mhurhangee/ep-ind-claims huggingface dataset:
A production method for a double-vision color filter structure which is suitable to be attached in front of a display unit such that viewers from different angles can see different images on the same display, the method comprising the consecutive steps of: forming a slit grating on a glass substrate; attaching a transparent thin layer on top of the slit grating to the glass substrate by means of a sealant arranged between the glass substrate and the transparent thin layer; and forming a sub-pixel matrix pattern of color filter elements on the surface of the transparent thin layer opposite to the slit grating, the pattern of color filter elements comprising odd sub-pixel columns and even sub-pixel columns, each opening of the slit grating being arranged between adjacent odd sub-pixel columns and even sub-pixel columns so as to enable a double-vision display functionality; wherein the step of attaching the transparent thin layer on top of the slit grating to the glass substrate results in a cell structure between the glass substrate, the transparent thin layer and the sealant, wherein the slit grating is within the cell structure, and the transparent thin layer is a glass or plastic film with a thickness of 70-200 μm. forming a slit grating on a glass substrate; attaching a transparent thin layer on top of the slit grating to the glass substrate by means of a sealant arranged between the glass substrate and the transparent thin layer; and forming a sub-pixel matrix pattern of color filter elements on the surface of the transparent thin layer opposite to the slit grating, the pattern of color filter elements comprising odd sub-pixel columns and even sub-pixel columns, each opening of the slit grating being arranged between adjacent odd sub-pixel columns and even sub-pixel columns so as to enable a double-vision display functionality; wherein the step of attaching the transparent thin layer on top of the slit grating to the glass substrate results in a cell structure between the glass substrate, the transparent thin layer and the sealant, wherein the slit grating is within the cell structure, and the transparent thin layer is a glass or plastic film with a thickness of 70-200 μm.
A method of making a detergent composition, the method comprising the following steps in the recited order: (a) providing an aqueous composition comprising a citrate salt; (b) lowering the pH by adding a first, un-neutralised or partially neutralised, polyacrylic acid having a weight average molecular weight in the range of 1000 to 6000 to form a second mixture; (c) increasing the pH by adding alkali metal carbonate and/or alkali metal bicarbonate to form a third mixture; and (d) adding a second polyacrylic acid having a weight average molecular weight in the range of 1000 to 6000 to form a fourth mixture; wherein the detergent composition is preferably an automatic dishwashing detergent composition or a laundry detergent composition; wherein the composition comprises: - 5 to 70 wt%, preferably 30 - 55 wt%, of water - 5 to 20 wt%, preferably 10 - 15 wt%, of the polyacrylic acid; - 5 to 20 wt%, preferably 8 to 15 wt%, of the alkali metal carbonate and/or alkali metal bicarbonate; and - 10 to 30 wt%, preferably 15 to 25 wt%, of the citrate. (a) providing an aqueous composition comprising a citrate salt; (b) lowering the pH by adding a first, un-neutralised or partially neutralised, polyacrylic acid having a weight average molecular weight in the range of 1000 to 6000 to form a second mixture; (c) increasing the pH by adding alkali metal carbonate and/or alkali metal bicarbonate to form a third mixture; and (d) adding a second polyacrylic acid having a weight average molecular weight in the range of 1000 to 6000 to form a fourth mixture; - 5 to 70 wt%, preferably 30 - 55 wt%, of water - 5 to 20 wt%, preferably 10 - 15 wt%, of the polyacrylic acid; - 5 to 20 wt%, preferably 8 to 15 wt%, of the alkali metal carbonate and/or alkali metal bicarbonate; and - 10 to 30 wt%, preferably 15 to 25 wt%, of the citrate.
A terminal in a New Radio, NR, communication system, the terminal comprising: a reception section adapted to receive multiple CSI-RS resource configurations for Channel State Information, CSI, measurement by Radio Resource Control, RRC, signaling; a control section adapted to control CSI measurement reporting based on an index that collectively indicates a plurality of the CSI-RS resource configurations based on an association between the indices and the CSI-RS resource configurations configured by higher layer signaling, wherein the index is provided by Medium Access Control Control Element, MAC CE, or Downlink Control Information, DCI; and a transmission section adapted to report a measurement result. a reception section adapted to receive multiple CSI-RS resource configurations for Channel State Information, CSI, measurement by Radio Resource Control, RRC, signaling; a control section adapted to control CSI measurement reporting based on an index that collectively indicates a plurality of the CSI-RS resource configurations based on an association between the indices and the CSI-RS resource configurations configured by higher layer signaling, wherein the index is provided by Medium Access Control Control Element, MAC CE, or Downlink Control Information, DCI; and a transmission section adapted to report a measurement result.
A method for enhancing the permeability and flow characteristics of at least one very fine grain, low permeability diatomite ore feed material, comprising pre-agglomerating the ore in the presence of less than 10% by weight water and calcining the resultant product, wherein the feed material has an initial d 10 from 2-10 μm and a permeability less than 9.87 x 10 -15 m 2 (0.010 Da), wherein the calcined product has a permeability ranging from 4.93 x 10 -14 m 2 to 5.92 x 10 -12 m 2 (0.050 Da to 6.0 Da), and wherein the d10 is measured as defined on page 7 of the publication WO 2009/067718 A1, and wherein a permeability of 9.87 x 10 -13 m 2 (one darcy) corresponds to the permeability through a filter medium 1cm thick allowing 1 cm 2 of fluid with a viscosity of 1 mPa.s (1 centipoise) to pass through an area of 1cm 2 in 1 second under a pressure differential of 101.3 kPa.
A detector assembly including: a semiconductor detector having a first surface and a second surface opposed to each other, the first surface including pixels containing pixelated anodes, and the second surface comprising a cathode electrode; a collimator including openings, each opening associated with a single corresponding pixel of the semiconductor detector; and a processing unit configured to identify detected events within virtual sub-pixels distributed along a length and width of the semiconductor detector, wherein each pixel comprises a plurality of corresponding virtual sub-pixels, characterized in that the processing unit is configured to assign absorbed photons as events in a corresponding virtual sub-pixel, wherein absorbed photons are counted as events within a thickness of the semiconductor detector defined within an average absorption depth of 1/μ±1mm, where μ is the absorption coefficient for a specific photon energy for a particular detector material. a semiconductor detector having a first surface and a second surface opposed to each other, the first surface including pixels containing pixelated anodes, and the second surface comprising a cathode electrode; a collimator including openings, each opening associated with a single corresponding pixel of the semiconductor detector; and a processing unit configured to identify detected events within virtual sub-pixels distributed along a length and width of the semiconductor detector, wherein each pixel comprises a plurality of corresponding virtual sub-pixels, characterized in that the processing unit is configured to assign absorbed photons as events in a corresponding virtual sub-pixel, wherein absorbed photons are counted as events within a thickness of the semiconductor detector defined within an average absorption depth of 1/μ±1mm, where μ is the absorption coefficient for a specific photon energy for a particular detector material.
A method for receiving a null data packet announcement, NDPA, frame comprising: receiving, by an apparatus, a NDPA frame that includes one or more station information fields, wherein a length of each of the one or more station information fields is 4 bytes, each of the one or more station information fields comprises an association identifier field, a feedback type field, and an index of number of columns field, and a most significant bit of the front 12 bits of the third and fourth bytes in each of the one or more station information fields is set to 1, wherein the most significant bit of the front 12 bits of the third and fourth bytes is: the 28th bit, B27, of each of the one or more station information fields; and receiving, by the apparatus, a null data packet, NDP, frame after receiving the NDPA frame. receiving, by an apparatus, a NDPA frame that includes one or more station information fields, wherein a length of each of the one or more station information fields is 4 bytes, each of the one or more station information fields comprises an association identifier field, a feedback type field, and an index of number of columns field, and a most significant bit of the front 12 bits of the third and fourth bytes in each of the one or more station information fields is set to 1, wherein the most significant bit of the front 12 bits of the third and fourth bytes is: the 28th bit, B27, of each of the one or more station information fields; and receiving, by the apparatus, a null data packet, NDP, frame after receiving the NDPA frame.
A method of executing a cryptographic operation, comprising: selecting a first input mask value (Mi, Mi1), a first output mask value (Mo), and one or more intermediate mask values (a,b,c); calculating an additional intermediate mask value (d) by applying an exclusive disjunction operation to the one or more intermediate mask values and the first output mask value; calculating a first transformation output mask value (Qo, Qo1) by concatenating the one or more intermediate mask values and the additional intermediate mask value, and wherein exclusive disjunction of all portions of the first transformation output mask value (Qo, Qo1) is equal to the first output mask value (Mo, Mo1); and generating a first masked transformation table using the first transformation output mask value and the first input mask value; and performing one or more rounds of cryptographic operation using the first masked transformation table). selecting a first input mask value (Mi, Mi1), a first output mask value (Mo), and one or more intermediate mask values (a,b,c); calculating an additional intermediate mask value (d) by applying an exclusive disjunction operation to the one or more intermediate mask values and the first output mask value; calculating a first transformation output mask value (Qo, Qo1) by concatenating the one or more intermediate mask values and the additional intermediate mask value, and wherein exclusive disjunction of all portions of the first transformation output mask value (Qo, Qo1) is equal to the first output mask value (Mo, Mo1); and generating a first masked transformation table using the first transformation output mask value and the first input mask value; and performing one or more rounds of cryptographic operation using the first masked transformation table). calculating a first transformation output mask value (Qo, Qo1) by concatenating the one or more intermediate mask values and the additional intermediate mask value, and wherein exclusive disjunction of all portions of the first transformation output mask value (Qo, Qo1) is equal to the first output mask value (Mo, Mo1); and generating a first masked transformation table using the first transformation output mask value and the first input mask value; and performing one or more rounds of cryptographic operation using the first masked transformation table).
A method for analysis of a travel path of a mobile device of a mobile subscriber moving through a plurality of geographic areas, comprising: a) receiving "n" number of location data associated with said mobile device, each of "n" location data comprising an indication of the geographic area of the mobile subscriber G n and a receipt timestamp T n; b) determining the actual travel time t actual of the mobile subscriber from a geographic area G n and a subsequently visited geographic area G n+a based on a difference between timestamps T n and T n+a, wherein a≥2; c) determining a minimum transition time t min for the subscriber of the mobile device to move from the geographic area G n to the subsequently visited geographic area G n+a through the travel path; d) comparing the actual travel time t actual and the minimum transition time t min wherein t actual < t min;. said method being characterised by: e) identifying a suspicious activity based on said comparison wherein the suspicious activity is at least one received spoofed location data wherein the location data is obtained using existing telecom protocols automatically available at a network switch or a mobile switching centre. a) receiving "n" number of location data associated with said mobile device, each of "n" location data comprising an indication of the geographic area of the mobile subscriber G n and a receipt timestamp T n; b) determining the actual travel time t actual of the mobile subscriber from a geographic area G n and a subsequently visited geographic area G n+a based on a difference between timestamps T n and T n+a, wherein a≥2; c) determining a minimum transition time t min for the subscriber of the mobile device to move from the geographic area G n to the subsequently visited geographic area G n+a through the travel path; d) comparing the actual travel time t actual and the minimum transition time t min wherein t actual < t min;. said method being characterised by: e) identifying a suspicious activity based on said comparison wherein the suspicious activity is at least one received spoofed location data wherein the location data is obtained using existing telecom protocols automatically available at a network switch or a mobile switching centre.
A hard body as grid armoring for a roller of a roller press, characterized in that the hard body consists at least partially of a high-strength, iron-based alloy and comprises a shell or sleeve made of another material, in particular steel, copper or a copper alloy, on the outer surface, wherein the iron-based alloy is a FeCrMoVC alloy or a compound according to the formula Fe a E1 b E2 c E3 d E4 e, with E1 one or more elements of the group Cr, V, Mn, Co and Ni, E2 one or more elements of the group Mo, Nb, Zr, Y, Hf, Ti, Ta, and W, E3 one or more elements of the group Sn, Al, Ga, Pb, and E4 one or more elements of the group Si, P, C and B, with content ranges (a, b, c, d, e in atom%) a = 100 - (b + c + d + e), b = 1 to 12, c = 1 to 12, d = 0 to 12, e = 1 to 25 and wherein the hard body is made by casting the molten iron-based alloy into the shell or the sleeve.
A coupled inductor circuit comprising; a first winding comprising a conductive coil having a central axis; a second winding configured to magnetically couple with the first winding, the second winding having a plurality of individual segments (109, 110, 309, 310), wherein each individual segment forms a fraction of one turn of the second winding; wherein each individual segment includes a first conductor, a ground conductor, and a first switch (M1-M8) to selectively couple, and selectively isolate, the first conductor and the ground conductor; characterised in that each individual segment includes a second switch (M1-M8) configured to selectively couple, and selectively isolate, the first conductor and a second ground conductor, wherein the second ground conductor is the ground conductor of a different individual segment of the plurality of individual segments of the second winding. a first winding comprising a conductive coil having a central axis; a second winding configured to magnetically couple with the first winding, the second winding having a plurality of individual segments (109, 110, 309, 310), wherein each individual segment forms a fraction of one turn of the second winding; wherein each individual segment includes a first conductor, a ground conductor, and a first switch (M1-M8) to selectively couple, and selectively isolate, the first conductor and the ground conductor; characterised in that each individual segment includes a second switch (M1-M8) configured to selectively couple, and selectively isolate, the first conductor and a second ground conductor, wherein the second ground conductor is the ground conductor of a different individual segment of the plurality of individual segments of the second winding.
A method for determining a touch point in a touch-sensitive optical device comprising a plurality of optical emitters (14,22) and a plurality of optical detectors (18, 24), the optical emitters and the optical detectors defining therebetween a plurality of optical beam paths (12, 20) forming an optical beam intersection pattern extending over an area, the method comprising the steps of: detecting a modulation of energy transmitted along each of a pair (32, 38; 34, 38; 32, 36; 34, 36) of the optical beam paths (12, 20); assigning a candidate touch point (F1, F2, T1, T2) at the intersection of said pair (32, 38; 34, 38; 32, 36; 34, 36) of modulated beams; analyzing predetermined other beams (40, 42, 54, 56) associated with the candidate touch point (Fl, F2, T1, T2), the predetermined other beams near to or coincident with said candidate touch point; and responsive to said analysis, determining whether the candidate touch point (F1, F2, T1, T2) is an actual touch point (T1, T2). detecting a modulation of energy transmitted along each of a pair (32, 38; 34, 38; 32, 36; 34, 36) of the optical beam paths (12, 20); assigning a candidate touch point (F1, F2, T1, T2) at the intersection of said pair (32, 38; 34, 38; 32, 36; 34, 36) of modulated beams; analyzing predetermined other beams (40, 42, 54, 56) associated with the candidate touch point (Fl, F2, T1, T2), the predetermined other beams near to or coincident with said candidate touch point; and responsive to said analysis, determining whether the candidate touch point (F1, F2, T1, T2) is an actual touch point (T1, T2).
A process for manufacturing a wound active nanoscale polymer matrix microsheet, the method comprising the following steps: a) forming a nanoscale polymer layer about 0.5 nm to 1000 nm thick on a substrate; b) introducing a wound active agent into said nanoscale polymer layer to provide the wound active nanoscale polymer layer; and c) forming the sacrificial polymer layer from 0,1 μm thick to 100 μm thick on said wound active nanoscale polymer layer, wherein the sacrificial polymer layer is dissolvable. a) forming a nanoscale polymer layer about 0.5 nm to 1000 nm thick on a substrate; b) introducing a wound active agent into said nanoscale polymer layer to provide the wound active nanoscale polymer layer; and c) forming the sacrificial polymer layer from 0,1 μm thick to 100 μm thick on said wound active nanoscale polymer layer, wherein the sacrificial polymer layer is dissolvable.
A processor-implemented method programmed in a non-transitory processor-readable medium and to execute on one or more processors configured to execute the method, characterized in that the method comprises: obtaining from a content service a unique address for a mobile application that is processing on a first device of a user (step 310), wherein the mobile application creates the unique address when the mobile application is executed for a first time on the first device and the unique address persists for a lifetime of the mobile application on the first device; receiving a request from the content service to deliver customized secure content to the mobile application on the first device (step 320); acquiring the customized secure content for the user based on the unique address and the request (step 330); and delivering the customized secure content to the mobile application using the unique address (step 340). obtaining from a content service a unique address for a mobile application that is processing on a first device of a user (step 310), wherein the mobile application creates the unique address when the mobile application is executed for a first time on the first device and the unique address persists for a lifetime of the mobile application on the first device; receiving a request from the content service to deliver customized secure content to the mobile application on the first device (step 320); acquiring the customized secure content for the user based on the unique address and the request (step 330); and delivering the customized secure content to the mobile application using the unique address (step 340).
A user equipment (111, 200) comprising: a transceiver arranged to receive, from an eNodeB in a network, a RRC signal that includes an information element indicating whether the eNodeB supports the user equipment (111, 200) using an extended paging value in a cell of the eNodeB; transmit a request from the user equipment (111, 200) to a MME in the network, wherein the request requests use of an extended paging value; transmit, to the eNodeB in the network, a value that indicates a periodicity, Thigher_priority_search, with which the user equipment (111, 200) evaluates cells in the network in which the user equipment is operating, wherein said value is based on the extended paging value; and monitor intra-frequency, inter-frequency and inter-radio access technology cells indicated by said cell in a network, according to the periodicity. a transceiver arranged to receive, from an eNodeB in a network, a RRC signal that includes an information element indicating whether the eNodeB supports the user equipment (111, 200) using an extended paging value in a cell of the eNodeB; transmit a request from the user equipment (111, 200) to a MME in the network, wherein the request requests use of an extended paging value; transmit, to the eNodeB in the network, a value that indicates a periodicity, Thigher_priority_search, with which the user equipment (111, 200) evaluates cells in the network in which the user equipment is operating, wherein said value is based on the extended paging value; and monitor intra-frequency, inter-frequency and inter-radio access technology cells indicated by said cell in a network, according to the periodicity.
A method of testing a lightning receiving receptor of a wind turbine, the method comprising: a step of forming an electric continuity test circuit including the lightning receiving receptor by moving an unmanned aerial vehicle, which includes a reel provided with a wire wound around the reel, close to the lightning receiving receptor of a wind turbine blade mounted to a hub of the wind turbine to connect the wire to the lightning receiving receptor, and unwinding the wire from the reel, and a step of performing an electric continuity test on the lightning receiving receptor which includes applying a voltage to the electric continuity test circuit which comprises the lightning receiving receptor and the wire. a step of forming an electric continuity test circuit including the lightning receiving receptor by moving an unmanned aerial vehicle, which includes a reel provided with a wire wound around the reel, close to the lightning receiving receptor of a wind turbine blade mounted to a hub of the wind turbine to connect the wire to the lightning receiving receptor, and unwinding the wire from the reel, and a step of performing an electric continuity test on the lightning receiving receptor which includes applying a voltage to the electric continuity test circuit which comprises the lightning receiving receptor and the wire.