mhurhangee/ep-ind-claims huggingface dataset:
A transparency comprising: a transparent substrate; and a plurality of electrically conductive lines on the transparent substrate, at least one of the electrically conductive lines intersecting at least one other electrically conductive line, and at least one of the electrically conductive lines having a width of no more than 50 μm; wherein at least one of the electrically conductive lines has undulations, wherein the undulations have peaks and troughs in a plane defined by the transparent substrate such that a distance between two adjacent peaks is no more than 30 μm. a transparent substrate; and a plurality of electrically conductive lines on the transparent substrate, at least one of the electrically conductive lines intersecting at least one other electrically conductive line, and at least one of the electrically conductive lines having a width of no more than 50 μm; wherein at least one of the electrically conductive lines has undulations, wherein the undulations have peaks and troughs in a plane defined by the transparent substrate such that a distance between two adjacent peaks is no more than 30 μm.
Micro-droplet plate for the formation, isolation, seeding and controlled recovery of volumes between 1 and 400 microliters, or between 4 and 50 microliters of fluids, where said fluids are SOL, which comprises: - at least one fixed element which is a rigid flat support which has an upper face and a lower face, having, on said upper face, wells connected together by microchannels, said wells being delimited by a hydrophobic rim and crossed by a hole on the base area, where said wells and said microchannels define at least one microfluidic circuit; - moving elements, received in said wells through said holes, which are cylinders having an upper base and a lower base; characterized in that: - said moving elements move, even independently of each other, along their vertical axis and, optionally, around their vertical axis; - the upper base of said moving elements comprises a hydrophilic surface with relief items. - at least one fixed element which is a rigid flat support which has an upper face and a lower face, having, on said upper face, wells connected together by microchannels, said wells being delimited by a hydrophobic rim and crossed by a hole on the base area, where said wells and said microchannels define at least one microfluidic circuit; - moving elements, received in said wells through said holes, which are cylinders having an upper base and a lower base; - said moving elements move, even independently of each other, along their vertical axis and, optionally, around their vertical axis; - the upper base of said moving elements comprises a hydrophilic surface with relief items.
A razor wire rapid deployment unit RDU, comprising: an enclosure having a first section coupleable with a second section, the enclosure defining an interior area; a razor wire disposed within the interior area of the enclosure, a first end of the razor wire directly coupled to the first section, and a second end of the razor wire directly coupled to the second section, wherein the first and second sections (104,106) of the enclosure are separable from one another to deploy the razor wire from a compressed configuration to an expanded configuration, characterised by an anchor component rotatably coupled to a first cross support and a second cross support of the second section, the anchor component comprising: a first tube extending between the first and second cross supports (147, 149); a second tube extending from a base of the first tube; and a third tube extending between the first and second tubes (151, 152), wherein in a first configuration the second tube extends parallel to the first and second cross supports (147, 149), and wherein in a second configuration the second tube extends perpendicular to the first and second cross supports (147, 149). an enclosure having a first section coupleable with a second section, the enclosure defining an interior area; a razor wire disposed within the interior area of the enclosure, a first end of the razor wire directly coupled to the first section, and a second end of the razor wire directly coupled to the second section, wherein the first and second sections (104,106) of the enclosure are separable from one another to deploy the razor wire from a compressed configuration to an expanded configuration, characterised by an anchor component rotatably coupled to a first cross support and a second cross support of the second section, the anchor component comprising: a first tube extending between the first and second cross supports (147, 149); a second tube extending from a base of the first tube; and a third tube extending between the first and second tubes (151, 152), wherein in a first configuration the second tube extends parallel to the first and second cross supports (147, 149), and wherein in a second configuration the second tube extends perpendicular to the first and second cross supports (147, 149). a first tube extending between the first and second cross supports (147, 149); a second tube extending from a base of the first tube; and a third tube extending between the first and second tubes (151, 152), wherein in a first configuration the second tube extends parallel to the first and second cross supports (147, 149), and wherein in a second configuration the second tube extends perpendicular to the first and second cross supports (147, 149).
Luminous device for a motor vehicle comprising - a printed circuit which supports a driver circuit for the electrical power supply of the light sources; and - a heat dissipation device (100, 200) comprising: • a metal support (110, 210) comprising at least one support portion of generally planar form; and • at least one crimping pin (120, 220) being fixed on a first face (112, 212) of the metal support (110, 210) characterized in that the crimping pin (120, 220) is fixed by brazing to realize a tightly joint between the crimping pin (120, 220) and the metal support (110, 210); and in that the printed circuit (10, 20) is fixed on the metal support (110, 210) by means of the crimping pin (120, 220). - a printed circuit which supports a driver circuit for the electrical power supply of the light sources; and - a heat dissipation device (100, 200) comprising: • a metal support (110, 210) comprising at least one support portion of generally planar form; and • at least one crimping pin (120, 220) being fixed on a first face (112, 212) of the metal support (110, 210) • a metal support (110, 210) comprising at least one support portion of generally planar form; and • at least one crimping pin (120, 220) being fixed on a first face (112, 212) of the metal support (110, 210) characterized in that the crimping pin (120, 220) is fixed by brazing to realize a tightly joint between the crimping pin (120, 220) and the metal support (110, 210); and in that the printed circuit (10, 20) is fixed on the metal support (110, 210) by means of the crimping pin (120, 220).
A method for sending information, comprising: using, at a sending end, an downlink control information, DCI, information, which will be transmitted through a physical control channel, PDCCH, or an enhanced physical control channel, ePDCCH, to describe information about time that an unlicensed carrier is occupied after the unlicensed carrier is seized; sending, at the sending end, the DCI information through a licensed carrier or the unlicensed carrier, wherein the information about time describes the number of subframes which are continuously occupied starting from a certain subframe; wherein using, at the sending end, the DCI information to describe the information about time that the unlicensed carrier is occupied, comprising parts or all of following: using, at the sending end, a PDCCH in first one or two or three or four OFDM symbols of a subframe to bear the information about time; using, at the sending end, a PDCCH in an OFDM symbol of a second slot of a subframe to bear the information about time; and using, at the sending end, a preset resource location of a subframe to bear the information about time. using, at a sending end, an downlink control information, DCI, information, which will be transmitted through a physical control channel, PDCCH, or an enhanced physical control channel, ePDCCH, to describe information about time that an unlicensed carrier is occupied after the unlicensed carrier is seized; sending, at the sending end, the DCI information through a licensed carrier or the unlicensed carrier, wherein the information about time describes the number of subframes which are continuously occupied starting from a certain subframe; wherein using, at the sending end, the DCI information to describe the information about time that the unlicensed carrier is occupied, comprising parts or all of following: using, at the sending end, a PDCCH in first one or two or three or four OFDM symbols of a subframe to bear the information about time; using, at the sending end, a PDCCH in an OFDM symbol of a second slot of a subframe to bear the information about time; and using, at the sending end, a preset resource location of a subframe to bear the information about time. using, at the sending end, a PDCCH in first one or two or three or four OFDM symbols of a subframe to bear the information about time; using, at the sending end, a PDCCH in an OFDM symbol of a second slot of a subframe to bear the information about time; and using, at the sending end, a preset resource location of a subframe to bear the information about time.
A method of manufacturing a cooled gas turbine component for a gas turbine engine, the method comprising: forming a core with an outer surface, the outer surface including a core feature; casting an outer wall of an airfoil about the core to form an exterior surface of the outer wall and an interior surface of the outer wall, the interior surface including a shaped inlet portion that is cast to inversely correspond to the core feature; and forming an outlet portion through the outer wall by progressively removing material from the outer wall in a direction from the exterior surface toward the interior surface and toward the shaped inlet portion to fluidly connect the outlet portion to the shaped inlet portion, the shaped inlet portion and the outlet portion cooperatively defining a cooling aperture through the outer wall; wherein the shaped inlet portion has a width. forming a core with an outer surface, the outer surface including a core feature; casting an outer wall of an airfoil about the core to form an exterior surface of the outer wall and an interior surface of the outer wall, the interior surface including a shaped inlet portion that is cast to inversely correspond to the core feature; and forming an outlet portion through the outer wall by progressively removing material from the outer wall in a direction from the exterior surface toward the interior surface and toward the shaped inlet portion to fluidly connect the outlet portion to the shaped inlet portion, the shaped inlet portion and the outlet portion cooperatively defining a cooling aperture through the outer wall; wherein the shaped inlet portion has a width.
A copper alloy comprising 10-30 vol. % of a multicomponent intermetallic L 1 2 -(Ni,Cu) 3 (Al,Sn) phase precipitate, wherein the alloy excludes cellular discontinuous precipitation around grain boundaries and is free of beryllium; wherein the alloy comprises, in wt.%, 19-24% Ni, 3.0-6.5% Sn, 1.2-1.9% Al, or 2.0% Al in the specific composition stated below, and up to 0.05% B; the balance Cu; the alloy optionally further comprising: up to 1.0 wt % of each of at least one element selected from the group consisting of Co, Ag, Cr, Mn, Nb, Ti and V; the said specific composition being 20% Ni, 5.0% Sn, 2.0% Al and 0.1% Ti.
A hand-held device, in particular a writing instrument, comprising a body extending along an axial direction and presenting a first axial end and a second axial end opposite from the first axial end along the axial direction, a single carriage housed in the body and movable in translation along the axial direction relative to the body, the single carriage carrying a first head and a second head opposite from the first head along the axial direction, or a first carriage (14-1') and a second carriage (14-2') housed in the body and being movable in translation along the axial direction relative to the body, the first carriage (14-1') and the second carriage (14-2') carrying respectively a first head and a second head opposite from the first head along the axial direction, and a single blocking device comprising a single cavity and at least one ball or the equivalent, one ball or the equivalent of the at least one ball or the equivalent blocking the single carriage or the first carriage (14-1') relative to the body when, relative to the gravity direction, the first axial end is below the second axial end, such that the first head is blocked relative to the body so as to project axially from the first axial end, while the second head is retracted into the body, and one ball or the equivalent of the at least one ball or the equivalent blocking the single carriage or the second carriage (14-2') when, in the gravity direction, the first axial end is above the second axial end, such that the second head is blocked relative to the body so as to project axially from the second axial end, while the first head is retracted into the body.
A composition comprising: a first preparation containing a nitrile butadiene rubber, a (meth)acrylic composition, a compound having an enal structure and a radical polymerization initiator; and a second preparation containing the nitrile butadiene rubber, the (meth)acrylic composition, a compound having an amine structure and a compound containing copper.
A lighting circuit for a high-pressure discharge lamp, the lighting circuit being configured to light the high-pressure discharge lamp by supplying an alternating lamp current to the high-pressure discharge lamp, wherein the alternating lamp current (A L) comprises a base lamp current (A LB) and pulse currents (A P1,A P2,A P3), and at least one of the pulse currents (A P1) is superimposed on a former half of each half period of the base lamp current (A LB) and at least two of the pulse currents (A P2,A P3) are superimposed on a latter half of the each half period.
A method for a mobile station, comprising the steps of: determining a precoding matrix index, PMI, for a serving base station and one or more cooperative base stations by the mobile station to optimize system performance for multi-BS multiple-input multiple-output, MIMO, in a cellular orthogonal frequency division multiple access, OFDMA, system; determining a plurality of corresponding weight factors for each of the base stations based on the PMI for each of said base stations, to further optimize system performance; and transmitting the PMI and the weight factors to the serving base station, wherein the PMI and the weight factors are shared between the serving base station and at least one of the one or more cooperative base stations, characterized in that the mobile station carries out a concatenated precoding selection process by choosing the PMI for each of said base stations through step-by-step optimization, wherein through the step-by-step optimization, the mobile station is configured to choose the PMI for each of said base stations one by one, choose a first BS to optimize its PMI, and then choose a second BS to optimize its PMI by considering the PMI of the first BS, and so on so, until all PMIs for all said base stations are determined, and wherein the weight factors are determined based on a predefined quantization rule.
Shop scales with a load cell to detect the weight of weighing goods and a removable load plate which interacts with this to apply weighing goods, wherein, in the weighing position, the load cell is arranged completely within a shell and is able to be brought from a weighing position into a cleaning position via a sliding block guide, in which cleaning position the weighing cell is pivoted around a pivot axis in order to clean the region underneath the load cell, characterised in that the sliding block guide has two sliding block tracks (51, 52), wherein the second sliding block track branches off from the first sliding block track.
An image sensor (70, 75) comprising: (a) a substrate having a plurality of photosensitive areas; (b) a light shield positioned spanning the photosensitive areas and having a plurality of apertures, wherein the plurality of apertures are positioned over respective photosensitive areas; and (c) a plurality of microlenses positioned over respective photosensitive areas and centered on one of the apertures for focusing light through the respective apertures wherein a curvature of each microlens is shaped such that a focal point of the light through each microlens is extended into the substrate to a point where light received at a normal incident angle to the surface of the substrate fully fills each aperture and a portion of the light directed onto the peripheral region of each microlens is blocked by the light shield, (d) a transparent layer consisting of an ITO portion having a first optical transmission characteristic disposed over a first portion of each photosensitive area and a polysilicon portion having a second optical transmission characteristic disposed over a second portion of each photosensitive area, wherein the light shield blocks light impinging on the polysilicon portion. (a) a substrate having a plurality of photosensitive areas; (b) a light shield positioned spanning the photosensitive areas and having a plurality of apertures, wherein the plurality of apertures are positioned over respective photosensitive areas; and (c) a plurality of microlenses positioned over respective photosensitive areas and centered on one of the apertures for focusing light through the respective apertures wherein a curvature of each microlens is shaped such that a focal point of the light through each microlens is extended into the substrate to a point where light received at a normal incident angle to the surface of the substrate fully fills each aperture and a portion of the light directed onto the peripheral region of each microlens is blocked by the light shield, (d) a transparent layer consisting of an ITO portion having a first optical transmission characteristic disposed over a first portion of each photosensitive area and a polysilicon portion having a second optical transmission characteristic disposed over a second portion of each photosensitive area, wherein the light shield blocks light impinging on the polysilicon portion.
A computer-implemented method for processing seismic data acquired during a seismic survey, the method comprising: accessing seismic data that was acquired, using one or more sensors, during a seismic survey based on interaction of energy generated by one or more marine vibrators with a subsurface formation, wherein the energy was generated during a sweep that includes multiple sub-sweeps; and characterized by processing the seismic data based on a depth of a particular target within the subsurface formation, wherein, for a deeper target within the subsurface formation, the processing includes combining an increased number of sub-sweeps to achieve higher-amplitude data. accessing seismic data that was acquired, using one or more sensors, during a seismic survey based on interaction of energy generated by one or more marine vibrators with a subsurface formation, wherein the energy was generated during a sweep that includes multiple sub-sweeps; and characterized by processing the seismic data based on a depth of a particular target within the subsurface formation, wherein, for a deeper target within the subsurface formation, the processing includes combining an increased number of sub-sweeps to achieve higher-amplitude data.
A cryptographic data processing method executed by an information processing system, the cryptographic data processing method comprising: selecting a first mask (13, M) amongst a plurality of masks; generating a first masked random number (15a, R) by converting a first random number (14a, r) using the first mask (13, M) and generating a first key (17a, k) from the first masked random number (15a, R) and a first biometric code (16a, B) generated from biometric information, and also causing mask information indicating the selected first mask (13, M) to be stored; generating a second masked random number (15b, R*) by converting a second random number (14b, r*) using the first mask (13, M) indicated by the mask information or a second mask having a predetermined relationship with the first mask, and generating a second key (17b, k*) from the second masked random number (15b, R*) and a second biometric code (16b, B*); and generating a ciphertext (19b, c) using one of the first key (17a, k) and the second key (17b, k*) and an error-correction encoding method (18a, g), wherein the ciphertext (19b, c) is decodable using the other one of the first key (17a, k) and the second key (17b, k*). selecting a first mask (13, M) amongst a plurality of masks; generating a first masked random number (15a, R) by converting a first random number (14a, r) using the first mask (13, M) and generating a first key (17a, k) from the first masked random number (15a, R) and a first biometric code (16a, B) generated from biometric information, and also causing mask information indicating the selected first mask (13, M) to be stored; generating a second masked random number (15b, R*) by converting a second random number (14b, r*) using the first mask (13, M) indicated by the mask information or a second mask having a predetermined relationship with the first mask, and generating a second key (17b, k*) from the second masked random number (15b, R*) and a second biometric code (16b, B*); and generating a ciphertext (19b, c) using one of the first key (17a, k) and the second key (17b, k*) and an error-correction encoding method (18a, g), wherein the ciphertext (19b, c) is decodable using the other one of the first key (17a, k) and the second key (17b, k*).
An apparatus for depositing a coating onto a surface of a substrate comprising: - a vacuum chamber with an inlet for supplying a precursor gas to the chamber, the chamber comprising, a carrier for locating the substrate in the chamber, the substrate, when located in the carrier constituting a first cathode, a first anode having an aperture in which a plasma can be formed, and - a linear magnetic field source, such that the substrate lies between the magnets; and wherein, in use, a linear magnetic field between the anode and the substrate constituting the first cathode is formed such that the direction of the magnetic field is orthogonal to the surface to be coated and plasma production and deposition takes place within the linear field, and characterised in that wherein the magnetic field source comprises first and second permanent magnets located adjacent the cathode and the anode. - a vacuum chamber with an inlet for supplying a precursor gas to the chamber, the chamber comprising, a carrier for locating the substrate in the chamber, the substrate, when located in the carrier constituting a first cathode, a first anode having an aperture in which a plasma can be formed, and - a linear magnetic field source, such that the substrate lies between the magnets; and wherein, in use, a linear magnetic field between the anode and the substrate constituting the first cathode is formed such that the direction of the magnetic field is orthogonal to the surface to be coated and plasma production and deposition takes place within the linear field, and characterised in that wherein the magnetic field source comprises first and second permanent magnets located adjacent the cathode and the anode.