mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a semiconductor apparatus (13, 14), comprising the steps of: preparing a sealant laminated composite comprising a support wafer composed of silicon, and an uncured resin layer constituted of an uncured thermosetting resin formed on one side of the support wafer; covering a surface of a substrate on which semiconductor devices are mounted, or a surface of a wafer on which semiconductor devices are formed with the uncured resin layer of the sealant laminated composite; collectively sealing the surface of the substrate on which semiconductor devices are mounted or the surface of the water on which semiconductor devices are formed by heating and curing the uncured resin layer to provide a cured resin layer to form a sealed substrate comprising the substrate on which semiconductor devices are mounted, the cured resin layer and the support wafer or a sealed wafer comprising the wafer with semiconductor devices formed on the surface thereof, the cured resin layer and the support wafer; and dicing the sealed substrate or the sealed wafer into plural pieces, each piece constituting the semiconductor apparatus (13, 14). preparing a sealant laminated composite comprising a support wafer composed of silicon, and an uncured resin layer constituted of an uncured thermosetting resin formed on one side of the support wafer; covering a surface of a substrate on which semiconductor devices are mounted, or a surface of a wafer on which semiconductor devices are formed with the uncured resin layer of the sealant laminated composite; collectively sealing the surface of the substrate on which semiconductor devices are mounted or the surface of the water on which semiconductor devices are formed by heating and curing the uncured resin layer to provide a cured resin layer to form a sealed substrate comprising the substrate on which semiconductor devices are mounted, the cured resin layer and the support wafer or a sealed wafer comprising the wafer with semiconductor devices formed on the surface thereof, the cured resin layer and the support wafer; and dicing the sealed substrate or the sealed wafer into plural pieces, each piece constituting the semiconductor apparatus (13, 14).
A method for detecting NDM1 nucleic acids in a sample, comprising: (a) contacting a sample suspected of containing NDM1 nucleic acids with: (i) at least one forward flap primer comprising at least the following full-length sequence: aataaatcataaCGCCATCCCTGACGATCAAAC (SEQ ID NO: 19), wherein the lowercase nucleotide sequence is non-complementary to sequences of the NDM1 nucleic acids; and (ii) at least one reverse flap primer comprising at least the following full-length sequence: aataaatcataaGTCTGGCAGCACACTTCCTA (SEQ ID NO: 18), wherein the lowercase nucleotide sequence is non-complementary to sequences of the NDM1 nucleic acids, to produce a reaction mixture; (b) incubating the reaction mixture of step (a) under conditions sufficient to amplify the NDM1 nucleic acids, thereby generating amplified nucleic acids; and (c) detecting the amplified nucleic acids using a fluorescence-generating probe comprising at least the following full-length sequence: SEQ ID N° 17. (a) contacting a sample suspected of containing NDM1 nucleic acids with: (i) at least one forward flap primer comprising at least the following full-length sequence: aataaatcataaCGCCATCCCTGACGATCAAAC (SEQ ID NO: 19), wherein the lowercase nucleotide sequence is non-complementary to sequences of the NDM1 nucleic acids; and (ii) at least one reverse flap primer comprising at least the following full-length sequence: aataaatcataaGTCTGGCAGCACACTTCCTA (SEQ ID NO: 18), wherein the lowercase nucleotide sequence is non-complementary to sequences of the NDM1 nucleic acids, to produce a reaction mixture; (i) at least one forward flap primer comprising at least the following full-length sequence: aataaatcataaCGCCATCCCTGACGATCAAAC (SEQ ID NO: 19), wherein the lowercase nucleotide sequence is non-complementary to sequences of the NDM1 nucleic acids; and (ii) at least one reverse flap primer comprising at least the following full-length sequence: aataaatcataaGTCTGGCAGCACACTTCCTA (SEQ ID NO: 18), wherein the lowercase nucleotide sequence is non-complementary to sequences of the NDM1 nucleic acids, to produce a reaction mixture; (b) incubating the reaction mixture of step (a) under conditions sufficient to amplify the NDM1 nucleic acids, thereby generating amplified nucleic acids; and (c) detecting the amplified nucleic acids using a fluorescence-generating probe comprising at least the following full-length sequence: SEQ ID N° 17.
Method for determining a state-of-charge of a battery having a battery management unit and a control unit that is superimposed on the battery management unit, wherein the battery management unit can be operated in three operating modes for determining the state-of-charge, - wherein in a first operating mode of the battery management unit a battery current is regularly sensed by means of the battery management unit, - wherein in a second operating mode information regarding the state-of-charge of the battery is collected by the battery management unit, wherein the state-of-charge of the battery is determined, and wherein at least one function, which can be performed in a third operating mode and comprises at least one communication function to the superimposed control unit, is disabled, - wherein in the third operating mode, which corresponds to a fully operating mode, the battery current is sensed and the state-of-charge of the battery is determined and is communicated with the switched-on superimposed control unit by means of the battery management unit, - wherein the battery management unit switches from the first operating mode into the second operating mode if the battery current exceeds a predetermined current threshold value, - wherein the battery management unit is switched into the third operating mode by the superimposed control unit, in particular by means of transmitting a wakeup signal. - wherein in a first operating mode of the battery management unit a battery current is regularly sensed by means of the battery management unit, - wherein in a second operating mode information regarding the state-of-charge of the battery is collected by the battery management unit, wherein the state-of-charge of the battery is determined, and wherein at least one function, which can be performed in a third operating mode and comprises at least one communication function to the superimposed control unit, is disabled, - wherein in the third operating mode, which corresponds to a fully operating mode, the battery current is sensed and the state-of-charge of the battery is determined and is communicated with the switched-on superimposed control unit by means of the battery management unit, - wherein the battery management unit switches from the first operating mode into the second operating mode if the battery current exceeds a predetermined current threshold value, - wherein the battery management unit is switched into the third operating mode by the superimposed control unit, in particular by means of transmitting a wakeup signal.
A leadless pacing device for delivering electrical stimulation to a heart of a patient, the leadless pacing device comprising: a housing having a central longitudinal axis, the housing comprising: a body portion; and a header extending distally from the body portion; a fixation member extending from the header; and a distal extension connected to the header and extending distally of a distal end of the header, the distal extension extending from the distal end of the header at an oblique angle relative to the central longitudinal axis, characterised in the leadless pacing device further comprising: a guidewire lumen (74, 76) extending from a guidewire port in a side of the housing to a distal end of the distal extension. a housing having a central longitudinal axis, the housing comprising: a body portion; and a header extending distally from the body portion; a body portion; and a header extending distally from the body portion; a fixation member extending from the header; and a distal extension connected to the header and extending distally of a distal end of the header, the distal extension extending from the distal end of the header at an oblique angle relative to the central longitudinal axis, characterised in the leadless pacing device further comprising: a guidewire lumen (74, 76) extending from a guidewire port in a side of the housing to a distal end of the distal extension.
An isolated antibody molecule which binds to the TSHR so as to stimulate the TSHR, the antibody molecule comprising an antibody VL domain comprising SEQ ID NO:24 for CDR I, SEQ ID NO:25 for CDR II and SEQ ID NO:26 for CDR III and an antibody VH domain comprising SEQ ID NO:6 for CDR I, SEQ ID NO:7 for CDR II and SEQ ID NO:8 for CDR III.
A power semiconductor module in which a semiconductor chip is sealed with resin, wherein said power semiconductor module comprises: a plurality of electrode plates in each of which an external connection terminal portion and a body portion are integrally formed, and the body portions are arranged on the same flat surface; a semiconductor chip mounted on one surface of the body portions of said electrode plates; and a resin package in which at least a part of the other surfaces of the body portions of said electrode plates is exposed, and the body portions of said electrode plates and said semiconductor chip are sealed with resin characterized in that the exposed surfaces of the body portions of said electrode plates form the same surface as the bottom of said resin package on the exposed surface side except for an outer edge portion of the bottom; and the outer edge portion of the bottom of said resin package is formed with a resin protrusion portion continuously or intermittently, and base portions of the external connection terminal portions, respectively, pass through the resin protrusion portion. a plurality of electrode plates in each of which an external connection terminal portion and a body portion are integrally formed, and the body portions are arranged on the same flat surface; a semiconductor chip mounted on one surface of the body portions of said electrode plates; and a resin package in which at least a part of the other surfaces of the body portions of said electrode plates is exposed, and the body portions of said electrode plates and said semiconductor chip are sealed with resin characterized in that the exposed surfaces of the body portions of said electrode plates form the same surface as the bottom of said resin package on the exposed surface side except for an outer edge portion of the bottom; and the outer edge portion of the bottom of said resin package is formed with a resin protrusion portion continuously or intermittently, and base portions of the external connection terminal portions, respectively, pass through the resin protrusion portion.
A sensor mounting structure comprising: a sensor device configured to detect at least information in front of a vehicle; a support member that houses part of the sensor device and is attached to a base member provided on an inner surface of a front windshield glass; and a display device configured to display at least an image of what is in back of the vehicle, the display device being attached such that its angle is adjustable, to a lower end portion of an arm member having upper end portion that is attached to the support member, characterized in that the support member is fastened, together with the sensor device, to the base member, and a space is formed between an outer surface of the part of the sensor device housed in the support member and an inner surface of the support member. a sensor device configured to detect at least information in front of a vehicle; a support member that houses part of the sensor device and is attached to a base member provided on an inner surface of a front windshield glass; and a display device configured to display at least an image of what is in back of the vehicle, the display device being attached such that its angle is adjustable, to a lower end portion of an arm member having upper end portion that is attached to the support member, characterized in that the support member is fastened, together with the sensor device, to the base member, and a space is formed between an outer surface of the part of the sensor device housed in the support member and an inner surface of the support member.
A controller for determining whether a previously-detected, vehicle-sensor malfunction still exists, the controller comprising: an electronic, non-volatile memory; and an electronic processing unit connected to the electronic, non-volatile memory, the electronic processing unit including, a malfunction monitoring module configured to monitor operation of a yaw rate sensor using a first criteria and generate a first fault signal if the yaw rate sensor malfunctions, the first fault signal containing first fault information and causing at least one of an indicator to be activated or a vehicle control system to modify its operation from a first operating state to a second operating state, a failure handling module configured to cause the first fault information to be stored in the electronic, non-volatile memory, characterized by a signal checking module configured to retrieve the first fault information from the electronic, non-volatile memory and perform a first signal check on information from the yaw rate sensor, the first signal check using a second criteria to determine the yaw rate sensor is functioning properly, the second criteria having smaller tolerances for deviations and fewer conditions on the driving situation to perform the evaluation than the first criteria; and wherein the first and second criteria include one or more of a sensor offset, a sensor, integral, a vehicle speed, a cornering threshold, a sensor signal rate, a straight driving yaw rate, sensor statistical information, sensor counter information, an implausible value, and a duration. an electronic, non-volatile memory; and an electronic processing unit connected to the electronic, non-volatile memory, the electronic processing unit including, a malfunction monitoring module configured to monitor operation of a yaw rate sensor using a first criteria and generate a first fault signal if the yaw rate sensor malfunctions, the first fault signal containing first fault information and causing at least one of an indicator to be activated or a vehicle control system to modify its operation from a first operating state to a second operating state, a failure handling module configured to cause the first fault information to be stored in the electronic, non-volatile memory, characterized by a signal checking module configured to retrieve the first fault information from the electronic, non-volatile memory and perform a first signal check on information from the yaw rate sensor, the first signal check using a second criteria to determine the yaw rate sensor is functioning properly, the second criteria having smaller tolerances for deviations and fewer conditions on the driving situation to perform the evaluation than the first criteria; and wherein the first and second criteria include one or more of a sensor offset, a sensor, integral, a vehicle speed, a cornering threshold, a sensor signal rate, a straight driving yaw rate, sensor statistical information, sensor counter information, an implausible value, and a duration.
An air-bag having a surface thereof formed from a first layer of fabric, the first layer of fabric having two or more first fold arrangements formed therein, each first fold arrangement comprising a pair of folds of the fabric along substantially parallel first fold lines (4a, 4b, 4c), so that the length of fabric between the first fold lines (4a, 4b, 4c) is significantly greater than the distance between the first fold lines (4a, 4b, 4c), wherein each first fold arrangement forms a pocket or cell which is substantially sealed at its ends, the first layer of fabric having at least one second fold arrangement formed therein, the or each second fold arrangement comprising a pair of folds of the fabric along substantially parallel second fold lines, the second fold lines crossing the first fold lines (4a, 4b, 4c) and being substantially perpendicular thereto, so that the length of fabric between the second fold lines is significantly greater than the distance between the second fold lines, characterised in that at the pair of first fold lines (4a, 4b, 4c) in each of the first fold arrangements, the first layer of fabric is folded back on itself at an acute angle at each of the first fold lines (4a, 4b, 4c), and is then folded over in the opposite direction, again at an acute angle, wherein the result is to form a first upper layer of fabric which overlies the pair of first fold lines (4a, 4b, 4c), thus forming an omega fold.
Insulation product, formed from at least two insulating layers containing aerogels, characterized in that each of said layers comprising from 25 to 95 wt% of aerogel(s) and from 5 to 75 wt% of fibers, said insulating layers being joined together by means of an aqueous organic adhesive based on vinyl polymer(s).
An introducer sheath for the insertion of a medical device into a blood vessel, the introducer sheath comprising: an expandable sheath frame (202; 5104; 5204) having a length, a first thickness, a proximal end and a distal end; the frame (202; 5104; 5204) comprising a plurality of strands (5105, 5107; 5205, 5207) extending longitudinally between the proximal end and the distal end, and having an exterior surface and an interior surface that form an interior lumen along the length of the frame; the frame (202; 5104; 5204) being configured to achieve an expanded state and a contracted state, the expanded state forming an expanded cross-section in the lumen for passing a medical device therethrough; and the frame (202; 5104; 5204) having a smooth coating (1206; 5102; 5206) about the exterior surface and protrusions extending into the lumen along the interior surface, characterized in that the plurality of strands (5105, 5107; 5205, 5207) comprise first and second overlapping strands, with the second strand extending radially inward from the first strand, and the coating (1206; 5102; 5202) extends about the interior surface. an expandable sheath frame (202; 5104; 5204) having a length, a first thickness, a proximal end and a distal end; the frame (202; 5104; 5204) comprising a plurality of strands (5105, 5107; 5205, 5207) extending longitudinally between the proximal end and the distal end, and having an exterior surface and an interior surface that form an interior lumen along the length of the frame; the frame (202; 5104; 5204) being configured to achieve an expanded state and a contracted state, the expanded state forming an expanded cross-section in the lumen for passing a medical device therethrough; and the frame (202; 5104; 5204) having a smooth coating (1206; 5102; 5206) about the exterior surface and protrusions extending into the lumen along the interior surface, characterized in that the plurality of strands (5105, 5107; 5205, 5207) comprise first and second overlapping strands, with the second strand extending radially inward from the first strand, and the coating (1206; 5102; 5202) extends about the interior surface.
An unmanned aerial vehicle comprising: an electrical propulsion system, comprising rotors; a battery for powering the electrical propulsion system; charging circuitry for charging the battery; a housing comprising a first plurality of arms extending outwardly from the housing for supporting the UAV on a charging platform that is smaller than the UAV, wherein the charging circuitry is configured to be charged using at least some of a plurality of contact charging pads, and wherein at least some of the plurality of contact charging pads are positioned on at least some of the first plurality of arms and extend over at least an underside portion of those arms, characterised in that the rotors of the electrical propulsion system are attached at the extremities of the arms. an electrical propulsion system, comprising rotors; a battery for powering the electrical propulsion system; charging circuitry for charging the battery; a housing comprising a first plurality of arms extending outwardly from the housing for supporting the UAV on a charging platform that is smaller than the UAV, wherein the charging circuitry is configured to be charged using at least some of a plurality of contact charging pads, and wherein at least some of the plurality of contact charging pads are positioned on at least some of the first plurality of arms and extend over at least an underside portion of those arms, characterised in that the rotors of the electrical propulsion system are attached at the extremities of the arms.
A cryogenic tank delivery system comprising: a cryogenic tank comprising an inner shell and an outer shell wherein the inner shell defines an interior configured to contain a cryogenic liquid and a gas within a headspace above the cryogenic liquid; a first vaporizer; a second vaporizer; a use outlet; a first pipe configured to transfer gas from the headspace through the first vaporizer to the use outlet; a second pipe configured to transfer liquid from the tank through the first vaporizer so that a first vapor stream is directed to the use outlet; a third pipe configured to build pressure within the tank by transferring liquid from the tank through the second vaporizer so that a second vapor stream is directed back to the headspace of the tank; a first regulator valve in fluid communication with the second pipe, said first regulator valve configured to open when a pressure on an outlet side of the first regulator drops below a first predetermined pressure level; a second regulator valve in fluid communication with the third pipe, characterised in that said second regulator valve is configured to open when a pressure inside the tank drops below a second predetermined pressure level; wherein the first predetermined pressure level is higher than the second predetermined pressure level, and wherein the first pipe does not have a regulator valve. a cryogenic tank comprising an inner shell and an outer shell wherein the inner shell defines an interior configured to contain a cryogenic liquid and a gas within a headspace above the cryogenic liquid; a first vaporizer; a second vaporizer; a use outlet; a first pipe configured to transfer gas from the headspace through the first vaporizer to the use outlet; a second pipe configured to transfer liquid from the tank through the first vaporizer so that a first vapor stream is directed to the use outlet; a third pipe configured to build pressure within the tank by transferring liquid from the tank through the second vaporizer so that a second vapor stream is directed back to the headspace of the tank; a first regulator valve in fluid communication with the second pipe, said first regulator valve configured to open when a pressure on an outlet side of the first regulator drops below a first predetermined pressure level; a second regulator valve in fluid communication with the third pipe, characterised in that said second regulator valve is configured to open when a pressure inside the tank drops below a second predetermined pressure level; wherein the first predetermined pressure level is higher than the second predetermined pressure level, and wherein the first pipe does not have a regulator valve.