mhurhangee/ep-ind-claims huggingface dataset:
An antisense oligonucleotide for use in a method of treating an animal having cancer, wherein the cancer is a primary cancer, and wherein the antisense oligonucleotide is a modified oligonucleotide consisting of 12 to 30 linked nucleosides having a nucleobase sequence at least 85% complementary to a Metastasis-Associated-in-Lung-Adenocarcinoma-Transcript-1 (MALAT-1) nucleic acid and wherein the antisense compound reduces expression of MALAT-1.
Vehicle cabin comprising a cabin body, a lifting roof and at least one movement device, the movement device being connected to the cabin body and the lifting roof in such a way that it can move the lifting roof in a first direction of travel from a retracted position into an extended position, characterized in that the movement device is detachably connected to the lifting roof at a first end, and wherein the movement device, in a state detached from the lifting roof, can be moved below a floor level of the vehicle cabin in a second direction of travel which is opposite to the first direction of travel.
A carryable cooking apparatus comprising: a first housing (100; 1010) provided with an inverter (120; 1020) for induction heating; a second housing (200; 1120) for supporting a container (10; 1140) for receiving cooking food, and a working coil (210; 1030) to which a current supplied from the inverter (120; 1020) is transferred, heated as the container (10; 1140) for receiving cooking food is arranged thereon, wherein the first housing (100; 1010) and the second housing (200; 1120) constitute spaces detached from each other, wherein the working coil is arranged in the second housing, characterised in that, the first housing includes a motor for providing a rotational force and a transfer member for transferring the rotational force of the motor, and cooking food inside the container is stirred by the rotational force transferred by the transfer member. a first housing (100; 1010) provided with an inverter (120; 1020) for induction heating; a second housing (200; 1120) for supporting a container (10; 1140) for receiving cooking food, and a working coil (210; 1030) to which a current supplied from the inverter (120; 1020) is transferred, heated as the container (10; 1140) for receiving cooking food is arranged thereon, wherein the first housing (100; 1010) and the second housing (200; 1120) constitute spaces detached from each other, wherein the working coil is arranged in the second housing, characterised in that, the first housing includes a motor for providing a rotational force and a transfer member for transferring the rotational force of the motor, and cooking food inside the container is stirred by the rotational force transferred by the transfer member.
A water removal method for gas concentration and sampling, characterized in that the water removal method for gas concentration and sampling comprises the following steps of: a: introducing a sample gas into a first cold trap tube filled with hydrophilic materials and being in a cooling state for water removal, and then introducing the sample gas after passing through the first cold trap tube into a concentration cold trap tube in a cooling state for concentration; b: introducing a carrier gas into the first cold trap tube in a heating state; conveying organic substances and moisture both desorbed from the first cold trap tube by means of the carrier gas to a second cold trap tube filled with hydrophobic organic substance-adsorbing materials and being in a cooling state, for adsorbing the organic substances desorbed from the first cold trap tube; and carrying the moisture desorbed from the first cold trap tube out of the second cold trap tube by means of the carrier gas; c: introducing the carrier gas into the first cold trap tube and the second cold trap tube simultaneously in a heating state, and conveying the organic substances respectively desorbed from the first cold trap tube and the second cold trap tube by means of the carrier gas to the concentration cold trap tube in a cooling state for concentration. a: introducing a sample gas into a first cold trap tube filled with hydrophilic materials and being in a cooling state for water removal, and then introducing the sample gas after passing through the first cold trap tube into a concentration cold trap tube in a cooling state for concentration; b: introducing a carrier gas into the first cold trap tube in a heating state; conveying organic substances and moisture both desorbed from the first cold trap tube by means of the carrier gas to a second cold trap tube filled with hydrophobic organic substance-adsorbing materials and being in a cooling state, for adsorbing the organic substances desorbed from the first cold trap tube; and carrying the moisture desorbed from the first cold trap tube out of the second cold trap tube by means of the carrier gas; c: introducing the carrier gas into the first cold trap tube and the second cold trap tube simultaneously in a heating state, and conveying the organic substances respectively desorbed from the first cold trap tube and the second cold trap tube by means of the carrier gas to the concentration cold trap tube in a cooling state for concentration.
A catalyst constituent of catalyst for polymerizing or copolymerizing an α-olefin, represented by Formula 1: Formula 1 Si(OR 1) 3 (NR 2 R 3) (wherein in Formula 1, R 1, R 2, and R 3 are ethyl groups).
A pinch valve housing, comprising a body comprising at least one pressure chamber, a pinch valve (76, 250) disposed in said pressure chamber, and an inlet port in fluid communication with said pressure chamber, characterized in that said inlet port is provided in an upper side of said pinch valve housing, the pinch valve housing further comprising a pressure passage extending from said inlet port to said pressure chamber, and a barrier element disposed in said inlet port so as to provide access for said barrier element to be replaced.
Ambulatory insulin infusion system, including: a) an administration module (2.5, 2.8) for insulin administration, the administration module (2.5, 2.8) being designed to administer insulin according to a basal profile continuously and additionally a bolus on demand, the bolus having a bolus amount, b) a data collection module (1.1, 1.2, 1.3, 1.6, 1.7) for collecting data relevant for the bolus amount, the data collection module (1.1, 1.2, 1.3, 1.6, 1.7) being operatively coupled to the administration module (2.5, 2.8), c) a delay module (2.7), the delay module (2.7) being designed to trigger a start of the bolus administration a therapeutically significant delay interval after the collection of the data, characterized by the delay module being realized by circuitry or firmware code that continuously tests if a condition for terminating the delay interval is met and provides a trigger signal upon the condition being met, the condition for terminating the delay interval being given by the reception of an acknowledgement user input and/or by a signal provided by a continuous glucose measurement unit. a) an administration module (2.5, 2.8) for insulin administration, the administration module (2.5, 2.8) being designed to administer insulin according to a basal profile continuously and additionally a bolus on demand, the bolus having a bolus amount, b) a data collection module (1.1, 1.2, 1.3, 1.6, 1.7) for collecting data relevant for the bolus amount, the data collection module (1.1, 1.2, 1.3, 1.6, 1.7) being operatively coupled to the administration module (2.5, 2.8), c) a delay module (2.7), the delay module (2.7) being designed to trigger a start of the bolus administration a therapeutically significant delay interval after the collection of the data, characterized by the delay module being realized by circuitry or firmware code that continuously tests if a condition for terminating the delay interval is met and provides a trigger signal upon the condition being met, the condition for terminating the delay interval being given by the reception of an acknowledgement user input and/or by a signal provided by a continuous glucose measurement unit.
A user equipment, UE,, comprising: a processor; and memory in electronic communication with the processor, wherein instructions stored in the memory are executable to: acquire a first higher layer configuration indicating at least a physical uplink control channel, PUCCH, resource configuration corresponding to a PUCCH format among a plurality of PUCCH formats which have at least two types of lengths, wherein the PUCCH format consists of one or two symbol(s); acquire a second higher layer configuration indicating multiple sets of PUCCH resource configurations; select a set of PUCCH resource configurations from the sets of PUCCH resource configurations based on a payload size of uplink control information, UCI; and transmit the UCI on a PUCCH resource, the PUCCH resource corresponding to a PUCCH resource configuration within the selected set of PUCCH resource configurations. a processor; and memory in electronic communication with the processor, wherein instructions stored in the memory are executable to: acquire a first higher layer configuration indicating at least a physical uplink control channel, PUCCH, resource configuration corresponding to a PUCCH format among a plurality of PUCCH formats which have at least two types of lengths, wherein the PUCCH format consists of one or two symbol(s); acquire a second higher layer configuration indicating multiple sets of PUCCH resource configurations; select a set of PUCCH resource configurations from the sets of PUCCH resource configurations based on a payload size of uplink control information, UCI; and transmit the UCI on a PUCCH resource, the PUCCH resource corresponding to a PUCCH resource configuration within the selected set of PUCCH resource configurations. acquire a first higher layer configuration indicating at least a physical uplink control channel, PUCCH, resource configuration corresponding to a PUCCH format among a plurality of PUCCH formats which have at least two types of lengths, wherein the PUCCH format consists of one or two symbol(s); acquire a second higher layer configuration indicating multiple sets of PUCCH resource configurations; select a set of PUCCH resource configurations from the sets of PUCCH resource configurations based on a payload size of uplink control information, UCI; and transmit the UCI on a PUCCH resource, the PUCCH resource corresponding to a PUCCH resource configuration within the selected set of PUCCH resource configurations.
A method comprising: a) providing a substrate; b) applying an aqueous catalyst solution to the substrate, the aqueous catalyst solution comprises nanoparticles of one or more metals chosen from silver, gold, platinum, palladium, iridium, copper, aluminum, cobalt, nickel and iron; and one or more stabilizing compounds chosen from gallic acid, dihydroxybenzoic acid, hydroxybenzoic acid, 2,4,6-trihydroxybenzoic acid, gallic acid esters and salts thereof in amounts of 50 ppm to 500 ppm; wherein the aqueous catalyst solution is free of tin; and c) electrolessly depositing metal onto the substrate using an electroless metal plating bath, wherein the electrolessly deposited metal is chosen from copper, copper alloy, nickel and nickel alloy. a) providing a substrate; b) applying an aqueous catalyst solution to the substrate, the aqueous catalyst solution comprises nanoparticles of one or more metals chosen from silver, gold, platinum, palladium, iridium, copper, aluminum, cobalt, nickel and iron; and one or more stabilizing compounds chosen from gallic acid, dihydroxybenzoic acid, hydroxybenzoic acid, 2,4,6-trihydroxybenzoic acid, gallic acid esters and salts thereof in amounts of 50 ppm to 500 ppm; wherein the aqueous catalyst solution is free of tin; and c) electrolessly depositing metal onto the substrate using an electroless metal plating bath, wherein the electrolessly deposited metal is chosen from copper, copper alloy, nickel and nickel alloy.
A parking assist sensor holder comprising: a body portion comprising, a bracket to couple a parking assist sensor thereto; an aperture for accommodating a sensing portion of the PAS; and at least one live hinge for providing flexibility to the body portion to match a curvature of a mounting component for mounting the PAS, wherein the at least one live hinge has a lower cross-sectional thickness than a cross-sectional thickness of the rest of the body portion. a bracket to couple a parking assist sensor thereto; an aperture for accommodating a sensing portion of the PAS; and at least one live hinge for providing flexibility to the body portion to match a curvature of a mounting component for mounting the PAS, wherein the at least one live hinge has a lower cross-sectional thickness than a cross-sectional thickness of the rest of the body portion.
Turbocharger for a motor vehicle, having - a turbine housing, a bearing housing and an exhaust manifold, a common cooling device (14, 16, 20, 22) being integrated into the exhaust manifold, the turbine housing and the bearing housing, the cooling device (14, 16, 20, 22) having a coolant feed line and a coolant discharge line in the exhaust manifold, characterized in that, in addition, at least one oil feed line is provided which is integrated into the exhaust manifold, the turbine housing and the bearing housing, and is arranged in the exhaust manifold adjacently with respect to the coolant feed line and/or the coolant discharge line (20, 22), and through which a compressed oil can flow into the turbocharger for oil pressure supply. - a turbine housing, a bearing housing and an exhaust manifold,
A thermally insulated transport container with a housing (1a, 1b) for forming a space for goods, with walls (3, 3a, 3b), wherein sandwich plastic plates are provided as walls (3, 3a, 3b), with a honeycomb core welded on both sides to one covering ply, respectively, the honeycomb core and the covering plies consisting of a thermoplastic material, preferably PP, characterized in that a thermal insulation abuts against the walls, wherein the walls (3a or 3b) have two plies of the sandwich plastic plates with an abutting thermal insulation located therebetween, wherein adjacent sandwich plastic plates (3a or 3b), along their joint edge and/or across the corner, are attached to each other and preferably sealed by welding, wherein welding is carried out by means of fusion welding, heated-air welding or plastic extrusion welding, and the transport container has a frameless construction, wherein the sandwich plastic plates (3a or 3b) that are connected to each other form a self-supporting housing (1a or 1b), wherein no further stiffening elements in addition to the sandwich plastic plates, the thermal insulation and a door reinforcing means for a door are provided,
A first communication apparatus comprising: a reception unit configured to receive, from a second communication apparatus, information about uplink quality between a terminal and the first communication apparatus and information about the uplink quality between the terminal and the second communication apparatus as information about uplink quality of the terminal, when the terminal communicates with the first communication apparatus via the second communication apparatus; and a control unit configured to control uplink data transmission by the terminal based on the information about uplink quality of the terminal. a reception unit configured to receive, from a second communication apparatus, information about uplink quality between a terminal and the first communication apparatus and information about the uplink quality between the terminal and the second communication apparatus as information about uplink quality of the terminal, when the terminal communicates with the first communication apparatus via the second communication apparatus; and a control unit configured to control uplink data transmission by the terminal based on the information about uplink quality of the terminal.
A method for producing a hydraulic powder, comprising adding, during pulverization of a hydraulic compound, a strength improver composition for a hydraulic powder which contains a reaction product [hereinbelow, referred to as the component] obtained by reacting glycerin [hereinbelow, referred to as the component (al)] and formaldehyde [hereinbelow, referred to as the component], at, in terms of solid matter, 0.0005 part by mass or more and 1.0 part by mass or less relative to 100 parts by mass of the hydraulic compound.
A modular bird dispersal system, comprising: - a photonic beam module having a light source to generate an output beam, the photonic beam module further comprising a control unit for controlling the light source; - a receiving module having a physical connector, for reversibly connecting to a matching counterpart connector on the photonic beam module, characterized in that the physical connector and matching counterpart connector are arranged to, when connected: o align the photonic beam module within a pre-defined position; o electrically connect a plurality of spaced connection pads with matching connection pins to form an electrical connection between the photonic beam module and receiving module; and o at least partly dissipate heat to a thermal mass provided in the physical connector. - a photonic beam module having a light source to generate an output beam, the photonic beam module further comprising a control unit for controlling the light source; - a receiving module having a physical connector, for reversibly connecting to a matching counterpart connector on the photonic beam module, characterized in that the physical connector and matching counterpart connector are arranged to, when connected: o align the photonic beam module within a pre-defined position; o electrically connect a plurality of spaced connection pads with matching connection pins to form an electrical connection between the photonic beam module and receiving module; and o at least partly dissipate heat to a thermal mass provided in the physical connector. o align the photonic beam module within a pre-defined position; o electrically connect a plurality of spaced connection pads with matching connection pins to form an electrical connection between the photonic beam module and receiving module; and o at least partly dissipate heat to a thermal mass provided in the physical connector.
A method for updating an oscillator frequency of an oscillator residing in a contact lens, said method comprising: receiving by a system controller on the contact lens at least one signal from an external source providing information allowing for adjustment of the oscillator frequency of the oscillator; upon receipt of the signal, computing an adjustment to the oscillator frequency based on information contained in the at least one signal, adjusting the oscillator frequency according to the computed adjustment, characterized in that, the at least one signal includes two signals spaced in time by a predetermined amount from each other, and in that; calculating the adjustment for the oscillator frequency includes: the system controller determining, based on information contained in at least one of the two signals, a reference transition count that should have occurred between the two signals, the system controller determining a number of transitions in an oscillator output that occurred between the two signals, and comparing the number of transitions to the reference transition count. receiving by a system controller on the contact lens at least one signal from an external source providing information allowing for adjustment of the oscillator frequency of the oscillator; upon receipt of the signal, computing an adjustment to the oscillator frequency based on information contained in the at least one signal, adjusting the oscillator frequency according to the computed adjustment, characterized in that, the at least one signal includes two signals spaced in time by a predetermined amount from each other, and in that; calculating the adjustment for the oscillator frequency includes: the system controller determining, based on information contained in at least one of the two signals, a reference transition count that should have occurred between the two signals, the system controller determining a number of transitions in an oscillator output that occurred between the two signals, and comparing the number of transitions to the reference transition count. the system controller determining, based on information contained in at least one of the two signals, a reference transition count that should have occurred between the two signals, the system controller determining a number of transitions in an oscillator output that occurred between the two signals, and comparing the number of transitions to the reference transition count.
An image display apparatus comprising: a tillable housing (15L, 15R) that is allowed to rotate around a predetermined rotational axis (θL, θR) that is along a direction inclined to a yaw axis along a vertical direction of a vehicle, by receiving an external force; an imaging device (11L, 11R) that is placed at the tillable housing (15L, 15R) and a view filed of which is changed by rotating the housing (15L, 15R) around the predetermined rotational axis (θL, θR); and a displaying device that is configured to display an external image captured by the imaging device (11L, 11R), the housing has a plane on which a lens of the imaging device (11L, 11R) is located, and a state of the housing (15L, 15R) is changed from a first state to a second state by rotating the housing (15L, 15R) around the predetermined rotational axis (θL, θR), the first state being an state in which the plane faces a front or a rear of the vehicle so that the imaging device (11L, 11R) is allowed to image the rear side area (BL_area, BR_area) or the front side area (FL_area, FR_area) of the vehicle, the second state being an state in which the plane faces a ground or a sky so that the imaging device (11L, 11R) is allowed to image a ground or a sky. a tillable housing (15L, 15R) that is allowed to rotate around a predetermined rotational axis (θL, θR) that is along a direction inclined to a yaw axis along a vertical direction of a vehicle, by receiving an external force; an imaging device (11L, 11R) that is placed at the tillable housing (15L, 15R) and a view filed of which is changed by rotating the housing (15L, 15R) around the predetermined rotational axis (θL, θR); and a displaying device that is configured to display an external image captured by the imaging device (11L, 11R), the housing has a plane on which a lens of the imaging device (11L, 11R) is located, and a state of the housing (15L, 15R) is changed from a first state to a second state by rotating the housing (15L, 15R) around the predetermined rotational axis (θL, θR), the first state being an state in which the plane faces a front or a rear of the vehicle so that the imaging device (11L, 11R) is allowed to image the rear side area (BL_area, BR_area) or the front side area (FL_area, FR_area) of the vehicle, the second state being an state in which the plane faces a ground or a sky so that the imaging device (11L, 11R) is allowed to image a ground or a sky.
A method for high-temperature electrolysis of steam H 2 O and of another gas to be electrolyzed selected from carbon dioxide CO 2 and nitrogen dioxide NO 2, carried out in an electrolysis reactor comprising a stack of elementary electrolysis cells (C1, C2, C3) of the SOEC type each formed from a cathode (2.1, 2.2, etc.), an anode (4.1, 4.2, etc.) and an electrolyte (3.1, 3.2...) interposed between the cathode and the anode, and a plurality of electrical and fluidic interconnectors each arranged between two adjacent elementary cells (C1, C2) with one of its faces in electrical contact with the anode (4.1) of one of the two elementary cells and the other of its faces in electrical contact with the cathode (2.2) of the other of the two elementary cells, according to which steam is supplied and distributed to the cathode of one of the two adjacent elementary cells and either carbon dioxide or nitrogen dioxide is supplied and distributed to the cathode of the other of the two elementary cells.