mhurhangee/ep-ind-claims huggingface dataset:
Method for selecting the size of a shoe or clothing article, the method comprising the following phases: - acquiring at least a digital photo of a body part (172 - 182) of a subject associated with a reference graphic element, said body part corresponding to the article; characterized in that the method further comprises: - selecting one among a plurality of predefined three-dimensional models of the photographed body part according to said at least one digital photo by exploiting said reference graphic element, and - determining the size of the article based on the selected predefined model. wherein the phase of determining comprises: a) rotating the selected predefined model in such a way that its orientation in the space corresponds to that of such body part from the point of view of the digital photo; b) making a predefined portion of the rotated selected predefined model to match with a corresponding portion of said body part; c) deforming the rotated selected predefined model in such a way to make at least one portion of the contour of the selected model to substantially match with a corresponding portion of the contour of said body part extracted from said at least one digital photo. - acquiring at least a digital photo of a body part (172 - 182) of a subject associated with a reference graphic element, said body part corresponding to the article; - selecting one among a plurality of predefined three-dimensional models of the photographed body part according to said at least one digital photo by exploiting said reference graphic element, and - determining the size of the article based on the selected predefined model. wherein the phase of determining comprises: a) rotating the selected predefined model in such a way that its orientation in the space corresponds to that of such body part from the point of view of the digital photo; b) making a predefined portion of the rotated selected predefined model to match with a corresponding portion of said body part; c) deforming the rotated selected predefined model in such a way to make at least one portion of the contour of the selected model to substantially match with a corresponding portion of the contour of said body part extracted from said at least one digital photo. a) rotating the selected predefined model in such a way that its orientation in the space corresponds to that of such body part from the point of view of the digital photo; b) making a predefined portion of the rotated selected predefined model to match with a corresponding portion of said body part; c) deforming the rotated selected predefined model in such a way to make at least one portion of the contour of the selected model to substantially match with a corresponding portion of the contour of said body part extracted from said at least one digital photo.
A protective device for a ventilation system, - with at least one supporting brace, - with at least one protective element and - with a protective space formed by the protective element, wherein at least one protective element is connected to at least one supporting brace in at least one intersecting point, wherein the protective device has a center, about which the at least one protective element is arranged spirally and/or at least one protective element is arranged annularly, wherein at least one protective element is realized in the form of an elongate profile, the cross section of which is a polygon and has at least two corners that are located on a circumcircle having a circumcenter, with said elongate profile being twisted about its longitudinal axis in order to form a protective space, and wherein this twisted protective element is welded on the supporting brace. - with at least one supporting brace, - with at least one protective element and - with a protective space formed by the protective element,
A brushless DC motor (10, 210, 310, 410), comprising: A rotatable shaft (14, 214, 314, 414) having a magnet (16, 216, 316,416); a stator assembly (18, 218, 318, 418) adapted to control movement of the rotatable shaft (14, 214, 314, 414); and a tube (22, 222, 322, 422) provided between the rotatable shaft (14, 214, 314, 414) and the stator assembly (18, 218, 318, 418), the tube (22, 222, 322, 422) having at least a portion that is sufficiently magnetically transparent to allow a magnetic field to pass between the magnet (16, 216, 316, 416) and the stator assembly (18, 218, 318, 418); a pair of rolling element bearings (20, 220, 320, 420) to rotatably support the rotatable shaft (14, 214, 314, 414); wherein the tube (22, 222, 322, 422) is metallic or semi-metallic; wherein the stator assembly (18, 218, 318, 418) is provided along an exterior surface of the tube (22, 222, 322, 422) and the bearings (20, 220, 320, 420) are provided along an interior surface of the tube (22, 222, 322, 422) to support the rotatable shaft (14, 214, 314, 414) within a tube interior; wherein a fixing means is applied between the bearings and the tube to fix and retain the bearings in position; and wherein the materials of the rotatable shaft and the tube have the same thermal expansion coefficient. A rotatable shaft (14, 214, 314, 414) having a magnet (16, 216, 316,416); a stator assembly (18, 218, 318, 418) adapted to control movement of the rotatable shaft (14, 214, 314, 414); and a tube (22, 222, 322, 422) provided between the rotatable shaft (14, 214, 314, 414) and the stator assembly (18, 218, 318, 418), the tube (22, 222, 322, 422) having at least a portion that is sufficiently magnetically transparent to allow a magnetic field to pass between the magnet (16, 216, 316, 416) and the stator assembly (18, 218, 318, 418); a pair of rolling element bearings (20, 220, 320, 420) to rotatably support the rotatable shaft (14, 214, 314, 414); wherein the tube (22, 222, 322, 422) is metallic or semi-metallic; wherein the stator assembly (18, 218, 318, 418) is provided along an exterior surface of the tube (22, 222, 322, 422) and the bearings (20, 220, 320, 420) are provided along an interior surface of the tube (22, 222, 322, 422) to support the rotatable shaft (14, 214, 314, 414) within a tube interior; wherein a fixing means is applied between the bearings and the tube to fix and retain the bearings in position; and wherein the materials of the rotatable shaft and the tube have the same thermal expansion coefficient.
A linear compressor comprising: a shell including an intake pipe configured to suck a refrigerant; a cylinder provided inside the shell; a piston configured to reciprocate inside the cylinder, the piston including a piston body and a piston flange; and an intake muffler coupled to the piston, the intake muffler is configured to flow a refrigerant sucked through the intake pipe into the piston body, wherein the intake muffler includes: a first muffler disposed inside the piston body; a second muffler disposed below the first muffler and configured to communicate with the first muffler; and a third muffler configured to accommodate a portion of a rear end of the first muffler and the second muffler., wherein each of the first muffler and the second muffler includes (i) a body (211, 231) that defines a refrigerant flow passage and extends in an axial direction, and (ii) a flange (212, 233) that extends radially from the body (211, 231), and wherein a communication portion (215, 235) is provided in each of the flange of the first muffler and the flange of the second muffler. a shell including an intake pipe configured to suck a refrigerant; a cylinder provided inside the shell; a piston configured to reciprocate inside the cylinder, the piston including a piston body and a piston flange; and an intake muffler coupled to the piston, the intake muffler is configured to flow a refrigerant sucked through the intake pipe into the piston body, wherein the intake muffler includes: a first muffler disposed inside the piston body; a second muffler disposed below the first muffler and configured to communicate with the first muffler; and a third muffler configured to accommodate a portion of a rear end of the first muffler and the second muffler., wherein each of the first muffler and the second muffler includes (i) a body (211, 231) that defines a refrigerant flow passage and extends in an axial direction, and (ii) a flange (212, 233) that extends radially from the body (211, 231), and wherein a communication portion (215, 235) is provided in each of the flange of the first muffler and the flange of the second muffler. a first muffler disposed inside the piston body; a second muffler disposed below the first muffler and configured to communicate with the first muffler; and a third muffler configured to accommodate a portion of a rear end of the first muffler and the second muffler., wherein each of the first muffler and the second muffler includes (i) a body (211, 231) that defines a refrigerant flow passage and extends in an axial direction, and (ii) a flange (212, 233) that extends radially from the body (211, 231), and wherein a communication portion (215, 235) is provided in each of the flange of the first muffler and the flange of the second muffler.
A method of producing a lateral single-photon avalanche diode, comprising: - forming a trench in a semiconductor body (1, 2), the trench having a sidewall, - increasing the electric conductivity near the sidewall of the trench, thereby providing a junction region of a first type of electric conductivity, - arranging a semiconductor layer of an opposite second type of electric conductivity at the sidewall of the trench adjacent to the junction region, and - providing anode and cathode terminals (5, 6; 25, 26), so that one of the anode and cathode terminals (5, 6; 25, 26) being electrically connected with the semiconductor layer and the other one of the anode and cathode terminals (5, 6; 25, 26) being electrically connected with the junction region, characterized in that - the semiconductor body (1, 2) has the first type of electric conductivity, - the trench formation comprises etching a partial trench into the semiconductor body (1, 2), forming a collar layer which covers the sidewall of the partial trench and etching the trench to its final depth, and - the electrical conductivity is increased by an implantation in the sidewall of the trench, wherein the collar layer shields an upper portion of the sidewall during the implantation. - forming a trench in a semiconductor body (1, 2), the trench having a sidewall, - increasing the electric conductivity near the sidewall of the trench, thereby providing a junction region of a first type of electric conductivity, - arranging a semiconductor layer of an opposite second type of electric conductivity at the sidewall of the trench adjacent to the junction region, and - providing anode and cathode terminals (5, 6; 25, 26), so that one of the anode and cathode terminals (5, 6; 25, 26) being electrically connected with the semiconductor layer and the other one of the anode and cathode terminals (5, 6; 25, 26) being electrically connected with the junction region, - the semiconductor body (1, 2) has the first type of electric conductivity, - the trench formation comprises etching a partial trench into the semiconductor body (1, 2), forming a collar layer which covers the sidewall of the partial trench and etching the trench to its final depth, and - the electrical conductivity is increased by an implantation in the sidewall of the trench, wherein the collar layer shields an upper portion of the sidewall during the implantation.
A rubber composition, comprising a conjugated diene polymer, and a silica having a nitrogen adsorption specific surface area of 40 to 400 m 2 /g, the conjugated diene polymer being obtained by polymerizing a monomer component including a conjugated diene compound and a silicon-containing vinyl compound in the presence of a polymerization initiator represented by the following formula: wherein i represents 0 or 1; R 11 represents a C 1-100 hydrocarbylene group; R 12 and R 13 each represent an optionally substituted hydrocarbyl group or a trihydrocarbylsilyl group, or R 12 and R 13 are bonded to each other to form a hydrocarbylene group optionally containing at least one, as a hetero atom, selected from the group consisting of a silicon atom, a nitrogen atom, and an oxygen atom; and M represents an alkali metal atom, to produce a copolymer, and then reacting a compound containing at least one of a nitrogen atom and a silicon atom with an active terminal of the copolymer, wherein an amount of the conjugated diene polymer is 1 to 60% by mass and an amount of a polyisoprene-based rubber is 0 to 99% by mass, each based on 100% by mass of a rubber component of the rubber composition, an amount of the silica is 10 to 80 parts by mass for each 100 parts by mass of the rubber component, and the rubber composition has a carbon ratio of not less than 50.
A method of operating a User Equipment, UE, in a wireless communication network, wherein the UE is configured for Discontinuous Reception, DRX, operation with a DRX cycle having a DRX ON period in which the UE is in a DRX awake state and ready for reception and a DRX OFF period in which the UE is in a DRX sleep state, the method comprising the steps of: - the UE determining whether an uplink packet to be transmitted is delay tolerant; and - the UE delaying, when the uplink packet is regarded as delay tolerant, a request for an uplink transmission grant for the uplink packet until a DRX ON period of the UE, wherein the UE has a primary packet buffer operable for storing the uplink packet and also a packet pre-buffer, and wherein the step of delaying, when the uplink packet is regarded as delay tolerant, a request for an uplink transmission grant until a DRX ON period of the UE comprises the steps of: - temporarily storing (S2-1B) the uplink packet in the packet pre-buffer; - transferring (S2-2B) the uplink packet from the packet pre-buffer into the primary packet buffer when the UE is in the DRX ON period, wherein the UE has a control module for generating a control signal to control the forwarding of the packet to the packet pre-buffer, when the uplink packet is delay tolerant, or to the primary packet buffer when the uplink packet is delay sensitive, and wherein the presence of an uplink packet in the primary packet buffer triggers transmission of the request for an uplink transmission grant. - the UE determining whether an uplink packet to be transmitted is delay tolerant; and - the UE delaying, when the uplink packet is regarded as delay tolerant, a request for an uplink transmission grant for the uplink packet until a DRX ON period of the UE, - temporarily storing (S2-1B) the uplink packet in the packet pre-buffer; - transferring (S2-2B) the uplink packet from the packet pre-buffer into the primary packet buffer when the UE is in the DRX ON period,
A bag having a front wall and a back wall arranged parallel to the front wall, a bottom that can be folded into the plane of the walls (11, 12), such that a filling space results that is open on one side, and a pair of carrying handles, that is fastened to the front wall and the back wall, wherein the pair of carrying handles can be brought into a usage position and into a rest position, wherein in the rest position the pair of carrying handles is entirely folded back inside the filling space and in the usage position the pair of carrying handles protrudes at least in certain areas from the filling space, wherein the pair of carrying handles has a folding line, which is arranged in the usage position in the filling space, wherein the pair of carrying handles has two handles (32, 33), which are fastened inside the filling space to the front wall and the back wall, wherein one handle (32, 33) is fastened to the inside of the front wall and the further handle (32, 33) is fastened to the inside of the back wall, characterized in that each handle (32, 33) is a part of a carrier element, that is fastened to the inside of the front wall or to the inside of the back wall and is preferably designed as a slip of paper, wherein at least one handle (32, 33), that can be folded out, is integrated on the carrier element.
Electric motor support comprising at least three separate portions: - a mounting portion for mounting on a combustion engine, - a fastening portion for fastening an electric motor, - a portion forming an integrated fluid-circulation conduit. - a mounting portion for mounting on a combustion engine, - a fastening portion for fastening an electric motor, - a portion forming an integrated fluid-circulation conduit.
Autonomously guided industrial truck having a length direction and a width direction, comprising: - a vehicle body comprising at least one steered drive wheel; and - a load part (10; 200) that is arranged so as to be vertically displaceable, comprising: o a pair of fork arms (12a, 12b) which extend substantially horizontally and are arranged side-by-side in the width direction; or o a monofork which extends substantially horizontally and comprises two extension portions (212a, 212b) and a connecting portion, and o a load stop (14; 214) which is connected to the pair of fork arms (12a, 12b) or the two extension portions (212a, 212b) and extends substantially in the vertical direction above the fork arms (12a, 12b) or the monofork, the load stop (14; 214) having a cutout (22a, 22b; 222a, 222b) neighbouring the corresponding fork arm (12a, 12b) or extension portion (212a, 212b), on at least one of its outer sides, in the width direction, characterised in that it comprises a scanner unit on at least one side and preferably in a symmetrical arrangement on both sides in the width direction, which scanner unit has a substantially horizontally oriented scanning plane, in a fully lowered state of the load part (10; 200) the at least one cutout thereof being located at the vertical height of the scanning plane. - a vehicle body comprising at least one steered drive wheel; and - a load part (10; 200) that is arranged so as to be vertically displaceable, comprising: o a pair of fork arms (12a, 12b) which extend substantially horizontally and are arranged side-by-side in the width direction; or o a monofork which extends substantially horizontally and comprises two extension portions (212a, 212b) and a connecting portion, and o a load stop (14; 214) which is connected to the pair of fork arms (12a, 12b) or the two extension portions (212a, 212b) and extends substantially in the vertical direction above the fork arms (12a, 12b) or the monofork, the load stop (14; 214) having a cutout (22a, 22b; 222a, 222b) neighbouring the corresponding fork arm (12a, 12b) or extension portion (212a, 212b), on at least one of its outer sides, in the width direction, o a pair of fork arms (12a, 12b) which extend substantially horizontally and are arranged side-by-side in the width direction; or o a monofork which extends substantially horizontally and comprises two extension portions (212a, 212b) and a connecting portion, and o a load stop (14; 214) which is connected to the pair of fork arms (12a, 12b) or the two extension portions (212a, 212b) and extends substantially in the vertical direction above the fork arms (12a, 12b) or the monofork,
A synchronous electrical motor comprising: - a rotor with a DC field winding, - an exciter configured to energize the DC field winding by generating a DC current in a first direction across the DC field winding when activated, and - a control system configured to control a current flow across the DC field winding, the control system comprising a field discharge resistor and a by-passing circuitry configured to implement a first by-passing to electrically by-pass the field discharge resistor during a current flow in the first direction across the DC field winding, and to implement a second by-passing to electrically by-pass the field discharge resistor during a current flow in a second direction across the DC field winding, the second direction being opposite to the first direction, characterized in that the control system is configured to direct all the DC current generated by the exciter to flow across the DC field winding, wherein the by-passing circuitry is configured to implement the first by-passing and the second by-passing in response to a frequency or to an amplitude of a voltage induced in the DC field winding or the by-passing circuitry is configured to implement the first by-passing and the second by-passing in response to rotating speed of the rotor. - a rotor with a DC field winding, - an exciter configured to energize the DC field winding by generating a DC current in a first direction across the DC field winding when activated, and - a control system configured to control a current flow across the DC field winding, the control system comprising a field discharge resistor and a by-passing circuitry configured to implement a first by-passing to electrically by-pass the field discharge resistor during a current flow in the first direction across the DC field winding, and to implement a second by-passing to electrically by-pass the field discharge resistor during a current flow in a second direction across the DC field winding, the second direction being opposite to the first direction,
A battery module, comprising: a plurality of battery cells; and a module case accommodating the plurality of battery cells, wherein the module case includes: an upper plate positioned on the plurality of battery cells and a lower plate positioned below the plurality of battery cells, each having a channel in which a coolant flows, characterized in that the upper plate and the lower plate include a melting spot which melts when heated in a first plate in contact with the plurality of battery cells, and in that the upper plate includes a vent hole and a first sealing cap in a second plate which faces the first plate, the vent hole through which gas is forced out, and the first sealing cap configured to seal the vent hole and made of a thermomeltable material. a plurality of battery cells; and a module case accommodating the plurality of battery cells, wherein the module case includes: an upper plate positioned on the plurality of battery cells and a lower plate positioned below the plurality of battery cells, each having a channel in which a coolant flows, characterized in that the upper plate and the lower plate include a melting spot which melts when heated in a first plate in contact with the plurality of battery cells, and in that the upper plate includes a vent hole and a first sealing cap in a second plate which faces the first plate, the vent hole through which gas is forced out, and the first sealing cap configured to seal the vent hole and made of a thermomeltable material. an upper plate positioned on the plurality of battery cells and a lower plate positioned below the plurality of battery cells, each having a channel in which a coolant flows, characterized in that the upper plate and the lower plate include a melting spot which melts when heated in a first plate in contact with the plurality of battery cells, and in that the upper plate includes a vent hole and a first sealing cap in a second plate which faces the first plate, the vent hole through which gas is forced out, and the first sealing cap configured to seal the vent hole and made of a thermomeltable material.