mhurhangee/ep-ind-claims huggingface dataset:
An implantable medical device, comprising: a case; a support structure within the case; an antenna within the case affixed to the support structure; a battery within the case affixed to the support structure, the battery comprising a terminal face; and a circuit board within the case affixed to the support structure, the circuit board comprising circuitry configured to implement the functionality of the implantable medical device, wherein the antenna and battery are electrically coupled to the circuit board, and the battery occupies a first area within the case, and the support structure, circuit board, and antenna together occupy a second non-overlapping area of the case; characterised in that the support structure comprises a portion; and the terminal face of the battery is configured to be adhesively affixed to the portion of the support structure. a case; a support structure within the case; an antenna within the case affixed to the support structure; a battery within the case affixed to the support structure, the battery comprising a terminal face; and a circuit board within the case affixed to the support structure, the circuit board comprising circuitry configured to implement the functionality of the implantable medical device,
A monomer composition for contact lenses, comprising the following components: a phosphorylcholine group-containing polysiloxane monomer represented by the following formula; a phosphorylcholine group-containing methacrylic monomer represented by the following formula; a trimethylsiloxysilyl group-containing silicone monomer having at least one or more hydroxy groups in a molecule; a monovinyl ether monomer having at least one or more hydroxy groups in a molecule; one or more kinds of hydroxy group-containing monomers selected from: hydroxyethyl (meth)acrylate; hydroxypropyl (meth)acrylate; hydroxybutyl (meth)acrylate; and hydroxyethylacrylamide; a crosslinker; and a monomer other than the components to, wherein, with respect to 100 mass% in total of all monomer components in the composition, a content ratio of the component is from 10 mass% to 50 mass%, a content ratio of the component is from 5 mass% to 20 mass%, a content ratio of the component is from 5 mass% to 40 mass%, a content ratio of the component is from 5 mass% to 40 mass%, a content ratio of the component is from 5 mass% to 30 mass%, a content ratio of the component is from 0.1 mass% to 15 mass%, and a content ratio of the component is from 0 mass% to 50 mass%: in the formula, "a" represents an integer of from 20 to 500, "b" represents an integer of from 1 to 70, "c" represents 0 or 1, "p" and "q" each represent 0 or 1, and X represents -CH 2 - or -CH 2 CH 2 -. a phosphorylcholine group-containing polysiloxane monomer represented by the following formula; a phosphorylcholine group-containing methacrylic monomer represented by the following formula; a trimethylsiloxysilyl group-containing silicone monomer having at least one or more hydroxy groups in a molecule; a monovinyl ether monomer having at least one or more hydroxy groups in a molecule; one or more kinds of hydroxy group-containing monomers selected from: hydroxyethyl (meth)acrylate; hydroxypropyl (meth)acrylate; hydroxybutyl (meth)acrylate; and hydroxyethylacrylamide; a crosslinker; and a monomer other than the components to,
A seat back for an aircraft seat, the seat back comprising a body, wherein the body comprises a support wall for supporting a passenger leaning against the seat back, a first side wall, a second side wall and a cross brace, wherein the cross brace connects the first side wall and the second side wall at a position between a lower end and an upper end of each of the side walls (4a, 4b), and wherein the support wall, the first side wall, the second side wall and the cross brace are integrally formed, characterised in that the cross brace is formed by a recess in the support wall of the body and comprises a rear wall.
A process for manufacturing 2,3-butanediol by hydrogenation of acetoin with hydrogen in the presence of a heterogeneous hydrogenation catalyst, in (i) the presence of a solvent being 2,3-butanediol, or (ii) in the absence of any solvent, and in the absence of any carboxylic acid, wherein the heterogeneous hydrogenation catalyst comprises Ni or wherein the heterogeneous hydrogenation catalyst is a heterogeneous supported noble metal catalyst, wherein the noble metal is selected from the group consisting of Ru, Pt, Rh, Pd, and their mixtures and wherein the support of the heterogeneous supported noble metal catalyst is selected from the group consisting of carbon, graphite, graphene, graphene oxide, alumina, silica and their mixtures and wherein the hydrogenation is carried out at a partial hydrogen pressure from 1 to 10 MPa and at temperatures in the range from room temperature to 200°C.
A power transmission device of a hybrid vehicle, comprising: a transmission including a planetary mechanism including a plurality of transmission rotational elements configured to perform differential rotation, one of the transmission rotational elements being connected to a rotary shaft of an engine; a differential device including a plurality of differential rotational elements configured to perform differential rotation, the differential rotational elements including: a differential rotational element connected to one of the transmission rotational elements of the transmission; a differential rotational element connected to a rotary shaft of a first rotary machine; and a differential rotational element connected to a rotary shaft of a second rotary machine and a driven wheel; a transmission control device configured to control the transmission into a neutral state in which power is not able to be transmitted between an input and an output of the transmission or into a state in which the power is able to be transmitted between the input and the output; and characterized by a control device configured to control the first rotary machine such that pinion differential rotation corresponding to the difference between the rotation rate at the time of rotation of a pinion gear and the rotation rate of a carrier, of the transmission or the differential device is set to be not higher than a predetermined value at a time unique motor EV driving is performed only by power of the second rotary machine. a transmission including a planetary mechanism including a plurality of transmission rotational elements configured to perform differential rotation, one of the transmission rotational elements being connected to a rotary shaft of an engine; a differential device including a plurality of differential rotational elements configured to perform differential rotation, the differential rotational elements including: a differential rotational element connected to one of the transmission rotational elements of the transmission; a differential rotational element connected to a rotary shaft of a first rotary machine; and a differential rotational element connected to a rotary shaft of a second rotary machine and a driven wheel; a transmission control device configured to control the transmission into a neutral state in which power is not able to be transmitted between an input and an output of the transmission or into a state in which the power is able to be transmitted between the input and the output; and characterized by a control device configured to control the first rotary machine such that pinion differential rotation corresponding to the difference between the rotation rate at the time of rotation of a pinion gear and the rotation rate of a carrier, of the transmission or the differential device is set to be not higher than a predetermined value at a time unique motor EV driving is performed only by power of the second rotary machine.
A transparent substrate comprising on at least one of its faces at least one transparent piezoelectric element, each piezoelectric element being located between a first and a second transparent electrode (6, 7), and each piezoelectric element and the first and second transparent electrodes (6, 7) taking the form of films, so as to form at least one transparent piezoelectric transducer, characterized in that at least one dielectric film is placed between each first and second transparent electrode (6, 7) and the one or more transparent piezoelectric elements.
A method of manufacturing a sensor device, comprising: providing a piezoelectric micromechanical ultrasonic transducer, hereby referred as PMUT, array (1004, 1104) configured to transmit and receive ultrasonic signals, wherein the PMUT array comprises a plurality of PMUTs, and the PMUT array is flexible; providing one or more integrated circuits (1006, 1106) configured to process the ultrasonic signals; providing a battery (1006, 1106) configured to provide power to the PMUT array and the one or more integrated circuits; providing a coupling material (1010, 1110) configured to hold the PMUT array, the one or more integrated circuits, and the battery; providing a capsule (1002, 1102) configured to seal the PMUT array, the one or more integrated circuits, the battery and the coupling material within the capsule; characterized in that the method further comprises: inserting the PMUT array, the one or more integrated circuits, the battery, an inflatable device (1008, 1108) and the coupling material into the capsule; inflating the inflatable device to push the PMUT array, the one or more integrated circuits, the battery and the coupling material against the inner wall of the capsule; and curing the coupling material by heat or UV light while the coupling material is being pushed against the inner wall of the capsule by the inflatable device. providing a piezoelectric micromechanical ultrasonic transducer, hereby referred as PMUT, array (1004, 1104) configured to transmit and receive ultrasonic signals, wherein the PMUT array comprises a plurality of PMUTs, and the PMUT array is flexible; providing one or more integrated circuits (1006, 1106) configured to process the ultrasonic signals; providing a battery (1006, 1106) configured to provide power to the PMUT array and the one or more integrated circuits; providing a coupling material (1010, 1110) configured to hold the PMUT array, the one or more integrated circuits, and the battery; providing a capsule (1002, 1102) configured to seal the PMUT array, the one or more integrated circuits, the battery and the coupling material within the capsule; inserting the PMUT array, the one or more integrated circuits, the battery, an inflatable device (1008, 1108) and the coupling material into the capsule; inflating the inflatable device to push the PMUT array, the one or more integrated circuits, the battery and the coupling material against the inner wall of the capsule; and curing the coupling material by heat or UV light while the coupling material is being pushed against the inner wall of the capsule by the inflatable device.
A device for loading and forming smoking articles comprising: a body section; a first socket formed in a top area of the body section; a second socket formed in a bottom area of the body section; a plurality of channels formed in a bottom area of the first socket, the channels extending through the body section into the second socket, the channels formed around a perimeter of the first socket and each configured to hold a smoking article; a tube formed in a center area of the first socket; a plate having a plurality of openings, the plate rotatable within the first socket to allow one to align a desired number of the plurality of openings with corresponding channels of the plurality of channels; a pin opening formed in a center area of the plate, the pin opening aligned with the tube when the plate is inserted into the first socket; a pin member insertable into the pin opening and the tube, the pin member securing the plate in position; and a cap insertable into the first socket when loading the smoking articles to seal the first socket and to prevent tobacco placed in the first socket from escaping, and into the second socket to push the smoking articles out of the channels when loaded. a body section; a first socket formed in a top area of the body section; a second socket formed in a bottom area of the body section; a plurality of channels formed in a bottom area of the first socket, the channels extending through the body section into the second socket, the channels formed around a perimeter of the first socket and each configured to hold a smoking article; a tube formed in a center area of the first socket; a plate having a plurality of openings, the plate rotatable within the first socket to allow one to align a desired number of the plurality of openings with corresponding channels of the plurality of channels; a pin opening formed in a center area of the plate, the pin opening aligned with the tube when the plate is inserted into the first socket; a pin member insertable into the pin opening and the tube, the pin member securing the plate in position; and a cap insertable into the first socket when loading the smoking articles to seal the first socket and to prevent tobacco placed in the first socket from escaping, and into the second socket to push the smoking articles out of the channels when loaded.
A power supply unit for an aerosol inhaler, the power supply unit comprising: a power supply; a charging terminal that is able to be electrically connected to an external power supply capable of charging the power supply; a discharging terminal that is able to be electrically connected to a load for generating an aerosol from an aerosol source and is separate from the charging terminal; an inhalation sensor; and a control unit that is configured to detect a request for aerosol generation on the basis of the output result of the inhalation sensor and to control discharging of the power supply through the discharging terminal and charging of the power supply through the charging terminal, wherein the power supply unit is configured such that the external power supply can be electrically connected to the charging terminal in a state where discharging of the power supply through the discharging terminal is possible, characterised in that the control unit is configured to perform control of at least the charging of the power supply through the charging terminal such that the charging and the discharging are not performed at the same time in a case where the control unit detects the request in a state where the charging terminal and the external power supply are electrically connected. a power supply; a charging terminal that is able to be electrically connected to an external power supply capable of charging the power supply; a discharging terminal that is able to be electrically connected to a load for generating an aerosol from an aerosol source and is separate from the charging terminal; an inhalation sensor; and a control unit that is configured to detect a request for aerosol generation on the basis of the output result of the inhalation sensor and to control discharging of the power supply through the discharging terminal and charging of the power supply through the charging terminal, wherein the power supply unit is configured such that the external power supply can be electrically connected to the charging terminal in a state where discharging of the power supply through the discharging terminal is possible, characterised in that the control unit is configured to perform control of at least the charging of the power supply through the charging terminal such that the charging and the discharging are not performed at the same time in a case where the control unit detects the request in a state where the charging terminal and the external power supply are electrically connected.
A bolometer including a. a radiation absorbing element for absorbing electromagnetic THz radiation, b. a membrane layer on a silicon substrate, c. a superconducting inductive element in thermal contact with the radiation absorbing element, wherein the superconducting inductive element is thermally isolated from the substrate, and d. a read-out circuit for indicating the absorbed electromagnetic THz radiation, wherein e. the superconducting inductive element is thermally isolated from the substrate by micro-suspension legs by perforations in the membrane layer, f. the superconducting inductive element is electrically connected to a capacitor (Csh) in order to form a resonator circuit (Csh, 2), and g. the read-out circuit is implemented by sensing the change in amplitude or phase or both changes in amplitude and in phase of the resonator circuit (Csh, 2). a. a radiation absorbing element for absorbing electromagnetic THz radiation, b. a membrane layer on a silicon substrate, c. a superconducting inductive element in thermal contact with the radiation absorbing element, wherein the superconducting inductive element is thermally isolated from the substrate, and d. a read-out circuit for indicating the absorbed electromagnetic THz radiation, wherein e. the superconducting inductive element is thermally isolated from the substrate by micro-suspension legs by perforations in the membrane layer, f. the superconducting inductive element is electrically connected to a capacitor (Csh) in order to form a resonator circuit (Csh, 2), and g. the read-out circuit is implemented by sensing the change in amplitude or phase or both changes in amplitude and in phase of the resonator circuit (Csh, 2).
A procedure for directing network traffic, the procedure comprising: detecting, at a network link (104, 105, 108, 111) a nature of a degradation of the network link (104, 105, 108, 111), wherein the network link (104, 105, 108, 111) includes microwave equipment; generating, at the network link (104, 105, 108, 111) one or more messages notifying of the degradation or recovery of the network link (104, 105, 108, 111) and remaining available bandwidth; receiving, at a network controller, the one or more messages from the network link (104, 105, 108, 111); generating, at the network controller, a policy decision based on the degradation or recovery of the network link (104, 105, 108, 111) and remaining available bandwidth and capabilities of other equipment on the network; and transmitting the policy decision from the network controller to a network element (103, 107, 110, 112, 115, 116) on the network; wherein the procedure further comprises receiving, at the network controller, a message notifying of an upcoming expected degradation, and wherein the policy decision is generated and issued prior to the start of the expected degradation. detecting, at a network link (104, 105, 108, 111) a nature of a degradation of the network link (104, 105, 108, 111), wherein the network link (104, 105, 108, 111) includes microwave equipment; generating, at the network link (104, 105, 108, 111) one or more messages notifying of the degradation or recovery of the network link (104, 105, 108, 111) and remaining available bandwidth; receiving, at a network controller, the one or more messages from the network link (104, 105, 108, 111); generating, at the network controller, a policy decision based on the degradation or recovery of the network link (104, 105, 108, 111) and remaining available bandwidth and capabilities of other equipment on the network; and transmitting the policy decision from the network controller to a network element (103, 107, 110, 112, 115, 116) on the network;
A semiconductor photomultiplier comprising: an array of interconnected microcells, wherein the array comprises a first type of microcell having a first junction region of a first geometric shape and a second type of microcell having a second junction region of a second geometric shape, wherein the second type of microcell is located at second locations of the array that are corner locations of an outer periphery of the array and the first type of microcell is located at first locations of the array that are not located at corner locations of the outer periphery of the array, wherein the second geometric shape of the second junction regions defines an arcuate shape and wherein the first geometric shape of the first junction regions defines a non-arcuate shape or an arcuate shape with a radius smaller than the second geometric shape. an array of interconnected microcells, wherein the array comprises a first type of microcell having a first junction region of a first geometric shape and a second type of microcell having a second junction region of a second geometric shape, wherein the second type of microcell is located at second locations of the array that are corner locations of an outer periphery of the array and the first type of microcell is located at first locations of the array that are not located at corner locations of the outer periphery of the array, wherein the second geometric shape of the second junction regions defines an arcuate shape and wherein the first geometric shape of the first junction regions defines a non-arcuate shape or an arcuate shape with a radius smaller than the second geometric shape.
An elevator control device for controlling the travel of one or more elevator cars of an elevator system, wherein a control module of the elevator control device is configured to control, according to occupant information and disaster information of a plurality of evacuation floors, as well as the current remaining capacity of the elevator car, stopping of the elevator car at at least one of the plurality of evacuation floors, characterized in that the control module is further configured to: when the current remaining capacity of the elevator car during initial stopping or intermediate stopping is greater than or equal to a first predetermined value, control the elevator car to continue stopping for a first predetermined time period.
A sintered magnet production system, which comprises: a) a filling means (11; 21; 31) for filling an alloy powder into a filling/sintering container without a pressing process; b) an orienting means (12; 22; 32) for orienting the alloy powder in the filling/sintering container by means of a magnetic field; c) a sintering means (13; 23; 33) for sintering the alloy powder; and d) a transfer means (14; 24; 34) for transferring the filling/sintering container to the filling means (11; 21; 31), the orienting means (12; 22; 32) and the sintering means (13; 23; 33), characterized in that e) the orienting means (12; 22; 32) has an air-core coil having a central axis which is parallel or perpendicular to the common axis of the filling means (11, 21, 31) and the sintering means (13, 23, 33), wherein the filling means (11, 21, 31) and the sintering means (13, 23, 33) are excluded from a magnetic field leakage area of the orienting means (12, 22, 32). a) a filling means (11; 21; 31) for filling an alloy powder into a filling/sintering container without a pressing process; b) an orienting means (12; 22; 32) for orienting the alloy powder in the filling/sintering container by means of a magnetic field; c) a sintering means (13; 23; 33) for sintering the alloy powder; and d) a transfer means (14; 24; 34) for transferring the filling/sintering container to the filling means (11; 21; 31), the orienting means (12; 22; 32) and the sintering means (13; 23; 33), characterized in that e) the orienting means (12; 22; 32) has an air-core coil having a central axis which is parallel or perpendicular to the common axis of the filling means (11, 21, 31) and the sintering means (13, 23, 33), wherein the filling means (11, 21, 31) and the sintering means (13, 23, 33) are excluded from a magnetic field leakage area of the orienting means (12, 22, 32).