mhurhangee/ep-ind-claims huggingface dataset:
A user control device for medical apparatuses, the device comprising: a manipulation panel; a frame spaced apart from the manipulation panel and including an accommodating unit to accommodate therein the manipulation panel, wherein the frame includes a bottom portion and a sidewall upwardly protruding from an edge of the bottom portion; a sensing unit disposed in the accommodating unit to sense a movement of the manipulation panel; and an auxiliary unit to assist movement of the manipulation panel wherein the manipulation panel is three-dimensionally movable relative to the frame according to a movement of an external manipulator applied to the manipulation panel; the auxiliary unit is disposed in the accommodating unit; wherein the sensing unit comprises a plurality of sensors that are two-dimensionally arrayed adjacent or on the sidewall of the frame to sense a movement of the manipulation panel wherein the manipulation panel is movable in a horizontal direction parallel with the bottom portion of the frame; and the manipulation panel is movable in a vertical direction parallel with the sidewall of the frame, wherein the manipulation panel contacts the auxiliary unit if the external manipulator is applied to the manipulation panel and the manipulation panel is spaced apart from the auxiliary unit if the external manipulator is lifted from the manipulation panel. a manipulation panel; a frame spaced apart from the manipulation panel and including an accommodating unit to accommodate therein the manipulation panel, wherein the frame includes a bottom portion and a sidewall upwardly protruding from an edge of the bottom portion; a sensing unit disposed in the accommodating unit to sense a movement of the manipulation panel; and an auxiliary unit to assist movement of the manipulation panel wherein the manipulation panel is three-dimensionally movable relative to the frame according to a movement of an external manipulator applied to the manipulation panel; the auxiliary unit is disposed in the accommodating unit; wherein the sensing unit comprises a plurality of sensors that are two-dimensionally arrayed adjacent or on the sidewall of the frame to sense a movement of the manipulation panel wherein the manipulation panel is movable in a horizontal direction parallel with the bottom portion of the frame; and the manipulation panel is movable in a vertical direction parallel with the sidewall of the frame, wherein the manipulation panel contacts the auxiliary unit if the external manipulator is applied to the manipulation panel and the manipulation panel is spaced apart from the auxiliary unit if the external manipulator is lifted from the manipulation panel.
A tire comprising a tread portion provided with zigzag circumferential grooves each extending in the tire circumferential direction in a zigzag manner so as to have zigzag vertices (Pa, Pb), and lateral grooves (4, 4c, 4m) connecting the zigzag vertices (Pa, Pb) of the zigzag circumferential grooves adjacent to each other in the tire axial direction so that a land portion between the zigzag circumferential grooves adjacent to each other in the tire axial direction is divided into a plurality of hexagonal blocks (5, 5c, 5m), characterized in that corners of the hexagonal blocks (5, 5c, 5m) adjacent to each other through the lateral grooves (4, 4c, 4m) are partially chamfered to have chamfered parts, wherein the corner of each said hexagonal block (5, 5c, 5m) is formed between a ground contacting top surface of the hexagonal block (5, 5c, 5m) and a side wall surface of the hexagonal block (5, 5c, 5m) facing the lateral groove (4, 4c, 4m), and with respect to each of the lateral grooves (4, 4c, 4m), the chamfered part of the corner of the hexagonal block (5, 5c, 5m) abutting on the lateral groove (4, 4c, 4m) on one side in the tire circumferential direction is located in a different position in the longitudinal direction of the lateral groove (4, 4c, 4m) than the chamfered part of the corner of the hexagonal block (5, 5c, 5m) abutting on the lateral groove (4, 4c, 4m) on the other side in the tire circumferential direction, wherein the length of each said chamfered part measured along the lateral groove (4, 4c, 4m) is in a range from 40% to 60% of the length of the corner measured along the lateral groove (4, 4c, 4m).
A system for printing agent calibration, comprising: a determine engine to determine a quantity of energy absorbed by a build material treated with a plurality of different quantities of a printing agent at a location of a build area; a generate engine to generate a calibration to convert a modeled quantity of energy to a calibrated quantity of printing agent based on the determined quantity of energy; and a convert engine to convert a portion of a three-dimensional (3-D) object model corresponding to the location, to a calibrated quantity of printing agent with which to treat the location to additively manufacture the portion of the three-dimensional (3-D) object model based on the calibration, wherein the portion of the three-dimensional (3-D) object model corresponds to the modeled energy quantity converted from an element of the three-dimensional (3-D) object model. a determine engine to determine a quantity of energy absorbed by a build material treated with a plurality of different quantities of a printing agent at a location of a build area; a generate engine to generate a calibration to convert a modeled quantity of energy to a calibrated quantity of printing agent based on the determined quantity of energy; and a convert engine to convert a portion of a three-dimensional (3-D) object model corresponding to the location, to a calibrated quantity of printing agent with which to treat the location to additively manufacture the portion of the three-dimensional (3-D) object model based on the calibration, wherein the portion of the three-dimensional (3-D) object model corresponds to the modeled energy quantity converted from an element of the three-dimensional (3-D) object model.
A PNA conjugate having the structure of Formula: wherein 'Specific binding entity' is selected from the group consisting of an antibody, an antibody fragment, a drug/antibody complex, and a nucleic acid; 'Linker' is a branched or unbranched, linear or cyclic, substituted or unsubstituted, saturated or unsaturated, group having between 2 and 80 carbon atoms, and optionally having one or more heteroatoms selected from O, N, or S; 'PNA' is a PNA sequence; X is selected from the group consisting of biotin, an enzyme, a chromogen, a fluorophore, a hapten, and a mass spectrometry tag; Y is a branched or unbranched, linear or cyclic, substituted or unsubstituted, saturated or unsaturated group having between 1 and 12 carbon atoms and optionally having one or more O, N, or S heteroatoms; m is 0 or an integer ranging from 1 to 6; z is 0 or 1; and n is an integer ranging from 1 to 12; wherein the PNA sequence is selected from the group consisting of SEQ ID NO: 1, SEQ ID NO:2, SEQ ID NO:3, SEQ ID NO: 4, SEQ ID NO: 5, SEQ ID NO: 6, and SEQ ID NO: 7. 'Specific binding entity' is selected from the group consisting of an antibody, an antibody fragment, a drug/antibody complex, and a nucleic acid; 'Linker' is a branched or unbranched, linear or cyclic, substituted or unsubstituted, saturated or unsaturated, group having between 2 and 80 carbon atoms, and optionally having one or more heteroatoms selected from O, N, or S; 'PNA' is a PNA sequence; X is selected from the group consisting of biotin, an enzyme, a chromogen, a fluorophore, a hapten, and a mass spectrometry tag; Y is a branched or unbranched, linear or cyclic, substituted or unsubstituted, saturated or unsaturated group having between 1 and 12 carbon atoms and optionally having one or more O, N, or S heteroatoms; m is 0 or an integer ranging from 1 to 6; z is 0 or 1; and n is an integer ranging from 1 to 12; wherein the PNA sequence is selected from the group consisting of SEQ ID NO: 1, SEQ ID NO:2, SEQ ID NO:3, SEQ ID NO: 4, SEQ ID NO: 5, SEQ ID NO: 6, and SEQ ID NO: 7.
A print liquid supply unit (100, 300), comprising: a print liquid housing; a print liquid property sensor inside the housing; and an electrical interconnect (108, 208, 508a-e) sealed in a supply joint from an outside of the housing to an inside of the housing of the supply unit, wherein the supply joint is welded to join housing components (102, 104) of the supply unit and wherein the electrical interconnect is sealed through a welded joint of housing components. a print liquid housing; a print liquid property sensor inside the housing; and an electrical interconnect (108, 208, 508a-e) sealed in a supply joint from an outside of the housing to an inside of the housing of the supply unit, wherein the supply joint is welded to join housing components (102, 104) of the supply unit and wherein the electrical interconnect is sealed through a welded joint of housing components.
A device comprising: a memory; and a processor coupled to the memory and configured to receive a new bootloader instruction set; buffer the new bootloader instruction set and store an indicator of a location of the new bootloader instruction set; store an indicator for an invalid bootloader into a bootloader signature; determine that a bootloader area in the memory does not contain a valid bootloader instruction set based on the indicator in the bootloader signature indicating that an invalid bootloader resides in the bootloader area; locate the new bootloader instruction set at a predetermined location in the memory; copy the new bootloader instruction set to the bootloader area; if the copying of the new bootloader instructions set into the bootloader area completes successfully, store a bootloader signature indicating that the bootloader area contains a valid bootloader instruction set; and execute the new bootloader instruction set from the bootloader area. a memory; and a processor coupled to the memory and configured to receive a new bootloader instruction set; buffer the new bootloader instruction set and store an indicator of a location of the new bootloader instruction set; store an indicator for an invalid bootloader into a bootloader signature; determine that a bootloader area in the memory does not contain a valid bootloader instruction set based on the indicator in the bootloader signature indicating that an invalid bootloader resides in the bootloader area; locate the new bootloader instruction set at a predetermined location in the memory; copy the new bootloader instruction set to the bootloader area; if the copying of the new bootloader instructions set into the bootloader area completes successfully, store a bootloader signature indicating that the bootloader area contains a valid bootloader instruction set; and execute the new bootloader instruction set from the bootloader area. receive a new bootloader instruction set; buffer the new bootloader instruction set and store an indicator of a location of the new bootloader instruction set; store an indicator for an invalid bootloader into a bootloader signature; determine that a bootloader area in the memory does not contain a valid bootloader instruction set based on the indicator in the bootloader signature indicating that an invalid bootloader resides in the bootloader area; locate the new bootloader instruction set at a predetermined location in the memory; copy the new bootloader instruction set to the bootloader area; if the copying of the new bootloader instructions set into the bootloader area completes successfully, store a bootloader signature indicating that the bootloader area contains a valid bootloader instruction set; and execute the new bootloader instruction set from the bootloader area.
An apparatus comprising: an optical waveguide formed in a semiconductor layer; a first contact region (110, 110-1) formed in the semiconductor layer and intersecting the optical waveguide; and a first optical transition region that extends between the optical waveguide and the first contact region (110, 110-1), wherein the first contact region is electrically coupled with the first optical transition region and configured to conduct electrical current along a dimension of the optical waveguide, whereby characterized in that the optical waveguide is operated as a resistive heating element to apply resistive heating to the optical waveguide. an optical waveguide formed in a semiconductor layer; a first contact region (110, 110-1) formed in the semiconductor layer and intersecting the optical waveguide; and a first optical transition region that extends between the optical waveguide and the first contact region (110, 110-1), wherein the first contact region is electrically coupled with the first optical transition region and configured to conduct electrical current along a dimension of the optical waveguide, whereby characterized in that the optical waveguide is operated as a resistive heating element to apply resistive heating to the optical waveguide.
Process for producing a polymer from at least one first component and a second component by means of a reactor, where heat of reaction arising in the reactor is removed by means of an evaporative cooler, by feeding gaseous vapor formed in the reactor to the evaporative cooler and recirculating condensed vapor from the evaporative cooler to the reactor, characterized in that the first component and/or the second component are at least partly introduced via the evaporative cooler and go from the evaporative cooler into the reactor, and in that the first component and/or the second component are introduced at least partly in liquid form into the evaporative cooler, and in that the first component and/or the second component are at least partly mixed with a solvent, with the solvent being taken from a condensation unit arranged downstream of the reactor via a collection vessel, with the gaseous vapor ascending against the force of gravity in vertical tubes of the evaporative cooler and condensing in the evaporative cooler, and with the condensed vapor subsequently flowing together with the first component and/or the second component under the force of gravity back into the reactor. heat of reaction arising in the reactor is removed by means of an evaporative cooler, by feeding gaseous vapor formed in the reactor to the evaporative cooler and recirculating condensed vapor from the evaporative cooler to the reactor, characterized in that the first component and/or the second component are at least partly introduced via the evaporative cooler and go from the evaporative cooler into the reactor, and in that the first component and/or the second component are introduced at least partly in liquid form into the evaporative cooler, and in that the first component and/or the second component are at least partly mixed with a solvent, with the solvent being taken from a condensation unit arranged downstream of the reactor via a collection vessel, with the gaseous vapor ascending against the force of gravity in vertical tubes of the evaporative cooler and condensing in the evaporative cooler, and with the condensed vapor subsequently flowing together with the first component and/or the second component under the force of gravity back into the reactor.
A mobile terminal device comprising: a timing estimate generation processor configured to generate a plurality of candidate timing estimates (t m), wherein each of the plurality of candidate timing estimates (t m) represents an estimated temporal location of a synchronization sequence in a received digitized signal (r t); a demodulation/selection processor configured to demodulate the received digitized signal (r t) according to each of the plurality of candidate timing estimates (t m) to obtain a plurality of reliability metrics, wherein each of the plurality of reliability metrics is associated with one of the plurality of candidate timing estimates (t m), and select one of the plurality of candidate timing estimates (t m) as a selected timing estimate based on a comparison between one or more of the plurality of reliability metrics; a peak timing processor configured to calculate a peak correlation value in time between a local reference synchronization sequence and the received digitized signal (r t); and a transceiver configured to perform synchronized mobile communications using the selected timing estimate and a frequency offset associated with the selected timing estimate. a timing estimate generation processor configured to generate a plurality of candidate timing estimates (t m), wherein each of the plurality of candidate timing estimates (t m) represents an estimated temporal location of a synchronization sequence in a received digitized signal (r t); a demodulation/selection processor configured to demodulate the received digitized signal (r t) according to each of the plurality of candidate timing estimates (t m) to obtain a plurality of reliability metrics, wherein each of the plurality of reliability metrics is associated with one of the plurality of candidate timing estimates (t m), and select one of the plurality of candidate timing estimates (t m) as a selected timing estimate based on a comparison between one or more of the plurality of reliability metrics; a peak timing processor configured to calculate a peak correlation value in time between a local reference synchronization sequence and the received digitized signal (r t); and a transceiver configured to perform synchronized mobile communications using the selected timing estimate and a frequency offset associated with the selected timing estimate.
Multimedia screen support, notably for an instrument panel of a motor vehicle, comprising a casing in which a carriage slides between a retracted position inside the casing and a deployed position outside the casing, the carriage supports a stand pivoted at its base between a position in which it is laid down against the carriage, allowing the carriage and the stand to be retracted into the casing, and a raised position for holding a multimedia screen bearing on a bottom ledge of the stand, characterized in that the bottom ledge also being movable relative to the base of the stand pivoted on the carriage, between an upper position which frees space below the stand and a lower position for lowering the position of a multimedia screen, notably in order to limit the extent to which it protrudes above the top edge of the stand.
A bi-directional, self-energizing tracking apparatus (10; 110) capable of redirecting a mistracking conveyor belt back toward a correct travel path whether the conveyor belt is traveling in one direction or in an opposite direction, the tracking apparatus (10; 110) comprising: an idler roller (18; 118) that engages a surface of the conveyor belt; a frame assembly for operatively mounting the idler roller (18; 118) to conveyor structure; a shiftable connection of the frame assembly for operably connecting the idler roller (18; 118) to the frame assembly and being internal to the idler roller (18; 118) for shifting the idler roller (18; 118) relative to the frame assembly in response to the mistracking conveyor belt, the shiftable connection being configured to allow the idler roller (18; 118) to pivot about a pivot axis such that an end (22, 23) of the idler roller (18; 118) is shifted downstream relative to a neutral position thereof corresponding to the conveyor belt traveling along a correct travel path, and allow the idler roller (18; 118) to tilt such that the downstream end of the idler roller (18; 118) is shifted in a direction transverse to the surface of the conveyor belt so as to increase the force exerted by the idler roller (18; 118) end (22, 23) on the conveyor belt surface for guiding the mistracking conveyor belt back toward a correct travel path; characterized in that the shiftable connection is configured to allow the idler roller (18; 118) to translate along a translation axis transverse to the one conveyor belt direction. an idler roller (18; 118) that engages a surface of the conveyor belt; a frame assembly for operatively mounting the idler roller (18; 118) to conveyor structure; a shiftable connection of the frame assembly for operably connecting the idler roller (18; 118) to the frame assembly and being internal to the idler roller (18; 118) for shifting the idler roller (18; 118) relative to the frame assembly in response to the mistracking conveyor belt, the shiftable connection being configured to allow the idler roller (18; 118) to pivot about a pivot axis such that an end (22, 23) of the idler roller (18; 118) is shifted downstream relative to a neutral position thereof corresponding to the conveyor belt traveling along a correct travel path, and allow the idler roller (18; 118) to tilt such that the downstream end of the idler roller (18; 118) is shifted in a direction transverse to the surface of the conveyor belt so as to increase the force exerted by the idler roller (18; 118) end (22, 23) on the conveyor belt surface for guiding the mistracking conveyor belt back toward a correct travel path; characterized in that the shiftable connection is configured to allow the idler roller (18; 118) to translate along a translation axis transverse to the one conveyor belt direction.
Bone anchoring screw comprising a head, a shaft and a threaded portion arranged successively along a common axis, the head having a recess comprising at least two stages (a, b, c) arranged in succession along the common axis, the first stage having a diameter (da) larger than the diameter (db) of the second stage, characterized in that one of the two stages comprises at least one socket of a first type (Tl; Tp) and the other of the two stages comprises at least one socket of the first type and one other type (Tp; Tl), the screw further comprising an intermediate stage arranged between the first and the second stage, the recess of the intermediate stage comprising fewer types of sockets than the recess of the first and/or second stage. characterized in that one of the two stages comprises at least one socket of a first type (Tl; Tp) and the other of the two stages comprises at least one socket of the first type and one other type (Tp; Tl), the screw further comprising an intermediate stage arranged between the first and the second stage, the recess of the intermediate stage comprising fewer types of sockets than the recess of the first and/or second stage.
A terminal locator for holding a terminal in a crimping zone of a terminal crimping device, the terminal locator comprising: a housing configured to be positioned forward of crimp tooling defining the crimping zone; a spacer held by the housing, the spacer having a spacer blocking surface configured to locate the terminal and block axial rearward movement of the terminal; and a latch held by the housing, the latch having a latch blocking surface configured to locate the terminal and block axial forward movement of the terminal, characterized in that the housing has a terminal cavity extending along a terminal axis and configured to receive the terminal such that a crimp barrel of the terminal extends rearward of the housing along the terminal axis into the crimping zone for crimping to a wire; and the latch is deflectable to allow insertion and removal of the terminal from the terminal cavity. a housing configured to be positioned forward of crimp tooling defining the crimping zone; a spacer held by the housing, the spacer having a spacer blocking surface configured to locate the terminal and block axial rearward movement of the terminal; and a latch held by the housing, the latch having a latch blocking surface configured to locate the terminal and block axial forward movement of the terminal, characterized in that the housing has a terminal cavity extending along a terminal axis and configured to receive the terminal such that a crimp barrel of the terminal extends rearward of the housing along the terminal axis into the crimping zone for crimping to a wire; and the latch is deflectable to allow insertion and removal of the terminal from the terminal cavity.