mhurhangee/ep-ind-claims huggingface dataset:
A rechargeable battery pack, comprising: a plurality of cell modules connected to each other via bus bars, each cell module including a plurality unit cells with electrode terminals connected to the bus bars; a plurality of spacers between the cell modules; first and second plates (41, 42) coupled to opposite sides of the spacers, the first and second plates (41, 42) being configured to support the cell modules therebetween; and flow paths between the unit cells in a length direction of the unit cells, the flow paths being between side surfaces of the spacers and side surfaces of the unit cells, and being further partially set by sides of the bus bars, and characterized in that the bus bar includes: cell connection parts extended in a direction intersecting with the length direction and connecting the electrode terminals of the cell module in two rows; and module connection parts protruding toward one side of the cell connection part and intersecting the cell connection part to connect an adjacent cell connection part, wherein the cell connection part includes through-holes in spaces corresponding to spaces between the unit cells, wherein the bus bar includes retraction grooves defining spaces corresponding to spaces between two unit cells adjacent to each other. a plurality of cell modules connected to each other via bus bars, each cell module including a plurality unit cells with electrode terminals connected to the bus bars; a plurality of spacers between the cell modules; first and second plates (41, 42) coupled to opposite sides of the spacers, the first and second plates (41, 42) being configured to support the cell modules therebetween; and flow paths between the unit cells in a length direction of the unit cells, the flow paths being between side surfaces of the spacers and side surfaces of the unit cells, and being further partially set by sides of the bus bars, and characterized in that the bus bar includes: cell connection parts extended in a direction intersecting with the length direction and connecting the electrode terminals of the cell module in two rows; and module connection parts protruding toward one side of the cell connection part and intersecting the cell connection part to connect an adjacent cell connection part, cell connection parts extended in a direction intersecting with the length direction and connecting the electrode terminals of the cell module in two rows; and module connection parts protruding toward one side of the cell connection part and intersecting the cell connection part to connect an adjacent cell connection part,
A display device comprising: an image processor configured to detect a face candidate region from input content, based on information associated with at least one preset face color region, to detect a face region by applying a face detection algorithm to the detected face candidate region and to perform skin color correction on the detected face region; and a display unit configured to display the corrected input content; wherein the image processor is configured to divide the input content according to a plurality of preset color regions and the color regions comprise a skin color region; wherein the image processor is configured to divide the input content into a plurality of regions corresponding to the color regions and detects, as the face candidate region, one of the divided regions corresponding to the face color region; wherein the image processor is configured to correct colors of the divided regions other than the face region to respective preset target colors; characterised in that: a target color is defined for each of the preset color region and the image processor is configured to correct a color of a region of the input content to a target color which is defined for the preset color region having higher priority when the color of the region of the input content belongs to two or more preset color regions that overlap each other. an image processor configured to detect a face candidate region from input content, based on information associated with at least one preset face color region, to detect a face region by applying a face detection algorithm to the detected face candidate region and to perform skin color correction on the detected face region; and a display unit configured to display the corrected input content; wherein the image processor is configured to divide the input content according to a plurality of preset color regions and the color regions comprise a skin color region; wherein the image processor is configured to divide the input content into a plurality of regions corresponding to the color regions and detects, as the face candidate region, one of the divided regions corresponding to the face color region; wherein the image processor is configured to correct colors of the divided regions other than the face region to respective preset target colors; characterised in that: a target color is defined for each of the preset color region and the image processor is configured to correct a color of a region of the input content to a target color which is defined for the preset color region having higher priority when the color of the region of the input content belongs to two or more preset color regions that overlap each other.
Thermoplastic polymer body with a surface structure that contains in a smooth surface a regular pattern of micro-scale or smaller pillars (4, 5, 9, 10), wherein the regular pattern of micro-scale or smaller pillars comprises two types of pillars (4, 5, 9, 10) that differ in height and cross-section, wherein all neighboring pillars (4, 5, 9, 10) are separated by a separation distance d ≤ 1 μm, wherein the pillars are prisms (9, 10) having a rectangular cross-section, characterised in that a cross-section ratio C 1 /C 2 between prisms of a first type with a height H 1 and prisms of a second type with a height H 2 is above 50.
A light emitting device comprising: a light emitting structure comprising a first conductivity type semiconductor layer, an active layer and a second conductivity type semiconductor layer; a first electrode disposed on the first conductivity type semiconductor layer; an ohmic layer disposed on a predetermined area of the second conductivity type semiconductor layer, with partially exposing the second conductivity type semiconductor layer; a reflection layer disposed on the ohmic layer; a silicide layer disposed on the reflection layer and the partially exposed second conductivity type semiconductor layer and a conductive supporting substrate disposed on the silicide layer, wherein the silicide layer is covering the ohmic layer and the reflection layer, wherein the reflection layer is disposed between the ohmic layer and the silicide layer, wherein a current blocking layer is disposed between the second conductivity type semiconductor layer and the silicide layer, and in that the ohmic layer and the reflection layer are disposed on the second conductivity type semiconductor layer, characterized in that the ohmic layer and the reflection layer are further disposed on the current blocking layer. a light emitting structure comprising a first conductivity type semiconductor layer, an active layer and a second conductivity type semiconductor layer; a first electrode disposed on the first conductivity type semiconductor layer; an ohmic layer disposed on a predetermined area of the second conductivity type semiconductor layer, with partially exposing the second conductivity type semiconductor layer; a reflection layer disposed on the ohmic layer; a silicide layer disposed on the reflection layer and the partially exposed second conductivity type semiconductor layer and a conductive supporting substrate disposed on the silicide layer, wherein the silicide layer is covering the ohmic layer and the reflection layer, wherein the reflection layer is disposed between the ohmic layer and the silicide layer, wherein a current blocking layer is disposed between the second conductivity type semiconductor layer and the silicide layer, and in that the ohmic layer and the reflection layer are disposed on the second conductivity type semiconductor layer, characterized in that the ohmic layer and the reflection layer are further disposed on the current blocking layer.
Device for producing biocompatible nanomaterials, comprising a chamber having at least one opening, the opening being sealed with a filter, and the opening being arranged in one of the side walls of the chamber such that an end volume is formed between the opening and the floor of the chamber, and further comprising a first inlet for introducing a liquid into the chamber and a second inlet for introducing a gas into the chamber.
An apparatus for wirelessly charging a receiver comprising: a coil with a plurality of taps (15, 17), each of said taps (15, 17) defining a respective portion of said coil; a plurality of switches (19, 21, 23), each of said switches (19, 21, 23) being connected to a respective tap; characterized by a plurality of transmitters (31, 33, 35), each of said transmitters (31, 33, 35) being connectable to a respective tap by closing said respective switch; a controller adapted to: (i) close a selected switch; (ii) choose a respective transmitter and cause said transmitter to transmit charging energy through said selected switch and thereby energize said respective portion of said coil; (iii) cause said respective transmitter to transmit a modulated communication signal.
A method of updating a selected portion of text, comprising: displaying a first widget marking a first boundary of a selected first portion of text displayed on the screen; displaying a second widget marking a second boundary of the first portion; displaying an extended area including user interface, UI, controls (218, 220, 222) corresponding to the first widget; and updating, based on a selection of a UI control (218, 220, 222) corresponding to the first widget, a location of the first widget to indicate an updated selection of a second portion of text displayed on the screen, the second portion of text disposed between the first and second widgets (206, 208). displaying a first widget marking a first boundary of a selected first portion of text displayed on the screen; displaying a second widget marking a second boundary of the first portion; displaying an extended area including user interface, UI, controls (218, 220, 222) corresponding to the first widget; and updating, based on a selection of a UI control (218, 220, 222) corresponding to the first widget, a location of the first widget to indicate an updated selection of a second portion of text displayed on the screen, the second portion of text disposed between the first and second widgets (206, 208).
A system for identifying magnetizing inductance of an induction machine, the system comprising: an induction machine comprising a rotor and a stator; a DC voltage bus; a DC-to-AC voltage inverter coupled to the DC voltage bus and to the induction machine; and a controller configured to: cause the DC-to-AC voltage inverter to apply a square-wave excitation to a plurality of phases (A, B, C) of the induction machine and, in so doing, determine a rated stator current response curve; determine a stator resistance of the stator of the induction machine based on the square-wave excitation; determine a rotor resistance of the rotor of the induction machine based on the square-wave excitation; calculate a magnetizing curve for the induction machine based on the stator and rotor resistances; and control the induction machine to operate based on the magnetizing curve. an induction machine comprising a rotor and a stator; a DC voltage bus; a DC-to-AC voltage inverter coupled to the DC voltage bus and to the induction machine; and a controller configured to: cause the DC-to-AC voltage inverter to apply a square-wave excitation to a plurality of phases (A, B, C) of the induction machine and, in so doing, determine a rated stator current response curve; determine a stator resistance of the stator of the induction machine based on the square-wave excitation; determine a rotor resistance of the rotor of the induction machine based on the square-wave excitation; calculate a magnetizing curve for the induction machine based on the stator and rotor resistances; and control the induction machine to operate based on the magnetizing curve. cause the DC-to-AC voltage inverter to apply a square-wave excitation to a plurality of phases (A, B, C) of the induction machine and, in so doing, determine a rated stator current response curve; determine a stator resistance of the stator of the induction machine based on the square-wave excitation; determine a rotor resistance of the rotor of the induction machine based on the square-wave excitation; calculate a magnetizing curve for the induction machine based on the stator and rotor resistances; and control the induction machine to operate based on the magnetizing curve.
A reference signal transmission method, comprising: determining (S310, S320) a resource block offset of a frequency domain position of a phase tracking reference signal, PTRS, based on a frequency domain density of the PTRS, an identifier of a terminal device, and a first bandwidth when a ratio of the first bandwidth to the frequency domain density of the PTRS is a non-integer; wherein the first bandwidth is a bandwidth scheduled by a network device for the terminal device; and sending or receiving the PTRS based on the resource block offset of the frequency domain position of the PTRS; wherein the resource block offset of the frequency domain position of the PTRS, the frequency domain density of the PTRS, the first bandwidth and the identifier of the terminal device meet following relation: Δ f = ID UE mod BW 1 mod FD step, wherein: FD step is the frequency domain density of the PTRS, BW 1 is the first bandwidth, ID UE is the identifier of the terminal device, Δf is the resource block offset of the frequency domain position of the PTRS. determining (S310, S320) a resource block offset of a frequency domain position of a phase tracking reference signal, PTRS, based on a frequency domain density of the PTRS, an identifier of a terminal device, and a first bandwidth when a ratio of the first bandwidth to the frequency domain density of the PTRS is a non-integer; wherein the first bandwidth is a bandwidth scheduled by a network device for the terminal device; and sending or receiving the PTRS based on the resource block offset of the frequency domain position of the PTRS; wherein the resource block offset of the frequency domain position of the PTRS, the frequency domain density of the PTRS, the first bandwidth and the identifier of the terminal device meet following relation: Δ f = ID UE mod BW 1 mod FD step, wherein: FD step is the frequency domain density of the PTRS, BW 1 is the first bandwidth, ID UE is the identifier of the terminal device, Δf is the resource block offset of the frequency domain position of the PTRS.
Method for producing a custom-made liner for a prosthesis, comprising the following steps: (a) providing a mold of an end of a limb of an individual intended for receiving said prosthesis; (b) providing a preform of an elastomer material, said preform comprising an open proximal end and a closed distal end; (c) placing said preform on the mold; (d) placing, on said preform, at least one element from among a polymer reinforcement, a layer of an anti-elongation fabric, a distal cup and an air drainage casing; (e) placing a vacuum tank around the preform; (f) creating a vacuum and injecting a polymer which can be cross-linked at room temperature into said vacuum tank so as to form a coating of uniform thickness on the preform and each element placed on said preform. (a) providing a mold of an end of a limb of an individual intended for receiving said prosthesis; (b) providing a preform of an elastomer material, said preform comprising an open proximal end and a closed distal end; (c) placing said preform on the mold; (d) placing, on said preform, at least one element from among a polymer reinforcement, a layer of an anti-elongation fabric, a distal cup and an air drainage casing; (e) placing a vacuum tank around the preform; (f) creating a vacuum and injecting a polymer which can be cross-linked at room temperature into said vacuum tank so as to form a coating of uniform thickness on the preform and each element placed on said preform.
An apparatus comprising: a receiving section configured to receive downlink control information, DCI, that is detected in at least one of a plurality of candidate resources for a downlink, DL, control channel; a control section configured to determine that a DL data channel is mapped to a candidate resource, in which the DCI is not detected out of the plurality of candidate resources, when the candidate resource is in resource blocks assigned to the DL data channel; a received signal processing section configured to perform output to the control section based on a DL data signal in the DL data channel; and an output apparatus, connected to the control section, configured to perform external output. a receiving section configured to receive downlink control information, DCI, that is detected in at least one of a plurality of candidate resources for a downlink, DL, control channel; a control section configured to determine that a DL data channel is mapped to a candidate resource, in which the DCI is not detected out of the plurality of candidate resources, when the candidate resource is in resource blocks assigned to the DL data channel; a received signal processing section configured to perform output to the control section based on a DL data signal in the DL data channel; and
A Ag alloy sputtering target having a composition comprising: one or more elements selected from Cu, Sn, Sb, Mg, In, and Ti in a range of 0.1 atomic % or more and 15.0 atomic % or less in total; S in a range of 0.5 atomic ppm or more and 200 atomic ppm or less; and a Ag balance including inevitable impurities. one or more elements selected from Cu, Sn, Sb, Mg, In, and Ti in a range of 0.1 atomic % or more and 15.0 atomic % or less in total; S in a range of 0.5 atomic ppm or more and 200 atomic ppm or less; and a Ag balance including inevitable impurities.
Medical implant with a wall which comprises a lattice structure which is convertable from a compressed into an expanded state and is formed of first webs, wherein the lattice structure comprises closed cells each with a holding element which is adapted for anchoring the expanded lattice structure in a vessel, and at least two other webs (15, 16), which on the one hand are connected to each other and form a tip which projects into the cells, and on the other hand are connected with the first webs of the cell, and wherein the first webs of the lattice structure are connected to the second webs (15, 16) of the holding element in each case between two connectors axially delimiting the first webs of the lattice structure.
A circular nucleic acid probe for detecting a target nucleic acid, which probe has a closed circular structure or has or is able to adopt an open circular structure and comprises at least one target-complementary sequence which is capable of hybridising to a target nucleic acid, and one or more nucleic acid sequences or reactive chemical groups having endonuclease activity which are able to cleave the target nucleic acid, wherein the one or more nucleic acid sequences or reactive chemical groups having endonuclease activity is positioned internally in the target complementary sequence, dividing it into two or more parts.
Wind turbine blade having a longitudinal direction and including a shell structure made of a fibre-reinforced polymer material including a polymer matrix and reinforcement material comprising a plurality of carbon fibre layers (16, 17, 19) embedded in the polymer matrix wherein at least a portion of the shell structure is formed of a laminate comprising at least one metal filament layer (15; 18) comprising metal filaments and being sandwiched between two carbon fibre layers (16, 17, 19) comprising carbon fibres only, the carbon fibre layers (16, 17, 19) being contiguous with the metal filament layer (15; 18), characterised in that the metal filaments are arranged substantially unidirectional in the longitudinal direction of the wind turbine blade.
A strip of curable prepreg slit from a sheet of prepreg comprising a polymeric sheet on an outer face of the sheet of prepreg, the fibres being at least partially impregnated with curable thermosetting resin and comprising a polymeric sheet on an outer face of the strip, the strip having a substantially rectangular cross-section defining a width and a thickness of the strip, the difference between the maximum width and the minimum width along the length of the strip being less than 0.25 mm, preferably less than 0.20 mm and more preferably less than 0.125mm, and wherein the strip following winding and/or unwinding from a spool or bobbin has a difference between the maximum width and the minimum width along the length of the strip of less than 0.25 mm, preferably less than 0.20 mm and more preferably less than 0.125mm, characterized in that said strip comprises unidirectional fibres aligned along the length of the strip.
A method for initiating a beam sweep procedure, the method being performed by a radio transceiver device, the method comprising: initiating, for a candidate beam set, a beam sweep procedure for communication with another radio transceiver device, each beam in the candidate beam set has an associated angular spread value, wherein the angular spread value for a given beam in the candidate beam set is determined from a channel property of the physical radio propagation channel as experienced in that given beam, and wherein, during the beam sweep procedure, beams in the candidate beam set are swept in an order weighted according to the angular spread values. initiating, for a candidate beam set, a beam sweep procedure for communication with another radio transceiver device, each beam in the candidate beam set has an associated angular spread value, wherein the angular spread value for a given beam in the candidate beam set is determined from a channel property of the physical radio propagation channel as experienced in that given beam, and wherein, during the beam sweep procedure, beams in the candidate beam set are swept in an order weighted according to the angular spread values.
An institutional kitchen kettle with an outlet valve, at the bottom of which kettle is an opening, on the edge of which is arranged an elongated cylinder pipe from which pipe extends an outlet pipe outside the kettle, the outlet valve comprising piston means arranged in the cylinder pipe of the kettle and a reduction ring fixed in the bottom opening of the kettle, essentially on the plane of the kettle bottom, and removable therefrom, in the centre of which reduction ring is an opening essentially smaller than the diameter of the bottom opening of the kettle, wherein the outlet valve comprises a piston casing arranged in the cylinder pipe, which piston casing receives an elongated piston means coaxial with the cylinder pipe, the end of the piston means being movable into a position closing the reduction ring opening tightly, that inside the cylinder pipe is formed a cylinder chamber which extends from the bottom opening to the upper edge region of the piston casing, that the diameter of the piston means is selected to be, over the entire axial distance of the cylinder chamber, smaller than the diameter of the inner surface of the cylinder chamber to such an extent that between the cylinder chamber and the piston means remains a slot of annular cross-section over the total distance of the cylinder chamber, the slot opening at its first end to the bottom opening and at its second end to the outlet pipe, and making it possible to supply washing liquid at a specific minimum flow rate through the bottom opening to the outlet pipe for CIP cleaning.