mhurhangee/ep-ind-claims huggingface dataset:
A tool holder attachment structure, comprising: a spindle of a machine tool having a tip end face and a tapered hole extending axially inward from said tip end face; and a tool holder having a tapered shank portion that fits in said tapered hole of said spindle, and a flange end face that faces said tip end face of said spindle, wherein said tapered shank portion is adapted to be drawn into said tapered hole to clamp said tool holder to said spindle, in said clamped state, there is a clearance of a predetermined size between said flange end face of said tool holder and said tip end face of said spindle that allows said tapered shank portion to be further drawn into said tapered hole as said spindle is rotated and said tapered hole of said spindle is slightly expanded by a centrifugal force caused by the rotation of said spindle, characterized in that the tool holder comprises predetermined dimensions wherein the size of the clearance is determined by taking into account the amount by which the tapered hole of the spindle is expanded by the centrifugal force at normal rotational speed of said spindle so that, as said spindle is rotated at normal rotational speed, a) said flange end face of said tool holder closely contacts said tip end face of said spindle, and b) said tapered shank portion closely fits into said tapered hole, whereby two-face restraint between the tapered hole and the tapered shank portion and between the tip end face of said spindle and the flange end face is implemented. a spindle of a machine tool having a tip end face and a tapered hole extending axially inward from said tip end face; and a tool holder having a tapered shank portion that fits in said tapered hole of said spindle, and a flange end face that faces said tip end face of said spindle, wherein said tapered shank portion is adapted to be drawn into said tapered hole to clamp said tool holder to said spindle, in said clamped state, there is a clearance of a predetermined size between said flange end face of said tool holder and said tip end face of said spindle that allows said tapered shank portion to be further drawn into said tapered hole as said spindle is rotated and said tapered hole of said spindle is slightly expanded by a centrifugal force caused by the rotation of said spindle, characterized in that the tool holder comprises predetermined dimensions wherein the size of the clearance is determined by taking into account the amount by which the tapered hole of the spindle is expanded by the centrifugal force at normal rotational speed of said spindle so that, as said spindle is rotated at normal rotational speed, a) said flange end face of said tool holder closely contacts said tip end face of said spindle, and b) said tapered shank portion closely fits into said tapered hole, a) said flange end face of said tool holder closely contacts said tip end face of said spindle, and b) said tapered shank portion closely fits into said tapered hole, whereby two-face restraint between the tapered hole and the tapered shank portion and between the tip end face of said spindle and the flange end face is implemented.
Weft feeder device comprising a winding drum with an adjustable winding circumference for storing weft thread and with a drum axis, and comprising a drive mechanism that comprises a central drive wheel (6, 60) arranged coaxially with respect to the drum axis, wherein the winding drum comprises at least one drum segment (3, 4, 5; 30, 40, 50) mounted so as to be moveable in a radial direction about the drum axis, wherein the drum segment (3, 4, 5; 30, 40, 50) comprises at least a first side leg extending along a side of the central drive wheel (6, 60), wherein the first side leg is a driven leg (11, 12, 13; 110, 120, 130) drivingly coupled to the drive wheel (6, 60), characterized in that the drive mechanism further comprises at least one wire strand (7, 8, 9) extending along the periphery of the central drive wheel (6, 60) for a motion transmission from the drive wheel (6, 60) to the driven leg (11, 12, 13; 110, 120, 130), which at least one wire strand (7, 8, 9) is fixed to the driven leg (11, 12, 13; 110, 120, 130) and to the central drive wheel (6, 60).
A telescopic construction support with an outer tube and an inner tube slidable within the outer tube, wherein the outer tube has a device for fastening bracing, and including a connecting element which is releasably fastened to the inner tube of the construction support and which has a device for fastening the bracing, characterised in that the fastening devices (6, 14) of the connecting element and of the outer tube of the construction support have T grooves or T, L or mushroom head-shaped ribs, which are congruent and aligned with one another.
A method for wireless communication, comprising: generating a null data packet, NDP, frame comprising a physical layer preamble having a legacy preamble portion, a non-legacy portion conforming to a different standard or protocol than the legacy preamble portion, and an extension portion, wherein the extension portion is one member from the group consisting of: high efficiency, HE, signal information and a padding waveform; and transmitting the NDP frame; wherein generating the NDP frame comprises: generating the non-legacy portion to include a first HE signal field designated as HE-SIG-A and a second HE signal field different from the first signal field, wherein the second HE signal field comprises an HE long training field structure; the method further comprising determining a duration of the extension portion based at least in part on at least a number of HE long training fields in the HE long training field structure. generating a null data packet, NDP, frame comprising a physical layer preamble having a legacy preamble portion, a non-legacy portion conforming to a different standard or protocol than the legacy preamble portion, and an extension portion, wherein the extension portion is one member from the group consisting of: high efficiency, HE, signal information and a padding waveform; and transmitting the NDP frame; wherein generating the NDP frame comprises: generating the non-legacy portion to include a first HE signal field designated as HE-SIG-A and a second HE signal field different from the first signal field, wherein the second HE signal field comprises an HE long training field structure; the method further comprising determining a duration of the extension portion based at least in part on at least a number of HE long training fields in the HE long training field structure.
Method for processing of images of the road scene taken by a camera on board a vehicle, characterised in that the size of the original image is decreased with a variable sampling level, the original image being subdivided into a central zone (Zc) or "sensitive" zone (Zs) the resolution of which is preserved, and peripheral zones (Zi), the sampling level (T1, T2) of which increases with the distance to the said central area (Zc) or "sensitive" area (Zs).
Derivative based on hyaluronic acid according to the general formula where Ar is phenyl and R 1 is ethylene, or Ar is indole and R 1 is ethylene, or Ar is indole and R 1 is carboxyethylene, and where R 2 is an alkyl having 3 to 7 carbon atoms, and where n is within the range of 1 to 7500.
Transport container for helium (He), with an inner container for accommodating the helium (He), a coolant container for accommodating a cryogenic fluid, an outer container in which the inner container and the coolant container are accommodated, a thermal shield in which the inner container is accommodated and which is actively coolable with the aid of the cryogenic fluid, wherein the thermal shield has at least one cooling line which is in fluidic connection with the coolant container and in which the cryogenic fluid can be accommodated for the active cooling of the thermal shield, characterized by at least one return line (34, 35), with the aid of which the at least one cooling line is in fluidic connection with the coolant container in order to return the cryogenic fluid to the coolant container.
A dispensing device comprising: a drive unit configured to operate a material dispenser; a power supply configured to provide a voltage to the drive unit to operate the material dispenser; a detector configured to detect a velocity of the material dispenser; and a controller configured to maintain the material dispenser at a constant velocity based on the velocity detected by the detector, characterized in that the controller is programmed to terminate voltage supplied to the drive unit, when the detector detects that the velocity is less than a predetermined velocity. a drive unit configured to operate a material dispenser; a power supply configured to provide a voltage to the drive unit to operate the material dispenser; a detector configured to detect a velocity of the material dispenser; and a controller configured to maintain the material dispenser at a constant velocity based on the velocity detected by the detector, characterized in that the controller is programmed to terminate voltage supplied to the drive unit, when the detector detects that the velocity is less than a predetermined velocity. velocity based on the velocity detected by the detector, characterized in that the controller is programmed to terminate voltage supplied to the drive unit, when the detector detects that the velocity is less than a predetermined velocity.
A rod reduction device (10, 100, 200, 300), comprising: a housing defining a longitudinal axis; first (30, 130, 330) and second (40, 140, 340) arms extending distally from the housing to distal ends of the first and second arms, the distal ends of the first and second arms being configured to releasably attached to a bone anchor; and an anvil (50, 250, 350) defining first and second arm bores that extend longitudinally through the anvil in parallel, the first and second arms received within the first and second arm bores, respectively, to enable the anvil to translate along the first and second arms and the longitudinal axis for facilitating the insertion of a spinal rod into the bone anchor; wherein the anvil and each of the first and second arms are positionable between a first position and at least one second position as the anvil translates along the first and second arms. a housing defining a longitudinal axis; first (30, 130, 330) and second (40, 140, 340) arms extending distally from the housing to distal ends of the first and second arms, the distal ends of the first and second arms being configured to releasably attached to a bone anchor; and an anvil (50, 250, 350) defining first and second arm bores that extend longitudinally through the anvil in parallel, the first and second arms received within the first and second arm bores, respectively, to enable the anvil to translate along the first and second arms and the longitudinal axis for facilitating the insertion of a spinal rod into the bone anchor; wherein the anvil and each of the first and second arms are positionable between a first position and at least one second position as the anvil translates along the first and second arms.
A battery comprising: a housing having a sealed chamber; a core packaged in the sealed chamber; and a first terminal and a second terminal respectively mounted to the housing, wherein the first terminal is electrically connected to the housing, and the second terminal is insulated from the housing; the battery further comprises a first tab and a second tab respectively led out from the core, wherein the first tab is electrically connected to the housing, the first tab is electrically connected to the first terminal through the housing, and the second tab is electrically connected to the second terminal; wherein the first tab is electrically connected to the housing through a first connection member; and wherein the first connection member comprises the first U-shaped plate and a first lead-out sheet, wherein the closed end of the first U-shaped plate is disposed on the housing, the open end of the first U-shaped plate faces the sealed chamber, and the first tab is electrically connected to the first U-shaped plate through the first lead-out sheet; one end of the first lead-out sheet is connected to the first tab, and the other end of the first lead-out sheet is connected to the wall of the formed opening of the first U-shaped plate. a housing having a sealed chamber; a core packaged in the sealed chamber; and a first terminal and a second terminal respectively mounted to the housing, wherein the first terminal is electrically connected to the housing, and the second terminal is insulated from the housing; the battery further comprises a first tab and a second tab respectively led out from the core, wherein the first tab is electrically connected to the housing, the first tab is electrically connected to the first terminal through the housing, and the second tab is electrically connected to the second terminal; wherein the first tab is electrically connected to the housing through a first connection member; and wherein the first connection member comprises the first U-shaped plate and a first lead-out sheet, wherein the closed end of the first U-shaped plate is disposed on the housing, the open end of the first U-shaped plate faces the sealed chamber, and the first tab is electrically connected to the first U-shaped plate through the first lead-out sheet; one end of the first lead-out sheet is connected to the first tab, and the other end of the first lead-out sheet is connected to the wall of the formed opening of the first U-shaped plate.
An implantable cardiac stimulation system, comprising: means for storing an electric charge having a capacity for delivery of energy configured to provide a therapy stimulation pulse and an arrhythmia induction stimulation pulse based on a preprogrammed treatment regimen; a charging circuit for charging the storing means; delivery circuit for delivering the therapy and arrhythmia induction stimulation pulses, wherein the delivering means is configured in a first configuration to deliver the therapy stimulation pulse and in a second configuration to deliver the arrhythmia induction stimulation pulse, wherein the second configuration is different from the first configuration; and at least two electrodes (32, 34) coupled to the delivering means to discharge the therapy and arrhythmia induction stimulation pulses; characterized in that the delivery circuit comprises a H-bridge circuit having a high side and a low side, and an opt-in circuit (76,78) electrically coupled to the H-bridge wherein, the output circuit is selectively configured in the first configuration to deliver a therapy stimulation pulse through the high side and the low side, and in the second configuration to deliver an arrhythmia induction stimulation pulse through the high side and the opt-in circuit, wherein the opt-in circuit is electrically coupled to the low side of the H-bridge in a parallel arrangement such that the arrhythmia induction stimulation pulse bypasses the low side responsive to the output circuit being configured in the second configuration. means for storing an electric charge having a capacity for delivery of energy configured to provide a therapy stimulation pulse and an arrhythmia induction stimulation pulse based on a preprogrammed treatment regimen; a charging circuit for charging the storing means; delivery circuit for delivering the therapy and arrhythmia induction stimulation pulses, wherein the delivering means is configured in a first configuration to deliver the therapy stimulation pulse and in a second configuration to deliver the arrhythmia induction stimulation pulse, wherein the second configuration is different from the first configuration; and at least two electrodes (32, 34) coupled to the delivering means to discharge the therapy and arrhythmia induction stimulation pulses; characterized in that the delivery circuit comprises a H-bridge circuit having a high side and a low side, and an opt-in circuit (76,78) electrically coupled to the H-bridge wherein, the output circuit is selectively configured in the first configuration to deliver a therapy stimulation pulse through the high side and the low side, and in the second configuration to deliver an arrhythmia induction stimulation pulse through the high side and the opt-in circuit, wherein the opt-in circuit is electrically coupled to the low side of the H-bridge in a parallel arrangement such that the arrhythmia induction stimulation pulse bypasses the low side responsive to the output circuit being configured in the second configuration.
A method of producing a p-channel LDMOS transistor, comprising: - forming an n well in a semiconductor substrate by an implantation of n-dopants, - forming a p well in the n well by an implantation of p-dopants, - performing a further implantation of p-dopants in a p implant region in the n well under the p well in the vicinity of the p well, the p-implant region locally reducing the n-type conductivity of the n well without generating a net p-type conductivity in the n well thus improving the punch-through behavior of the transistor without requiring an increase of the distance between the p well and the lower boundary of the n well, - forming a drain region in the p well and a source region in the n well by an implantation of p-dopants, comprising forming the source region at a distance from the p well, and - arranging a gate electrode on a gate dielectric on an upper surface of the substrate, wherein - the substrate has a basic p-doping. - forming an n well in a semiconductor substrate by an implantation of n-dopants, - forming a p well in the n well by an implantation of p-dopants, - performing a further implantation of p-dopants in a p implant region in the n well under the p well in the vicinity of the p well, the p-implant region locally reducing the n-type conductivity of the n well without generating a net p-type conductivity in the n well thus improving the punch-through behavior of the transistor without requiring an increase of the distance between the p well and the lower boundary of the n well, - forming a drain region in the p well and a source region in the n well by an implantation of p-dopants, comprising forming the source region at a distance from the p well, and - arranging a gate electrode on a gate dielectric on an upper surface of the substrate, wherein - the substrate has a basic p-doping.
A switch for activating a chimeric antigen receptor-effector cell (CAR-EC), the switch comprising: a. a chimeric antigen receptor-interacting domain (CAR-ID) that interacts with a chimeric antigen receptor on the CAR-EC; and b. a target interacting domain comprising an unnatural amino acid, wherein the TID interacts with a surface molecule on a target cell, and wherein the CAR-ID is attached to the TID via the unnatural amino acid. a. a chimeric antigen receptor-interacting domain (CAR-ID) that interacts with a chimeric antigen receptor on the CAR-EC; and b. a target interacting domain comprising an unnatural amino acid, wherein the TID interacts with a surface molecule on a target cell, and wherein the CAR-ID is attached to the TID via the unnatural amino acid.
A single chain, polypeptide fusion protein, comprising: a. a non-cytotoxic protease, or a fragment thereof, which protease or protease fragment is capable of cleaving a protein of the exocytic fusion apparatus of a nociceptive sensory afferent; b. a Targeting Moiety that is capable of binding to a Binding Site on the nociceptive sensory afferent, which Binding Site is capable of undergoing endocytosis to be incorporated into an endosome within the nociceptive sensory afferent; c. a protease cleavage site at which site the fusion protein is cleavable by a protease, wherein the protease cleavage site is located between the non-cytotoxic protease or fragment thereof and the Targeting Moiety; d. a translocation domain that is capable of translocating the protease or protease fragment from within an endosome, across the endosomal membrane and into the cytosol of the nociceptive sensory afferent; wherein the Targeting Moiety is located between the protease cleavage site and the translocation domain, and wherein the Targeting Moiety and the protease cleavage site are separated by at most 10 amino acid residues, and wherein the Targeting Moiety and the protease cleavage site are not separated by zero amino acid residues. a. a non-cytotoxic protease, or a fragment thereof, which protease or protease fragment is capable of cleaving a protein of the exocytic fusion apparatus of a nociceptive sensory afferent; b. a Targeting Moiety that is capable of binding to a Binding Site on the nociceptive sensory afferent, which Binding Site is capable of undergoing endocytosis to be incorporated into an endosome within the nociceptive sensory afferent; c. a protease cleavage site at which site the fusion protein is cleavable by a protease, wherein the protease cleavage site is located between the non-cytotoxic protease or fragment thereof and the Targeting Moiety; d. a translocation domain that is capable of translocating the protease or protease fragment from within an endosome, across the endosomal membrane and into the cytosol of the nociceptive sensory afferent; wherein the Targeting Moiety is located between the protease cleavage site and the translocation domain, and wherein the Targeting Moiety and the protease cleavage site are separated by at most 10 amino acid residues, and wherein the Targeting Moiety and the protease cleavage site are not separated by zero amino acid residues.
Method for calibrating meters in a system, in which several meters (1, j) are used to measure a desired quantity, one collection meter being used to measure the quantity that forms the sum of the quantities of the aforesaid several meters, wherein - the measurement results of both the several meters and of the collection meter are recorded repeatedly and at least approximately simultaneously, - from the recorded measurement data and their times of recording, a model of the relative measurement error of the individual meters (1,j) and possibly of the deviation of the error, is created by matrix-calculation methods, - the collection meter is of a precision class that is clearly more accurate than that of the meters, and the measurement results read from the meters are transmitted with the aid of a data network to a server for calculation operations. - the measurement results of both the several meters and of the collection meter are recorded repeatedly and at least approximately simultaneously, - from the recorded measurement data and their times of recording, a model of the relative measurement error of the individual meters (1,j) and possibly of the deviation of the error, is created by matrix-calculation methods, - the collection meter is of a precision class that is clearly more accurate than that of the meters, and the measurement results read from the meters are transmitted with the aid of a data network to a server for calculation operations.