image comprises: receiving a reference image of the subject's face from the wearable computing device (12A, 12B); and performing a facial recognition algorithm to determine the position of the subject (22A, 22B) within the recorded image based on the reference image.
Non-therapeutic use of Lactobacillus ONRICb0240 (FERM BP-10065) for improving or sustaining QOL (Quality of Life), wherein the improving or sustaining QOL is physical health improving or sustaining wherein improving or sustaining QOL is at least one physical health improving or sustaining selected from the group consisting of vitality improving or sustaining, fatigue recovery or alleviating, and anti-fatigue.
A pressure vessel apparatus for the storage of compressed gas, comprising: (a) a pressure vessel for containing the compressed gas; (b) a shut-off valve in engagement with the mouth of the pressure vessel; (c) an external pressure sensor device for sensing the pressure in the vessel, the pressure sensor device being in continuous communication with the interior of the pressure vessel and being adapted to generate a first signal which is a function of the sensed pressure in the pressure vessel; (d) a temperature sensor device for sensing the temperature of the gas in the vessel, the temperature sensor device being in thermal communication with the interior of the pressure vessel and being adapted to generate a second signal which is a function of the sensed temperature of the gas; (e) a programmable computing device for calculating information concerning the amount of contents in the pressure vessel from the said first and second signals, and (f) a display screen operatively associated with the computing device for displaying said information, characterised in that the pressure vessel comprises an inner fibre-reinforced or fibre wrapped liner, and an outer plastics shell encasing the liner, wherein the shell has a pair of vertical integral handles (18, 20) and the screen has a position under one of the handles such that it is protected by the said one handle from impacts from above. (a) a pressure vessel for containing the compressed gas; (b) a shut-off valve in engagement with the mouth of the pressure vessel; (c) an external pressure sensor device for sensing the pressure in the vessel, the pressure sensor device being in continuous communication with the interior of the pressure vessel and being adapted to generate a first signal which is a function of the sensed pressure in the pressure vessel; (d) a temperature sensor device for sensing the temperature of the gas in the vessel, the temperature sensor device being in thermal communication with the interior of the pressure vessel and being adapted to generate a second signal which is a function of the sensed temperature of the gas; (e) a programmable computing device for calculating information concerning the amount of contents in the pressure vessel from the said first and second signals, and (f) a display screen operatively associated with the computing device for displaying said information,
A chromatographic separation process for recovering a polyunsaturated fatty acid (PUFA) product, from a feed mixture, which process comprises introducing the feed mixture to a simulated or actual moving bed chromatography apparatus having a plurality of linked chromatography columns containing, as eluent, an aqueous organic solvent, wherein the apparatus has a plurality of zones comprising at least a first zone and second zone, each zone having an extract stream and a raffinate stream from which liquid can be collected from said plurality of linked chromatography columns, and wherein (a) a raffinate stream containing the PUFA product together with more polar components is collected from a column in the first zone and introduced to a nonadjacent column in the second zone, and/or (b) an extract stream containing the PUFA product together with less polar components is collected from a column in the second zone and introduced to a nonadjacent column in the first zone, said PUFA product being separated from different components of the feed mixture in each zone, and wherein the aqueous organic solvent is other than aqueous alcohol.
Amidobenzothiazoles of general formulae A wherein R, R 1, R 2 = H, alkoxy, halo, haloalkyl or nitro, or wherein R=H, R 1 = methyl, ethyl or trifluoromethoxy, R 2 =H, or wherein R= methyl, ethyl or trifluoromethoxy, R 1 =H, R 2 =H, or wherein R= methyl, R 1 = methyl, R 2 =H, or wherein R=H, R 1 =H, R 2 = methyl; and wherein G= or or wherein R, R 1, R 2 = H, alkoxy, halo, haloalkyl or nitro, or wherein R=H, R 1 = methyl, ethyl or trifluoromethoxy, R 2 =H, or wherein R= methyl, ethyl or trifluoromethoxy, R 1 =H, R 2 =H, or wherein R= methyl, R 1 = methyl, R 2 =H, or wherein R=H, R 1 =H, R 2 = methyl; and wherein G= or or
A sensor for determining the concentration of a component of a fluid flow, the sensor comprising - a substrate, - at least one heater element arranged on the substrate, - at least one adsorbing layer selected to adsorb the component, - a control and energy supply element for regulating a pulsed supply of energy to the heater element, wherein the heater element is in thermal contact with the adsorbing layer such that a heat pulse during operation of the heater element increases the temperature of the adsorbing layer to a temperature level (T_high) equal or above a desorption temperature (T_desorp) of the component, characterized in that the sensor further comprises - at least one temperature sensor in thermal contact with the adsorbing layer for monitoring a temperature response of the adsorbing layer to the heat pulse by measuring a temperature curve, wherein the sensor is configured to convert the temperature curve of the adsorbing layer at or above the desorption temperature (T_desorp) into a parameter representative of the concentration of the component, wherein the sensor is configured to detect a carbon dioxide concentration and wherein the sensor is configured such that the desorption process at or above the desorption temperature (T_desorp) is an endothermal process such that energy is required to release the adsorbed component from the adsorbing layer. - a substrate, - at least one heater element arranged on the substrate, - at least one adsorbing layer selected to adsorb the component, - a control and energy supply element for regulating a pulsed supply of energy to the heater element, wherein the heater element is in thermal contact with the adsorbing layer such that a heat pulse during operation of the heater element increases the temperature of the adsorbing layer to a temperature level (T_high) equal or above a desorption temperature (T_desorp) of the component, characterized in that the sensor further comprises - at least one temperature sensor in thermal contact with the adsorbing layer for monitoring a temperature response of the adsorbing layer to the heat pulse by measuring a temperature curve, wherein the sensor is configured to convert the temperature curve of the adsorbing layer at or above the desorption temperature (T_desorp) into a parameter representative of the concentration of the component, wherein the sensor is configured to detect a carbon dioxide concentration and wherein the sensor is configured such that the desorption process at or above the desorption temperature (T_desorp) is an endothermal process such that energy is required to release the adsorbed component from the adsorbing layer. wherein the sensor is configured to convert the temperature curve of the adsorbing layer at or above the desorption temperature (T_desorp) into a parameter representative of the concentration of the component, wherein the sensor is configured to detect a carbon dioxide concentration and wherein the sensor is configured such that the desorption process at or above the desorption temperature (T_desorp) is an endothermal process such that energy is required to release the adsorbed component from the adsorbing layer.
Holding plate for a fuel cell, intended to hold an electrode membrane assembly of an electrochemical cell whose electrodes comprise a diffusion layer, comprising: ∘ a network of distribution channels situated on a face intended to be in contact with the diffusion layer of one of the electrodes, and intended to distribute a reactive gas to said electrode, the distribution channels being separated pairwise by a separating rib intended to be in contact with said diffusion layer; ∘ in at least a longitudinal part (Z 1, Z 2) of the distribution network, a plurality of partial blocking elements, distinct from one another, • situated in each of the distribution channels of the network, suitable for inducing therein a local reduction of a reactive gas flow cross section, and disposed longitudinally substantially periodically, • the partial blocking elements of each distribution channel being arranged so as to exhibit a longitudinal offset (ΔL b) with those of the adjacent distribution channels, characterized in that ∘ in at least said longitudinal part (Z 1, Z 2) of the distribution network, the separating ribs each comprise a plurality of transverse recesses distinct from one another and arranged so as to exhibit a longitudinal offset (ΔL d) with the partial blocking elements of the adjacent distribution channels. ∘ a network of distribution channels situated on a face intended to be in contact with the diffusion layer of one of the electrodes, and intended to distribute a reactive gas to said electrode, the distribution channels being separated pairwise by a separating rib intended to be in contact with said diffusion layer; ∘ in at least a longitudinal part (Z 1, Z 2) of the distribution network, a plurality of partial blocking elements, distinct from one another, • situated in each of the distribution channels of the network, suitable for inducing therein a local reduction of a reactive gas flow cross section, and disposed longitudinally substantially periodically, • the partial blocking elements of each distribution channel being arranged so as to exhibit a longitudinal offset (ΔL b) with those of the adjacent distribution channels, • situated in each of the distribution channels of the network, suitable for inducing therein a local reduction of a reactive gas flow cross section, and disposed longitudinally substantially periodically, • the partial blocking elements of each distribution channel being arranged so as to exhibit a longitudinal offset (ΔL b) with those of the adjacent distribution channels, ∘ in at least said longitudinal part (Z 1, Z 2) of the distribution network, the separating ribs each comprise a plurality of transverse recesses distinct from one another and arranged so as to exhibit a longitudinal offset (ΔL d) with the partial blocking elements of the adjacent distribution channels.