mhurhangee/ep-ind-claims huggingface dataset:
A variable valve mechanism of an internal combustion engine, comprising: a rocker arm that includes a roller arm including a roller that rotatably abuts against a cam and a side arm provided at a side of the roller arm, and that drives a valve; and a switching device that includes a switching pin and a hydraulic chamber provided inside the rocker arm, and that switches a drive state of the valve by displacing the switching pin between a coupling position at which the switching pin extends between the roller arm and the side arm and a non-coupling position at which the switching pin does not extend between the roller arm and the side arm based on variations in hydraulic pressure in the hydraulic chamber, wherein the switching pin is provided on an axis of the roller, and the hydraulic chamber is provided inside the roller arm, characterized in that one rocker arm drives only one valve, and does not drive a plurality of valves. a rocker arm that includes a roller arm including a roller that rotatably abuts against a cam and a side arm provided at a side of the roller arm, and that drives a valve; and a switching device that includes a switching pin and a hydraulic chamber provided inside the rocker arm, and that switches a drive state of the valve by displacing the switching pin between a coupling position at which the switching pin extends between the roller arm and the side arm and a non-coupling position at which the switching pin does not extend between the roller arm and the side arm based on variations in hydraulic pressure in the hydraulic chamber, wherein the switching pin is provided on an axis of the roller, and the hydraulic chamber is provided inside the roller arm, characterized in that one rocker arm drives only one valve, and does not drive a plurality of valves.
Medium voltage switchgear with at least one cable connection space (1, 2) and at least one gas-insulated, encapsulated switch panel having switches and busbars, both the switch panel and the cable connection space (1, 2) being equipped with an arc-fault limiter for rapid tripping of an earthing switch in the event of an arc fault, characterized by at least one pressure-resistant encapsulation consisting of housing walls surrounding one or more cable connection spaces (1, 2), in which the encapsulated cable connection spaces (1, 2) remain hermetically sealed even in the event of an arc fault, means of an arc limiter for triggering an earthing switch being provided within the pressure-resistant encapsulation.
A method of detecting a target molecule, comprising: forming a complex of a target molecule, a capture oligonucleotide, an oligonucleotide primer, and a single-stranded circular DNA; performing a nucleic acid amplification reaction by rolling circle amplification based on the formation of the complex; and detecting amplified nucleic acid; wherein the single-stranded circular DNA contains a first region, and a second region linked to the 3'-side of the first region; the oligonucleotide primer contains a first aptamer sequence which binds to the target molecule, and a sequence which is linked to the 3'-side of the first aptamer sequence and is complementary to the first region of the single-stranded circular DNA; and the capture oligonucleotide contains a sequence complementary to the second region of the single-stranded circular DNA, and a second aptamer sequence which is linked to the 3'-side of the sequence complementary to the second region and binds to the target molecule. forming a complex of a target molecule, a capture oligonucleotide, an oligonucleotide primer, and a single-stranded circular DNA; performing a nucleic acid amplification reaction by rolling circle amplification based on the formation of the complex; and detecting amplified nucleic acid; the single-stranded circular DNA contains a first region, and a second region linked to the 3'-side of the first region; the oligonucleotide primer contains a first aptamer sequence which binds to the target molecule, and a sequence which is linked to the 3'-side of the first aptamer sequence and is complementary to the first region of the single-stranded circular DNA; and the capture oligonucleotide contains a sequence complementary to the second region of the single-stranded circular DNA, and a second aptamer sequence which is linked to the 3'-side of the sequence complementary to the second region and binds to the target molecule.
A device for silently removing liquid from an ear canal, the device comprising: an elongated cannula configured to couple to a suction device; and a filtering material disposed within the cannula, a portion of the filtering material extending out of an end of the elongated cannula. an elongated cannula configured to couple to a suction device; and a filtering material disposed within the cannula, a portion of the filtering material extending out of an end of the elongated cannula.
A controller for an air-conditioning unit, characterized in that the air-conditioning unit uses a Power line Communication, PLC, to perform communication, the air-conditioning unit comprises a plurality of air-conditioner indoor units and a plurality of air-conditioner outdoor units, an operation of the air-conditioning unit is controlled by the controller, and the controller comprises: a plug component, configured to be plugged into a socket in a preset PLC communication network; and a controller body component, connected to the plug component and configured to receive a communication signal of a target device and transmit the communication signal to the target device; wherein the target device comprises one of an air-conditioner indoor unit and an air-conditioner outdoor unit; wherein the controller is configured to establish a communication connection between an air-conditioner indoor unit and an air-conditioner outdoor unit connected to a socket in the PLC communication network after being plugged into the socket, to complete communication networking of the socket; after the communication networking is completed, the controller is further configured to be transferable to a next socket connected to the PLC communication network to maintain normal communication between the air-conditioner indoor unit and the air-conditioner outdoor unit under the PLC communication network. a plug component, configured to be plugged into a socket in a preset PLC communication network; and a controller body component, connected to the plug component and configured to receive a communication signal of a target device and transmit the communication signal to the target device; wherein the target device comprises one of an air-conditioner indoor unit and an air-conditioner outdoor unit; wherein the controller is configured to establish a communication connection between an air-conditioner indoor unit and an air-conditioner outdoor unit connected to a socket in the PLC communication network after being plugged into the socket, to complete communication networking of the socket; after the communication networking is completed, the controller is further configured to be transferable to a next socket connected to the PLC communication network to maintain normal communication between the air-conditioner indoor unit and the air-conditioner outdoor unit under the PLC communication network.
Method for bonding a first bond surface of a first solid substrate consisting of a first material to a second bond surface of a second solid substrate consisting of a second material with the following steps, especially in the following sequence: - processing of the first and/or second bond surfaces (1o, 2o) with a cutting tool is done to create a metastable structure in at least the near-surface area, - bringing the first solid substrate into contact with the second solid substrate at the bond surfaces (1o, 2o), and - exposure of the solid substrates (1, 2) that are in contact to temperature to form a permanent bond that is at least primarily produced by recrystallization at the bond surfaces (1o, 2o) characterized in that a reduced surface roughness of less than 100 nm, preferably less than 10 nm, even more preferably less than 1 nm, and most preferably less than 0.1 nm is produced during said processing of the first and/or the second bond surfaces (1o, 2o), and that during said exposure of the solid substrates (1,2) to temperature the permanent bond in each case is produced down to a recrystallization depth R that is greater than the surface roughness O of the bond surfaces (1o, 2o) with a bond temperature T B that exceeds the recrystallization temperature. - processing of the first and/or second bond surfaces (1o, 2o) with a cutting tool is done to create a metastable structure in at least the near-surface area, - bringing the first solid substrate into contact with the second solid substrate at the bond surfaces (1o, 2o), and - exposure of the solid substrates (1, 2) that are in contact to temperature to form a permanent bond that is at least primarily produced by recrystallization at the bond surfaces (1o, 2o) characterized in that a reduced surface roughness of less than 100 nm, preferably less than 10 nm, even more preferably less than 1 nm, and most preferably less than 0.1 nm is produced during said processing of the first and/or the second bond surfaces (1o, 2o), and that during said exposure of the solid substrates (1,2) to temperature the permanent bond in each case is produced down to a recrystallization depth R that is greater than the surface roughness O of the bond surfaces (1o, 2o) with a bond temperature T B that exceeds the recrystallization temperature.
A splice assembly comprising: a first splice bracket and a second splice bracket, each of said first and second splice brackets (102a, 102b) comprising: a longitudinal axis (Xa, Xb); a connecting member (104a, 104b) configured to be connected to an end of one of a pair of structural components (18a, 18b); and a mating member (106a, 106b) extending from said connecting member (104a, 104b) along said longitudinal axis (Xa, Xb), said mating member comprising a linearly sloped mating surface (108a, 108b) disposed at a non-zero angle relative to said longitudinal axis (Xa, Xb), wherein the linearly sloped mating surface of the first splice bracket and the linearly sloped mating surface of the second splice bracket are in contact such that the first and second splice brackets (102a, 102b) may be connected together; and a splice clip in the form of a bracket connected to at least one of the pair of splice brackets (102a, 102b), the splice clip being configured to be connected to a third structural component. a first splice bracket and a second splice bracket, each of said first and second splice brackets (102a, 102b) comprising: a longitudinal axis (Xa, Xb); a connecting member (104a, 104b) configured to be connected to an end of one of a pair of structural components (18a, 18b); and a mating member (106a, 106b) extending from said connecting member (104a, 104b) along said longitudinal axis (Xa, Xb), said mating member comprising a linearly sloped mating surface (108a, 108b) disposed at a non-zero angle relative to said longitudinal axis a longitudinal axis (Xa, Xb); a connecting member (104a, 104b) configured to be connected to an end of one of a pair of structural components (18a, 18b); and a mating member (106a, 106b) extending from said connecting member (104a, 104b) along said longitudinal axis (Xa, Xb), said mating member comprising a linearly sloped mating surface (108a, 108b) disposed at a non-zero angle relative to said longitudinal axis (Xa, Xb), wherein the linearly sloped mating surface of the first splice bracket and the linearly sloped mating surface of the second splice bracket are in contact such that the first and second splice brackets (102a, 102b) may be connected together; and a splice clip in the form of a bracket connected to at least one of the pair of splice brackets (102a, 102b), the splice clip being configured to be connected to a third structural component.
A catalyst component for the polymerization of olefins comprising Mg, Ti and an electron donor compound of the following formula in which R 1 groups are selected from C 1 -C 15 hydrocarbon groups, R 8 groups, equal or different to each other, are selected from hydrogen, halogen and C 1 -C 15 hydrocarbon groups, optionally containing an heteroatom selected from halogen, O, P, S, N and Si and L is a divalent hydrocarbon group optionally containing heteroatoms selected from halogen, O, P, S, N and Si.
An improved method for expanding and drying tobacco, comprising: - a step of feeding the tobacco into an expansion channel, - a step of expanding the tobacco into the expansion channel by means of a process fluid, - a step of drying the expanded tobacco into a dryer by means of the process fluid heated by a heat generator, said expanded tobacco leaving the expansion channel and being introduced into said dryer, characterised in that the process fluid used for said expansion step is obtained by suitably mixing the process fluid withdrawn downstream of the drying step, after separating the tobacco, with the process fluid withdrawn downstream of the heat generator. - a step of feeding the tobacco into an expansion channel, - a step of expanding the tobacco into the expansion channel by means of a process fluid, - a step of drying the expanded tobacco into a dryer by means of the process fluid heated by a heat generator, said expanded tobacco leaving the expansion channel and being introduced into said dryer,
A measuring roller for measuring belt tension, comprising a hollow shaft having a radial mounting bore (13, 43, 60) formed in a shaft sleeve for mounting at least one sensor assembly (14, 33, 36, 37) comprising a sensor (17, 38) and for mounting a contact bottom arranged in the mounting bore at an outer shaft circumference, characterized in that the mounting bore is designed as a through bore in the hollow shaft and the sensor assembly arranged in the mounting bore comprises in addition to the sensor a support body (16, 39, 51) for supporting the sensor in the mounting bore and a pre-tensioning device (19, 34, 47, 62) for connecting the sensor to the shaft in a force-fitting manner in such a manner that the sensor is arranged between the contact bottom and the supporting body by its axial ends (23, 24).
A hybrid fuel cell power generator comprising: a rechargeable battery; a hydrogen generator; wherein the hydrogen generator comprises; a chemical hydride fuel pellet having a plurality of holes extending from a first end to a second end, wherein the fuel pellet is surrounded by a particulate filter (217, 410); a plurality of tubes formed of water vapor permeable and hydrogen impermeable material extending from the first end to the second end through the holes; a container having an inlet for water vapor containing gas coupled to the first end of the tubes and an outlet coupled to the second end of the tubes; and a hydrogen outlet coupled to the fuel pellet; and a fuel cell stack that reacts hydrogen from the hydrogen generator and oxygen to produce electricity and water vapor; and wherein the water vapor produced in the fuel cell stack is recycled to the hydrogen generator. a rechargeable battery; a hydrogen generator; a chemical hydride fuel pellet having a plurality of holes extending from a first end to a second end, wherein the fuel pellet is surrounded by a particulate filter (217, 410); a plurality of tubes formed of water vapor permeable and hydrogen impermeable material extending from the first end to the second end through the holes; a container having an inlet for water vapor containing gas coupled to the first end of the tubes and an outlet coupled to the second end of the tubes; and a hydrogen outlet coupled to the fuel pellet; and a fuel cell stack that reacts hydrogen from the hydrogen generator and oxygen to produce electricity and water vapor; and
A method of wireless communication for a user equipment, UE, (102, 206, 502, 902) comprising: establishing a wireless communication link with a millimeter-wave base station, mmW-BS, (130, 204, 504, 950) based on a transmit beam from the mmW-BS (130, 204, 504, 950), the transmit beam having a transmit beam direction; receiving beamforming capability information indicating one of at least a digital, analog, or hybrid beamforming capability associated with the mmW-BS (130, 204, 504, 950), characterized in that the beamforming capability information includes an indication of an antenna switching speed of the mmW-BS (130, 204, 504, 950); and scanning N transmit beams (508, 510, 512) from the mmW-BS (130, 204, 504, 950) for each of M receive beam directions (516, 518, 520) of the UE (102, 206, 502, 902) based on the beamforming capability information and the transmit beam associated with the wireless communication link. establishing a wireless communication link with a millimeter-wave base station, mmW-BS, (130, 204, 504, 950) based on a transmit beam from the mmW-BS (130, 204, 504, 950), the transmit beam having a transmit beam direction; receiving beamforming capability information indicating one of at least a digital, analog, or hybrid beamforming capability associated with the mmW-BS (130, 204, 504, 950), characterized in that the beamforming capability information includes an indication of an antenna switching speed of the mmW-BS (130, 204, 504, 950); and scanning N transmit beams (508, 510, 512) from the mmW-BS (130, 204, 504, 950) for each of M receive beam directions (516, 518, 520) of the UE (102, 206, 502, 902) based on the beamforming capability information and the transmit beam associated with the wireless communication link.
A control handle for a medical device having at least a first feature and a second feature subject to manipulation by a user, the medical device further having at least one first puller wire and a second puller wire for manipulating the first and second features, respectively, the control handle comprising: a housing with a first housing portion and a second housing portion; a first actuation assembly and a second puller wire actuation assembly being rotatable about a common axis; the first actuation assembly comprising a first actuator, an arm rotatable about the common axis, and a first shaft, the first actuator and the arm being rotationally coupled by the shaft; the arm having at least one pulley, the at least one pulley configured to engage the at least one first puller wire; the second puller wire actuation assembly comprising a second actuator and a second shaft having a spool portion (120, 122); wherein rotation of the first actuator rotates the arm in moving the at least one pulley to draw the at least one first puller wire to manipulate the first feature of the medical device and wherein rotation of the second actuator wraps the second puller wire on the spool portion (120, 122) to manipulate the second feature of the medical device. a housing with a first housing portion and a second housing portion; a first actuation assembly and a second puller wire actuation assembly being rotatable about a common axis; the first actuation assembly comprising a first actuator, an arm rotatable about the common axis, and a first shaft, the first actuator and the arm being rotationally coupled by the shaft; the arm having at least one pulley, the at least one pulley configured to engage the at least one first puller wire; the second puller wire actuation assembly comprising a second actuator and a second shaft having a spool portion (120, 122); wherein rotation of the first actuator rotates the arm in moving the at least one pulley to draw the at least one first puller wire to manipulate the first feature of the medical device and wherein rotation of the second actuator wraps the second puller wire on the spool portion (120, 122) to manipulate the second feature of the medical device.
A recombinant plant, wherein the plant has been engineered to contain at least one modified apyrase gene, wherein the modified apyrase gene comprises a polynucleotide comprising the sequence of SEQ ID NO:4 or a polynucleotide that encodes a polypeptide comprising the sequence of SEQ ID NO:2.
A loading device for lifting an elongated object having an elongate axis, the loading device comprising: a frame having a first fulcrum surface and a second fulcrum surface; a first effector arm that pivots about the first fulcrum surface; a second effector arm that pivots about the second fulcrum surface; an actuator moving the first effector arm and the second effector arm between a retracted position and a deployed position; a first end effector coupled to the first effector arm; and a second end effector coupled to the second effector arm; wherein: the first end effector has a first conical drum defining a first end effector axis; and the second end effector has a second conical drum defining a second end effector axis. a frame having a first fulcrum surface and a second fulcrum surface; a first effector arm that pivots about the first fulcrum surface; a second effector arm that pivots about the second fulcrum surface; an actuator moving the first effector arm and the second effector arm between a retracted position and a deployed position; a first end effector coupled to the first effector arm; and a second end effector coupled to the second effector arm; wherein: the first end effector has a first conical drum defining a first end effector axis; and the second end effector has a second conical drum defining a second end effector axis. the first end effector has a first conical drum defining a first end effector axis; and the second end effector has a second conical drum defining a second end effector axis.