mhurhangee/ep-ind-claims huggingface dataset:
A battery pack, the battery pack including a bus bar (42; 511, 512, 521, 522, 523, 524, 525, 531, 532, 533, 534, 535, 541, 542, 543, 544, 545, 551, 552, 553, 554, 555, 561, 562, 563, 564, 565, 571, 572) provided so as to extend in a predetermined direction and including a first region, a second region and an intermediate region located between the first region and the second region, a first module including a plurality of cells each including a negative electrode terminal connected to the first region, and a second module including a plurality of cells each including a positive electrode terminal connected to the second region, wherein: the negative electrode terminals of the plurality of cells included in the first module are arranged in the predetermined direction in the first region; the positive electrode terminals of the plurality of cells included in the second module are arranged in the predetermined direction in the second region; and in a cross section perpendicular to the predetermined direction, a cross-sectional area of the intermediate region is greater than a cross-sectional area of at least a part of the first region and is greater than a cross-sectional area of at least a part of the second region, characterized in that the bus bar (42; 52) includes a plurality of bus bar plates (421, 422, 423; 521, 522, 523, 524, 525) stacked in a direction of the cross section perpendicular to the predetermined direction; and the number of the plurality of bus bar plates (421, 422, 423; 523) in the intermediate region is greater than the number of the plurality of bus bar plates (421, 422; 521, 522) in the first region and is greater than the number of the plurality of bus bar plates (421, 422; 524, 525) in the second region. the negative electrode terminals of the plurality of cells included in the first module are arranged in the predetermined direction in the first region; the positive electrode terminals of the plurality of cells included in the second module are arranged in the predetermined direction in the second region; and in a cross section perpendicular to the predetermined direction, a cross-sectional area of the intermediate region is greater than a cross-sectional area of at least a part of the first region and is greater than a cross-sectional area of at least a part of the second region, characterized in that the bus bar (42; 52) includes a plurality of bus bar plates (421, 422, 423; 521, 522, 523, 524, 525) stacked in a direction of the cross section perpendicular to the predetermined direction; and the number of the plurality of bus bar plates (421, 422, 423; 523) in the intermediate region is greater than the number of the plurality of bus bar plates (421, 422; 521, 522) in the first region and is greater than the number of the plurality of bus bar plates (421, 422; 524, 525) in the second region.
A loudspeaker chassis assembly comprising a loudspeaker chassis and a plurality of mass damping elements, each mass damping element including a mass element and a resilient portion configured and arranged for movement of the mass element relative to the chassis, wherein vibration of the chassis is damped by means of said plurality of mass damping elements dissipating kinetic energy.
A position detection apparatus that detects a position of a lens on a plane orthogonal to an optical axis direction of the lens to detect a position for optical image stabilization, and detects a position of the lens in the optical axis direction to detect a position for autofocus, the position detection apparatus comprising: a magnet configured to move in the optical axis direction and in an in-plane direction orthogonal to the optical axis as the lens moves; a first position sensor for the autofocus configured to sense a magnetic field to be changed according to the movement of the magnet in the optical axis direction to detect the position of the lens in the optical axis direction for autofocus; and a second position sensor for the optical image stabilization; characterized in that said second position sensor is configured to sense a magnetic field to be changed according to the movement of said magnet in the plane orthogonal to the optical axis direction to detect the position of the lens on the plane orthogonal to the optical axis direction for optical image stabilization. a magnet configured to move in the optical axis direction and in an in-plane direction orthogonal to the optical axis as the lens moves; a first position sensor for the autofocus configured to sense a magnetic field to be changed according to the movement of the magnet in the optical axis direction to detect the position of the lens in the optical axis direction for autofocus; and a second position sensor for the optical image stabilization; characterized in that said second position sensor is configured to sense a magnetic field to be changed according to the movement of said magnet in the plane orthogonal to the optical axis direction to detect the position of the lens on the plane orthogonal to the optical axis direction for optical image stabilization.
A method of coating, comprising: applying a metallic coating slurry without a filler to a component; draining the metallic coating slurry; drying the metallic coating slurry to drive off an organic binder; and heat treating the component; wherein the metallic coating slurry comprises by weight: 48.5-68% chromium powder, 0.9-3.4% chromium chloride particles and 30-50% organic binder. applying a metallic coating slurry without a filler to a component; draining the metallic coating slurry; drying the metallic coating slurry to drive off an organic binder; and
A receiver assembly of a frequency modulated continuous wave coherent altimeter comprising: a mixer having a first mixer input coupled to a first path, a second mixer input coupled to a second path and a mixer output coupled to an output path, the first path coupled to receive a return signal detected by an antenna; a controller to generate baseband frames and track each ramp direction; a local oscillator coupled to output an oscillator signal based on the baseband frames on the second path; a phase selector within the second path to selectively change a phase of the oscillator signal between two or more distinct values; a phase selector control configured to control the change of the phase of the phase selector; an analog-to-digital converter coupled to the output path, the phase selector control being synchronized to a baseband frame timing that dictates when the analog-to-digital converter collects signal samples from the output of the mixer; a digital signal processor to process an output of the analog-to-digital converter using the ramp direction and phase settings; and an altitude processor coupled to receive an output of the digital signal processor, the altitude processor configured to determine altitude information. a mixer having a first mixer input coupled to a first path, a second mixer input coupled to a second path and a mixer output coupled to an output path, the first path coupled to receive a return signal detected by an antenna; a controller to generate baseband frames and track each ramp direction; a local oscillator coupled to output an oscillator signal based on the baseband frames on the second path; a phase selector within the second path to selectively change a phase of the oscillator signal between two or more distinct values; a phase selector control configured to control the change of the phase of the phase selector; an analog-to-digital converter coupled to the output path, the phase selector control being synchronized to a baseband frame timing that dictates when the analog-to-digital converter collects signal samples from the output of the mixer; a digital signal processor to process an output of the analog-to-digital converter using the ramp direction and phase settings; and an altitude processor coupled to receive an output of the digital signal processor, the altitude processor configured to determine altitude information.
Saddle stitcher for collating signatures (16, 18, 20) consisting of paper, cardboard and the like, stitching the collated signatures, and delivering the stitched signatures, comprising a collating line, a stitching station, and a delivery station, wherein the stitching station has a stitching carriage with at least one stitching head and during the stitching operation the stitching carriage [sic] is moved at the same speed as the collated signatures by a stitching carriage drive, characterized in that a switch unit is arranged between stitching carriage drive and stitching carriage to adapt the motion of the stitching carriage to the distance (G, K) between collated signatures entering the stitching station and ensuing collated signatures, and to adapt the position of the stitching carriage relative to the delivery station.
A water jet spray nozzle having a flow path including, from an upstream side to an end of the flow path, a small-diameter portion having a smaller inside diameter than the flow path upstream of the small-diameter portion, an expanded portion having a larger inside diameter than the small-diameter portion, and a jet orifice having a smaller inside diameter than the expanded portion characterized in that, the water jet spray nozzle being configured such that water passing through the flow path with a predetermined pressure is retained in the expanded portion so as to generate cavitation bubbles from the small-diameter portion to the expanded portion; and the inside diameter of the jet orifice is 1 to 1.3 times larger than the inside diameter of the small-diameter portion; and the inside diameter of the small-diameter portion is 0.2 to 1.0 mm.
An air filter for heavy dust conditions comprising: a housing; a permeable filter; and a scavenger system, said scavenger system disposes of particles collected on the upstream surface of said permeable filter, characterized by said scavenger system further comprising: an air suction source; and a shutter, said shutter is positioned substantially along said permeable filter, at a certain distance from a wall of said housing, said air suction source draws air from a collecting space formed between said shutter and said wall, wherein said shutter being selectively operated to permit or restrict passage there-through, and wherein said air suction source efficiently operates to scavenge particles from said collecting space, when the passage through said shutter is at least partially restricted.
Valve device with a pressure-reducing function, consisting of at least - one logic valve, - one stop valve, and - one pressure-reducing valve, wherein the inlet of the logic valve can be connected to a pressure supply source, characterised in that the outlet (V1.2) of the logic valve and the outlet (V3.1) of the pressure-reducing valve are jointly connected to a service or user connection of the valve device and in that the stop valve with its inlet (V2.1) is connected to the inlet (VI.1) of the logic valve and to a control side (V1.3) of said valve and with its outlet (V2.2) to an inlet (V3.2) of the pressure-reducing valve. - one logic valve, - one stop valve, and - one pressure-reducing valve,
A tape feeder comprising: a tape feeding device configured to feed component supply tape to a component pickup position, the component supply tape having cover tape joined to a top surface thereof; and a cover tape peeling member (41, 42) configured to peel at least a portion of the cover tape from the upper surface of the component supply tape at a position forward of the component pickup position in accordance with feeding operation of the component supply tape, such that a component inside the component supply tape is exposed, wherein the cover tape peeling member (41, 42) is exchangeably attached to the tape feeder, and is configured from a half peeling cover tape peeling member for peeling only one side of a joining section (34a, 34b) out of both sides of the joining section (34a, 34b) of the cover tape and folding the cover tape from one side such that the component inside the component supply tape is exposed, and a full peeling cover tape peeling member for peeling both sides of the joining section (34a, 34b) of the cover tape and folding the cover tape over from a front end of the cover tape such that the component inside the component supply tape is exposed; characterized in that: the half peeling cover tape peeling member has a settable tape width, different to that of the full peeling cover tape peeling member by removably inserting a tape path forming member into a tape path of the tape feeder. a tape feeding device configured to feed component supply tape to a component pickup position, the component supply tape having cover tape joined to a top surface thereof; and a cover tape peeling member (41, 42) configured to peel at least a portion of the cover tape from the upper surface of the component supply tape at a position forward of the component pickup position in accordance with feeding operation of the component supply tape, such that a component inside the component supply tape is exposed, wherein the cover tape peeling member (41, 42) is exchangeably attached to the tape feeder, and is configured from a half peeling cover tape peeling member for peeling only one side of a joining section (34a, 34b) out of both sides of the joining section (34a, 34b) of the cover tape and folding the cover tape from one side such that the component inside the component supply tape is exposed, and a full peeling cover tape peeling member for peeling both sides of the joining section (34a, 34b) of the cover tape and folding the cover tape over from a front end of the cover tape such that the component inside the component supply tape is exposed; characterized in that: the half peeling cover tape peeling member has a settable tape width, different to that of the full peeling cover tape peeling member by removably inserting a tape path forming member into a tape path of the tape feeder.
A sleeve for glass tube molding comprising: a sleeve shaft including a through-hole; a refractory cylindrical body provided coaxially with the sleeve shaft around the sleeve shaft; and a pipe member having a hollow shape and made of a superior rust-resistant material having rust resistance superior to that of the sleeve shaft, wherein the pipe member includes a main body having a cylindrical shape and a tapered unit that is provided at one end of the main body and includes an outer circumferential surface in which a diameter increases toward one end side of the pipe member, the through-hole of the sleeve shaft includes an insertion unit in which the main body of the pipe member is inserted and an abutment unit that communicates with the insertion unit at one end of the through-hole, has a tapered shape and abuts on the outer circumferential surface of the tapered unit, and a part or whole of an inner surface of the through-hole of the sleeve shaft is covered with by inserting the pipe member into the through-hole of the sleeve shaft. a sleeve shaft including a through-hole; a refractory cylindrical body provided coaxially with the sleeve shaft around the sleeve shaft; and a pipe member having a hollow shape and made of a superior rust-resistant material having rust resistance superior to that of the sleeve shaft, wherein the pipe member includes a main body having a cylindrical shape and a tapered unit that is provided at one end of the main body and includes an outer circumferential surface in which a diameter increases toward one end side of the pipe member, the through-hole of the sleeve shaft includes an insertion unit in which the main body of the pipe member is inserted and an abutment unit that communicates with the insertion unit at one end of the through-hole, has a tapered shape and abuts on the outer circumferential surface of the tapered unit, and a part or whole of an inner surface of the through-hole of the sleeve shaft is covered with by inserting the pipe member into the through-hole of the sleeve shaft.
Method for controlling a hydraulic transmission of an agricultural vehicle or of an earth-moving machine, in which the hydraulic transmission is of the series type, wherein a vehicle wheel is connected to a hydraulic motor wherein a hydraulic pump with variable displacement is arranged to power said hydraulic motor, wherein the displacement of the hydraulic pump is arranged to be controlled as a function of a rotation speed of a prime mover connected to the hydraulic pump, the method being characterized in that said function is manipulated in such a way as to include a first linear trend and a second linear trend, connected by means of an intermediate curve, defined in an interval of rotation speed of the prime mover having - a lower end corresponding to the stop (STOP) of the vehicle from a dynamic condition and - an upper end corresponding to the start (START) of the vehicle from a static condition, and wherein said joining curve identifies an increase in the displacement of the hydraulic pump with a slope greater than the first and second linear trends. - a lower end corresponding to the stop (STOP) of the vehicle from a dynamic condition and - an upper end corresponding to the start (START) of the vehicle from a static condition,
A hollow polymeric fiber comprising a tetragonal shape sectional area, wherein: - the four corner points form essentially a square, - all four edges are concave or straight, - the fiber has a cross sectional area hollowness ranging from 12 to 25 %, - the fiber has a titer in the range of from 4 to 16 dtex. - the four corner points form essentially a square, - all four edges are concave or straight, - the fiber has a cross sectional area hollowness ranging from 12 to 25 %, - the fiber has a titer in the range of from 4 to 16 dtex.
A vacuum pump that exhausts gas by rotation of a rotating body, the vacuum pump comprising: an exhaust flow path for exhausting the gas; and a heating means for heating the exhaust flow path, wherein the heating means includes a plurality of resistance heating elements connected in parallel to a pair of wiring lines (WL1, WL2), the plurality of resistance heating elements are arranged at intervals around the rotating body, characterized in that each of the plurality of resistance heating elements has respective connectors which can be attached to and detached from the pair of wiring lines (WL1, WL2), and the pair of wiring lines (WL1, WL2) and the plurality of resistance heating elements are coupled by the respective connectors. an exhaust flow path for exhausting the gas; and a heating means for heating the exhaust flow path, wherein the heating means includes a plurality of resistance heating elements connected in parallel to a pair of wiring lines (WL1, WL2), the plurality of resistance heating elements are arranged at intervals around the rotating body, characterized in that each of the plurality of resistance heating elements has respective connectors which can be attached to and detached from the pair of wiring lines (WL1, WL2), and the pair of wiring lines (WL1, WL2) and the plurality of resistance heating elements are coupled by the respective connectors.
A module for producing in particular a fence, said module including a post (1, 10) with axis X, a panel, means for assembling the panel to the post (1, 10), as well as means for assembling the module to another module, said post (1, 10) being equipped with at least one housing delimited by a bottom extending in a plane parallel to the axis X and two opposite side walls (31, 32), said means for assembling the panel to the post (1, 10) including a profile designed to be capable of extending between said side walls (31, 32) in order to close said housing, said profile having an outer face provided with means for securing said panel, said module being characterized in that the profile is mounted translatable in said housing along an axis Y perpendicular to the axis X.
A method of notifying cell switching information, comprising: a source base station selecting one optimum cell at each frequency to form an optimum cell list and arranging cells in an optimum cell list in descending order according to a predefined signal quality, wherein the predefined signal quality includes one of reference signal received power and reference signal received quality; and the source base station notifying a target base station of the optimum cell list; wherein the cells in the optimum cell list are candidate secondary cells; wherein the signal quality of each cell in the optimum cell list meets a predefined condition, and the predefined condition includes: the predefined signal quality of a candidate secondary cell Scell ≧ the predefined signal quality of a target Primary cell identified by the source base station - a predefined offset; wherein service cell on a Down Link primary component carrier is called as primary cell, and the service cell on a Down Link secondary component carrier is called as secondary cell. a source base station selecting one optimum cell at each frequency to form an optimum cell list and arranging cells in an optimum cell list in descending order according to a predefined signal quality, wherein the predefined signal quality includes one of reference signal received power and reference signal received quality; and the source base station notifying a target base station of the optimum cell list; wherein the cells in the optimum cell list are candidate secondary cells; wherein the signal quality of each cell in the optimum cell list meets a predefined condition, and the predefined condition includes: the predefined signal quality of a candidate secondary cell Scell ≧ the predefined signal quality of a target Primary cell identified by the source base station - a predefined offset; wherein service cell on a Down Link primary component carrier is called as primary cell, and the service cell on a Down Link secondary component carrier is called as secondary cell.
A method of performing a handover of a user equipment from a source cell to a target cell, wherein the user equipment is adapted for receiving and/or transmitting data simultaneously on two or more aggregated component carriers, the method comprising receiving an RRC connection reconfiguration message from the source cell on the random access channel of the source cell, said message comprising linking information, said linking information indicating one of the aggregated component carriers for the uplink of the target cell and one of the aggregated component carriers for the downlink of the target cell.