mhurhangee/ep-ind-claims huggingface dataset:
A compressed air energy storage and power generation device, comprising: an electric motor configured to be driven by fluctuating input power; a compressor configured to be mechanically connected to the electric motor and to compress air; a pressure accumulation tank configured to be fluidly connected to the compressor and to store the air compressed by the compressor; an expander configured to be fluidly connected to the pressure accumulation tank and to be driven by the compressed air supplied from the pressure accumulation tank; a generator configured to be mechanically connected to the expander; a cooling water flow passage to which cooling water is supplied; and a first heat exchanger provided with a portion of the cooling water flow passage, which is located in a casing of the compressor, the first heat exchanger being configured to perform heat exchange to heat the cooling water in the cooling water flow passage to high temperature and cool the air as a working fluid to low temperature, characterized by a first cooling flow passage through which a first cooling fluid for cooling the electric motor flows; and a second heat exchanger configured to perform heat exchange between the first cooling fluid heated to high temperature in the first cooling flow passage and the cooling water in the cooling water flow passage to heat the water in the cooling water flow passage to high temperature. an electric motor configured to be driven by fluctuating input power; a compressor configured to be mechanically connected to the electric motor and to compress air; a pressure accumulation tank configured to be fluidly connected to the compressor and to store the air compressed by the compressor; an expander configured to be fluidly connected to the pressure accumulation tank and to be driven by the compressed air supplied from the pressure accumulation tank; a generator configured to be mechanically connected to the expander; a cooling water flow passage to which cooling water is supplied; and a first heat exchanger provided with a portion of the cooling water flow passage, which is located in a casing of the compressor, the first heat exchanger being configured to perform heat exchange to heat the cooling water in the cooling water flow passage to high temperature and cool the air as a working fluid to low temperature, characterized by a first cooling flow passage through which a first cooling fluid for cooling the electric motor flows; and a second heat exchanger configured to perform heat exchange between the first cooling fluid heated to high temperature in the first cooling flow passage and the cooling water in the cooling water flow passage to heat the water in the cooling water flow passage to high temperature.
Paper machine with a device for treating starch for hydrophobizing paper, the device comprising a heat pump, which takes up thermal energy from an exhaust heat flow from the paper making of the paper, and releases it for heating the starch up to a processing temperature, characterized in that the exhaust heat flow is an exhaust air flow of a drying section of the paper machine.
A corrosion resistant coating comprising: a. a water borne resin; b. water; and c. titanium dioxide pigments; wherein the titanium dioxide pigments comprise a hydrophobic coating that is at least one organosilane having the formula: R'xSi 4-x wherein R' is a nonhydrolyzable aliphatic, cycloaliphatic or aromatic group having 8-20 carbon atoms; R is a hydrolysable group selected from alkoxy, halogen, acetoxy or hydroxyl or mixtures thereof; and x=1 to 3. a. a water borne resin; b. water; and c. titanium dioxide pigments; wherein the titanium dioxide pigments comprise a hydrophobic coating that is at least one organosilane having the formula: R'xSi 4-x wherein R' is a nonhydrolyzable aliphatic, cycloaliphatic or aromatic group having 8-20 carbon atoms; R is a hydrolysable group selected from alkoxy, halogen, acetoxy or hydroxyl or mixtures thereof; and x=1 to 3.
A thin film heater configured to be wrapped around a heating chamber of an aerosol generating device, the thin film heater comprising: A flexible heating element; a flexible electrically insulating backing film supporting the heating element; wherein the backing film comprises one or both of a fluoropolymer or Polyetheretherketone, PEEK; and wherein the thin film heater is sufficiently flexible to allow it to be wrapped into a tubular configuration; characterised in that the thin film heater further comprises a second flexible electrically insulating film which opposes the flexible electrically insulating backing film to at least partially enclose the heating element between the flexible electrically insulating backing film and the second flexible electrically insulating film; wherein second flexible film is at least approximately twice the length of the first flexible film in a wrapping direction. A flexible heating element; a flexible electrically insulating backing film supporting the heating element; wherein the backing film comprises one or both of a fluoropolymer or Polyetheretherketone, PEEK; and wherein the thin film heater is sufficiently flexible to allow it to be wrapped into a tubular configuration; characterised in that the thin film heater further comprises a second flexible electrically insulating film which opposes the flexible electrically insulating backing film to at least partially enclose the heating element between the flexible electrically insulating backing film and the second flexible electrically insulating film; wherein second flexible film is at least approximately twice the length of the first flexible film in a wrapping direction.
An information transmission method applied in a user equipment, UE, comprising: receiving (S205, S306, S404), a configuration message from a master base station, wherein the configuration message comprises data radio bearer, DRB, configuration information on the master base station and DRB configuration information on a secondary base station, the DRB configuration information on the master base station comprises an identifier of a first flow mapped to a first DRB established on the master base station and an identifier of the first DRB, and the DRB configuration information on the secondary base station comprises an identifier of a second flow mapped to a second DRB established on the secondary base station and an identifier of the second DRB; and sending (S307, S405),to the master base station, a response message in response to the configuration message; wherein there is a first mapping relationship between the identifier of the first DRB and the first flow, and there is a second mapping relationship between the identifier of the second DRB and the second flow. receiving (S205, S306, S404), a configuration message from a master base station, wherein the configuration message comprises data radio bearer, DRB, configuration information on the master base station and DRB configuration information on a secondary base station, the DRB configuration information on the master base station comprises an identifier of a first flow mapped to a first DRB established on the master base station and an identifier of the first DRB, and the DRB configuration information on the secondary base station comprises an identifier of a second flow mapped to a second DRB established on the secondary base station and an identifier of the second DRB; and sending (S307, S405),to the master base station, a response message in response to the configuration message; wherein there is a first mapping relationship between the identifier of the first DRB and the first flow, and there is a second mapping relationship between the identifier of the second DRB and the second flow.
LED lamp comprising an enclosure and an LED lighting means arranged within the enclosure, having a glass bulb, a lighting module with at least one light-emitting diode chip, which is mounted to a printed circuit board as a chip on board assembly, and driver electronics of the lighting module, the lighting module and the driver electronics being accommodated in the glass bulb characterized in that the glass bulb has an indentation which projects into the interior of the glass bulb and is in thermal contact with the printed circuit board.
Structural metamaterial (1400, 1500) comprising: cells (200, 400, 500, 802, 804, 806, 808, 810, 812, 814, 816, 818, 1402, 1504), each cell containing a microphone (202, 204, 206, 208, 210, 212, 214,402, 404, 406, 408, 504,824, 826, 828, 830, 902,1202, 1204, 1506) to detect incoming sound waveforms, a speaker (218, 220, 222, 224, 226, 228, 428, 430, 432, 434, 604, 822, 1206, 1208, 1508), and a processor (216, 420, 422, 424, 426, 508, 820, 1210,1510) configured to analyze features of an incoming sound waveform (502, 1300, 1304, 1306, 1404, 1512) and to cause the speaker to emit a response waveform (1406, 1514) that, when combined with the incoming sound waveform at a given corresponding cell, modifies at least part of the incoming sound waveform, wherein the cells are tetrahedral cells and a cell at an edge of the structural metamaterial is electrically connected with at least two other cells, and wherein a given interior cell inside of the edge is electrically connected with at least four other tetrahedral cells. cells (200, 400, 500, 802, 804, 806, 808, 810, 812, 814, 816, 818, 1402, 1504), each cell containing a microphone (202, 204, 206, 208, 210, 212, 214,402, 404, 406, 408, 504,824, 826, 828, 830, 902,1202, 1204, 1506) to detect incoming sound waveforms, a speaker (218, 220, 222, 224, 226, 228, 428, 430, 432, 434, 604, 822, 1206, 1208, 1508), and a processor (216, 420, 422, 424, 426, 508, 820, 1210,1510) configured to analyze features of an incoming sound waveform (502, 1300, 1304, 1306, 1404, 1512) and to cause the speaker to emit a response waveform (1406, 1514) that, when combined with the incoming sound waveform at a given corresponding cell, modifies at least part of the incoming sound waveform, wherein the cells are tetrahedral cells and a cell at an edge of the structural metamaterial is electrically connected with at least two other cells, and wherein a given interior cell inside of the edge is electrically connected with at least four other tetrahedral cells.
A wall assembly (60,62) for use in a combustor of a gas turbine engine, the wall assembly comprising: a support shell (68,70); a liner panel (72,74); and an annular grommet wherein said annular grommet defines a contoured inner wall; wherein said contoured inner wall is defined between a first inner periphery and a second inner periphery; wherein said first inner periphery and said second inner periphery define a dilution passage that extends along an axis, wherein said contoured inner wall converges toward said axis from said first inner periphery toward said second inner periphery; characterized in that said annular grommet is mounted between said support shell and said liner panel; and wherein a first point on said first inner periphery, a second point on said second inner periphery and a third point define a triangle, wherein the third point is defined axially at said first inner periphery and parallel to the axis with respect to said second point; wherein a first line defined between said second point and said third point is parallel to said axis of said dilution passage; wherein said triangle defines an angle of about twenty five degrees between said first line and a second line, said second line being defined between said first point and said second point. a support shell (68,70); a liner panel (72,74); and an annular grommet wherein said annular grommet defines a contoured inner wall; wherein said contoured inner wall is defined between a first inner periphery and a second inner periphery; wherein said first inner periphery and said second inner periphery define a dilution passage that extends along an axis, wherein said contoured inner wall converges toward said axis from said first inner periphery toward said second inner periphery; characterized in that said annular grommet is mounted between said support shell and said liner panel; and wherein a first point on said first inner periphery, a second point on said second inner periphery and a third point define a triangle, wherein the third point is defined axially at said first inner periphery and parallel to the axis with respect to said second point; wherein a first line defined between said second point and said third point is parallel to said axis of said dilution passage; wherein said triangle defines an angle of about twenty five degrees between said first line and a second line, said second line being defined between said first point and said second point.
A computer-implemented method for imaging seismic data, which comprises: approximating TTI coefficients using a Padé approximation and a dispersion relation equation; applying hybrid TTI-WEM to a velocity model and anisotropic parameters for a pre-stack shot gather using the approximated TTI coefficients to determine a source side wavefield propagation value and a receiver side wavefield propagation value in a frequency-space domain; converting the source side wavefield propagation value and the receiver side wavefield propagation value from the frequency-space domain to a time-space domain; and applying a zero-lag cross-correlation image condition equation to form a partial output image using the converted source side wavefield propagation value and the converted reservoir side wavefield propagation value. approximating TTI coefficients using a Padé approximation and a dispersion relation equation; applying hybrid TTI-WEM to a velocity model and anisotropic parameters for a pre-stack shot gather using the approximated TTI coefficients to determine a source side wavefield propagation value and a receiver side wavefield propagation value in a frequency-space domain; converting the source side wavefield propagation value and the receiver side wavefield propagation value from the frequency-space domain to a time-space domain; and applying a zero-lag cross-correlation image condition equation to form a partial output image using the converted source side wavefield propagation value and the converted reservoir side wavefield propagation value.
A method for producing an antibody comprising the step of co-cultivating a rabbit B-cell with a rabbit CD40L expressing BHK or CHO cell in the presence of IL-2 and IL-21.
A method executed on a processor for selectively presenting augmented reality, AR, information, said method comprising: detecting a plurality of real-world objects in a field of view of a user; selecting from the plurality of real-world objects a first group of at least one real-world object less than a first distance from the user in the field of view; selecting from the plurality of real-world objects a second group of at least one real-world object in the field of view of the user between the first distance and a second distance from the user greater than the first distance; augmenting the first group of real-world objects at a first time; and augmenting the second group of real-world objects at a second time after the first time; wherein the augmenting of at least the first and second group of real-world objects is performed cyclically, each group being augmented at different times in each of a plurality of cycles. detecting a plurality of real-world objects in a field of view of a user; selecting from the plurality of real-world objects a first group of at least one real-world object less than a first distance from the user in the field of view; selecting from the plurality of real-world objects a second group of at least one real-world object in the field of view of the user between the first distance and a second distance from the user greater than the first distance; augmenting the first group of real-world objects at a first time; and augmenting the second group of real-world objects at a second time after the first time; wherein the augmenting of at least the first and second group of real-world objects is performed cyclically, each group being augmented at different times in each of a plurality of cycles.
A semiconductor device comprising: a chip (156, 170) comprising a semiconductor integrated circuit including a semiconductor element, a first substrate (152, 172, 182) covering the semiconductor integrated circuit and provided with an antenna, wherein the antenna comprises a conductive layer, and an adhesive (153, 173) including a conductive particle for bonding the first substrate (152, 172, 182) and the semiconductor integrated circuit; the semiconductor device being characterized in that the chip (156, 170) further comprising: an insulating layer over the semiconductor integrated circuit;and a connection terminal electrically connected to the semiconductor element through the insulating layer; and the adhesive (153, 173) including the conductive particle is interposed between the insulating layer and the connection terminal on one side and the first substrate (152, 172, 182) on the other side, wherein the conductive particle at least partly surrounds the connection terminal such that the semiconductor element and the antenna are electrically connected through the connection terminal and the conductive particle included in the adhesive (153, 173). a chip (156, 170) comprising a semiconductor integrated circuit including a semiconductor element, a first substrate (152, 172, 182) covering the semiconductor integrated circuit and provided with an antenna, wherein the antenna comprises a conductive layer, and an adhesive (153, 173) including a conductive particle for bonding the first substrate (152, 172, 182) and the semiconductor integrated circuit; the semiconductor device being characterized in that the chip (156, 170) further comprising: an insulating layer over the semiconductor integrated circuit;and a connection terminal electrically connected to the semiconductor element through the insulating layer; and an insulating layer over the semiconductor integrated circuit;and a connection terminal electrically connected to the semiconductor element through the insulating layer; and the adhesive (153, 173) including the conductive particle is interposed between the insulating layer and the connection terminal on one side and the first substrate (152, 172, 182) on the other side, wherein the conductive particle at least partly surrounds the connection terminal such that the semiconductor element and the antenna are electrically connected through the connection terminal and the conductive particle included in the adhesive (153, 173).
A terahertz imaging system for endoscopy, comprising: a terahertz imager configured to receive terahertz image data comprising: a fibre bundle; at least one terahertz source configured to generate terahertz radiation, wherein each of the at least one terahertz source has an active area having at least one plasmonic contact electrode that can be illuminated by optical probe beams to generate the terahertz radiation; and at least one terahertz detector configured to receive terahertz field data, wherein each of the at least one terahertz detector has an active area having at least one plasmonic contact electrode that can be illuminated by optical pump beams to induce an output proportional to the received terahertz field; characterised in that the at least one terahertz source and detector are arranged in a two-dimensional array such that each terahertz detector is surrounded by a plurality of terahertz sources symmetrically; and wherein the fibre bundle couples optical pump beams to the active area of the at least one terahertz source and optical probe beams to the active area of the at least one terahertz detector. a terahertz imager configured to receive terahertz image data comprising: a fibre bundle; at least one terahertz source configured to generate terahertz radiation, wherein each of the at least one terahertz source has an active area having at least one plasmonic contact electrode that can be illuminated by optical probe beams to generate the terahertz radiation; and at least one terahertz detector configured to receive terahertz field data, wherein each of the at least one terahertz detector has an active area having at least one plasmonic contact electrode that can be illuminated by optical pump beams to induce an output proportional to the received terahertz field; characterised in that the at least one terahertz source and detector are arranged in a two-dimensional array such that each terahertz detector is surrounded by a plurality of terahertz sources symmetrically; and wherein the fibre bundle couples optical pump beams to the active area of the at least one terahertz source and optical probe beams to the active area of the at least one terahertz detector.
A connector structure comprising: a receptacle that is fixed to a first case; and a plug that is fixed to a second case and is fitted into the receptacle, with the second case being fitted into the first case, wherein: the receptacle has a central conductor portion, a tubular outer conductor portion that concentrically surrounds the central conductor portion, and a receptacle-side convex portion that extends in a connector circumferential direction and is formed on a top end portion of the outer conductor portion; the plug has a plurality of inner contact pieces that make contact with an outer peripheral surface of the central conductor portion when the plug is fitted into the receptacle, a plurality of outer contact pieces that extend in a connector axial direction on an outer peripheral surface of the outer conductor portion with intervals therebetween, and plug-side convex portions that are formed on the outer contact pieces; characterized in that the plug-side convex portions are freely displaceable in the connector axial direction in a state of being in surface contact with the outer peripheral surface of the outer conductor portion; and a clearance is formed between the first case and the second case, at a fitting section of the first case and the second case, in a direction orthogonal to an axis of the receptacle; and the second case is assembled with the first case within a range in which the second case is freely displaceable in the connector axial direction. a receptacle that is fixed to a first case; and a plug that is fixed to a second case and is fitted into the receptacle, with the second case being fitted into the first case, wherein: the receptacle has a central conductor portion, a tubular outer conductor portion that concentrically surrounds the central conductor portion, and a receptacle-side convex portion that extends in a connector circumferential direction and is formed on a top end portion of the outer conductor portion; the plug has a plurality of inner contact pieces that make contact with an outer peripheral surface of the central conductor portion when the plug is fitted into the receptacle, a plurality of outer contact pieces that extend in a connector axial direction on an outer peripheral surface of the outer conductor portion with intervals therebetween, and plug-side convex portions that are formed on the outer contact pieces; the receptacle has a central conductor portion, a tubular outer conductor portion that concentrically surrounds the central conductor portion, and a receptacle-side convex portion that extends in a connector circumferential direction and is formed on a top end portion of the outer conductor portion; the plug has a plurality of inner contact pieces that make contact with an outer peripheral surface of the central conductor portion when the plug is fitted into the receptacle, a plurality of outer contact pieces that extend in a connector axial direction on an outer peripheral surface of the outer conductor portion with intervals therebetween, and plug-side convex portions that are formed on the outer contact pieces;