mhurhangee/ep-ind-claims huggingface dataset:
A method of generating haptic effects comprising: receiving input media comprising at least one of audio data, video data, or sensory data; automatically generating a haptic effect track from the input media; characterized by: applying more than one filter to the automatically generated haptic effect track to generate a tuned haptic effect track, the applying comprising providing a user a selectable choice of filters to be applied to the automatically generated haptic effect track, wherein the selected filters are pipelined and applied in a selectable order. receiving input media comprising at least one of audio data, video data, or sensory data; automatically generating a haptic effect track from the input media; characterized by: applying more than one filter to the automatically generated haptic effect track to generate a tuned haptic effect track, the applying comprising providing a user a selectable choice of filters to be applied to the automatically generated haptic effect track, wherein the selected filters are pipelined and applied in a selectable order. applying more than one filter to the automatically generated haptic effect track to generate a tuned haptic effect track, the applying comprising providing a user a selectable choice of filters to be applied to the automatically generated haptic effect track, wherein the selected filters are pipelined and applied in a selectable order.
Plant for producing a wood-based board, having a conveyor belt circulating endlessly in the transport direction T, a scattering device for scattering a wood chip or wood fibre cake onto the conveyor belt, a prepress which is arranged after the latter in the transport direction T and in which the scattered cake can be cold precompressed, and a hot press which is provided thereafter and in which the cake precompressed cold can be pressed under pressure and temperature to form a board of desired thickness, wherein an impregnating station is arranged after the prepress and before the hot press in the transport direction T, said impregnating station consisting of a vacuum station arranged underneath the conveyor belt and an application unit for an impregnating liquid, which application unit is arranged above the conveyor belt and has nozzles (7, 8), and wherein the conveyor belt has vacuum channels, and plates (9, 10) extending in the transport direction T over the length of the impregnating station are provided laterally beside the conveyor belt to limit the vacuum laterally.
A portable electronic device comprising: a housing; a receiver (190, 450) operably coupled to said housing for receiving data regarding a physical location of said portable electronic device; a location trigger unit operably coupled to said housing and to said receiver, said location trigger unit comprising a first processor; an application unit operably coupled to said housing and to said location trigger unit, and comprising a second processor, said application unit comprising a plurality of operating modes; and wherein said location trigger unit is user programmable to allow a user to set and store associated location and profile data, and based on the physical location of said portable electronic device, is operable to a) effect changing said operating mode of said application unit based on the profile data associated with the physical location of said portable electronic device set by the user, and b) turning on or off said second processor of said application unit based on the profile data associated with the physical location of said portable electronic device set by the user. a housing; a receiver (190, 450) operably coupled to said housing for receiving data regarding a physical location of said portable electronic device; a location trigger unit operably coupled to said housing and to said receiver, said location trigger unit comprising a first processor; an application unit operably coupled to said housing and to said location trigger unit, and comprising a second processor, said application unit comprising a plurality of operating modes; and wherein said location trigger unit is user programmable to allow a user to set and store associated location and profile data, and based on the physical location of said portable electronic device, is operable to a) effect changing said operating mode of said application unit based on the profile data associated with the physical location of said portable electronic device set by the user, and b) turning on or off said second processor of said application unit based on the profile data associated with the physical location of said portable electronic device set by the user.
A coarse timing method comprising: calculating self-correlation based timing metric values for received signal samples; characterized by further comprising: calculating average timing metric values for the received signal samples based on previous timing metric values; and if there are Q consecutive timing metric values greater than the average timing metric values, determining that there is a data frame, where Q is a predetermined positive integer greater than one. calculating self-correlation based timing metric values for received signal samples; characterized by further comprising: calculating average timing metric values for the received signal samples based on previous timing metric values; and if there are Q consecutive timing metric values greater than the average timing metric values, determining that there is a data frame, where Q is a predetermined positive integer greater than one. calculating average timing metric values for the received signal samples based on previous timing metric values; and if there are Q consecutive timing metric values greater than the average timing metric values, determining that there is a data frame, where Q is a predetermined positive integer greater than one.
A discharge controller for controlling discharge of a plurality of cells (300-1, 300-2) connected in parallel with each other and including a degradation region, the controller comprising: a remaining capacity calculation section (110, 210) that calculates remaining capacities for each of the plurality of cells; and a control section (130, 230, 630) that, after starting discharge of the plurality of cells, stops discharge of each of the cells whose remaining capacity calculated by said remaining capacity calculation section has become equal to a threshold value set in advance based on the upper limit of the degradation region, wherein the degradation region is the region where cell degradation is promoted by passage of the cell through the degradation region. a remaining capacity calculation section (110, 210) that calculates remaining capacities for each of the plurality of cells; and a control section (130, 230, 630) that, after starting discharge of the plurality of cells, stops discharge of each of the cells whose remaining capacity calculated by said remaining capacity calculation section has become equal to a threshold value set in advance based on the upper limit of the degradation region, wherein the degradation region is the region where cell degradation is promoted by passage of the cell through the degradation region.
A method of analyzing a whole blood sample, comprising: loading a buffer, the whole blood sample, and an internal standard into a syringe assembly, wherein the buffer, the whole blood sample and the internal standard are isolated from each other by volumes of air (226, 228); switching a multiport valve to a load position; injecting the internal standard and the whole blood sample into a first zone of a dual zone sample loop; applying sufficient energy to the whole blood sample to disintegrate the cellular components of the whole blood sample to produce cell disintegrated blood; injecting a sufficient volume of the buffer into the dual zone sample loop to move the cell disintegrated blood into a second zone of the dual zone sample loop; switching the multiport value to an inject position; flowing the cell disintegrated blood from the dual zone sample loop into a solid phase extraction column; and eluting components of the cell disintegrated blood from the solid phase extraction column into a liquid chromatography column. loading a buffer, the whole blood sample, and an internal standard into a syringe assembly, wherein the buffer, the whole blood sample and the internal standard are isolated from each other by volumes of air (226, 228); switching a multiport valve to a load position; injecting the internal standard and the whole blood sample into a first zone of a dual zone sample loop; applying sufficient energy to the whole blood sample to disintegrate the cellular components of the whole blood sample to produce cell disintegrated blood; injecting a sufficient volume of the buffer into the dual zone sample loop to move the cell disintegrated blood into a second zone of the dual zone sample loop; switching the multiport value to an inject position; flowing the cell disintegrated blood from the dual zone sample loop into a solid phase extraction column; and eluting components of the cell disintegrated blood from the solid phase extraction column into a liquid chromatography column.
An active rotary inertia driver system, comprising: an output support; a drive assembly; and a rotary inertia plate; wherein the output support comprises a housing and the housing is connected with a controlled structure; one end of the drive assembly is fixed on the housing and is connected to one end of an output shaft; the other end of the output shaft extends out of the housing and is connected to the rotary inertia plate; and the rotary inertia plate is a disc or a ring with a preset mass, characterized in that: the output support further comprises a partition plate fixed on an inner wall of the housing; and the other end of the drive assembly is fixed on the partition plate. an output support; a drive assembly; and a rotary inertia plate; wherein the output support comprises a housing and the housing is connected with a controlled structure; one end of the drive assembly is fixed on the housing and is connected to one end of an output shaft; the other end of the output shaft extends out of the housing and is connected to the rotary inertia plate; and the rotary inertia plate is a disc or a ring with a preset mass, characterized in that: the output support further comprises a partition plate fixed on an inner wall of the housing; and the other end of the drive assembly is fixed on the partition plate.
Metal substrate having a polyester film laminated on at least one face of the metal substrate to produce a laminate, wherein the polyester film is a unidirectionally stretched and machine direction oriented film, the polyester film having a multilayered structure comprising a polyester core and two polyester skin layers (A, C), for laminating to a metal substrate, wherein the polyester skin layers each comprise an organic slip additive and wherein the polyester skin layers are free from inorganic particulates, wherein the amount of slip additive in each skin layer is above 1500 ppm and below 10000 ppm, wherein the slip additive is selected from the group consisting of carboxylic acids, carboxylic acid esters, carboxylic acid amides, fatty acids, fatty alcohols, fatty acid amides, bis fatty amides, amidic waxes, natural waxes, olefin waxes, paraffin waxes and any combination thereof.
Power generating equipment comprising: a power generation apparatus; a support structure adapted to be disposed on the bed of a body of water, in which the support structure provides a first engagement feature for releasable engagement with a winch tether; a winching device releasably engageable with the power generation apparatus, and operable to pay out and to retract a flexible winch tether, and a flexible winch tether having a first end connectable to the winching device and a second end providing a second engagement feature for releasable engagement with the first engagement feature of the support structure; in which the second engagement feature is engageable with the first engagement feature such that in the engaged position the winch tether is connected to the support structure, and in which in the disengaged position the winch tether is disconnected from the support structure; in which the support structure comprises a support housing, a support connection carrier received within the support housing, and in which the first engagement feature is provided by the support connection carrier. a power generation apparatus; a support structure adapted to be disposed on the bed of a body of water, in which the support structure provides a first engagement feature for releasable engagement with a winch tether; a winching device releasably engageable with the power generation apparatus, and operable to pay out and to retract a flexible winch tether, and a flexible winch tether having a first end connectable to the winching device and a second end providing a second engagement feature for releasable engagement with the first engagement feature of the support structure; in which the second engagement feature is engageable with the first engagement feature such that in the engaged position the winch tether is connected to the support structure, and in which in the disengaged position the winch tether is disconnected from the support structure; in which the support structure comprises a support housing, a support connection carrier received within the support housing, and in which the first engagement feature is provided by the support connection carrier.
An edible liquid dispersion comprising 10-40 vol.% aggregated protein particles in an aqueous phase comprising 0.05 to 5 wt% gum arabic, said aggregated protein particles comprising 5 to 70 wt% of protein and having an average diameter in the range of 0.1 to 20 μm, wherein said aggregated protein particles comprise gelled whey protein and wherein the pH of the edible dispersion is 6 to 9.
A rotor hub for a wind turbine, comprising: a generally hollow hub body having a first end and a second end spaced along a hub rotational axis, wherein the first end defines a rotor connection flange configured to connect the rotor hub to a main shaft, and wherein a second end defines a nose region, wherein the hub body also defines at least one blade aperture defined between the first end and the second end, a blade bearing associated with the or each blade aperture, a pitch actuator configured to act on the blade bearing, wherein the rotor hub includes an operational configuration; wherein in the operational configuration a portion of the pitch actuator protrudes from the nose region of the hub body by a first distance; characterized in that the rotor hub further includes a transport configuration; wherein in the transport configuration the portion of the pitch actuator protrudes from the nose region of the hub body by a lesser extent than when in the operational configuration. a generally hollow hub body having a first end and a second end spaced along a hub rotational axis, wherein the first end defines a rotor connection flange configured to connect the rotor hub to a main shaft, and wherein a second end defines a nose region, wherein the hub body also defines at least one blade aperture defined between the first end and the second end, a blade bearing associated with the or each blade aperture, a pitch actuator configured to act on the blade bearing, wherein the rotor hub includes an operational configuration; wherein in the operational configuration a portion of the pitch actuator protrudes from the nose region of the hub body by a first distance; characterized in that the rotor hub further includes a transport configuration; wherein in the transport configuration the portion of the pitch actuator protrudes from the nose region of the hub body by a lesser extent than when in the operational configuration.
A method of optimizing self-supporting film production in the processing of a film dosage product comprising the steps of: (a) determining at least one scrap factor which relates to a total amount of scrap in processing a film dosage product; (b) correlating said at least one scrap factor to at least one processing parameter; and (c) adjusting the at least one processing parameter to reduce the total amount of scrap in processing said film dosage product; wherein one or more of said steps is performed with a system; and characterised in that the total amount of scrap is defined by the formula: T S m 2 = M LA m 2 + C SS + S SS + P SS * W C m 2 wherein T S comprises one or more M LA, C SS, S SS, P SS, and W C; and T S is the total amount of scrap; M LA is mixing losses area; C SS is coating start/stop losses; S SS is slitting start/stop loss; P SS is packaging start/stop loss; and W C is coating width. (a) determining at least one scrap factor which relates to a total amount of scrap in processing a film dosage product; (b) correlating said at least one scrap factor to at least one processing parameter; and (c) adjusting the at least one processing parameter to reduce the total amount of scrap in processing said film dosage product; T S comprises one or more M LA, C SS, S SS, P SS, and W C; and T S is the total amount of scrap; M LA is mixing losses area; C SS is coating start/stop losses; S SS is slitting start/stop loss; P SS is packaging start/stop loss; and W C is coating width.
A compound of formula wherein R 1 is hydrogen or phenyl, optionally substitutes by halogen, CN or C 1-7 -alkoxy or C 1-7 -alkoxy substituted by halogen; R 2 is hydrogen or C 1-7 -alkyl; R 3 is hydrogen or C 1-7 -alkyl or is phenyl optionally substituted by one or more substituents, selected from halogen, cyano or C 1-7 -alkoxy substituted by halogen, or is pyridinyl, optionally substituted by halogen or C 1-7 -alkyl substituted by halogen, or is pyrimidinyl, optionally substituted by C 1-7 -alkyl substituted by halogen, or is pyrazinyl, optionally substituted by halogen, cyano or C 1-7 -alkyl substituted by halogen; R 4 is hydrogen, C 1-7 -alkyl or phenyl; Z is a bond, -CH 2 - or -O-; or a pharmaceutically suitable acid addition salt thereof. R 1 is hydrogen or phenyl, optionally substitutes by halogen, CN or C 1-7 -alkoxy or C 1-7 -alkoxy substituted by halogen; R 2 is hydrogen or C 1-7 -alkyl; R 3 is hydrogen or C 1-7 -alkyl or is phenyl optionally substituted by one or more substituents, selected from halogen, cyano or C 1-7 -alkoxy substituted by halogen, or is pyridinyl, optionally substituted by halogen or C 1-7 -alkyl substituted by halogen, or is pyrimidinyl, optionally substituted by C 1-7 -alkyl substituted by halogen, or is pyrazinyl, optionally substituted by halogen, cyano or C 1-7 -alkyl substituted by halogen; R 4 is hydrogen, C 1-7 -alkyl or phenyl; Z is a bond, -CH 2 - or -O-; or a pharmaceutically suitable acid addition salt thereof.
A fuel cell device, comprising: an active structure having an anode and cathode in opposing relation with an electrolyte therebetween; a fuel passage adjacent the anode for supplying fuel to the active structure; an air passage adjacent the cathode for supplying air to the active structure; a porous ceramic layer between the anode and fuel passage and between the cathode and air passage, the porous ceramic layer having a porosity configured to permit transport of fuel and air from the respective fuel and air passage to the respective anode and cathode; an inactive surrounding support structure monolithic with the electrolyte and the porous ceramic layers, wherein the inactive surrounding support structure lacks the anode and cathode in opposing relation and the active structure resides within the inactive surrounding support structure. an active structure having an anode and cathode in opposing relation with an electrolyte therebetween; a fuel passage adjacent the anode for supplying fuel to the active structure; an air passage adjacent the cathode for supplying air to the active structure; a porous ceramic layer between the anode and fuel passage and between the cathode and air passage, the porous ceramic layer having a porosity configured to permit transport of fuel and air from the respective fuel and air passage to the respective anode and cathode; an inactive surrounding support structure monolithic with the electrolyte and the porous ceramic layers, wherein the inactive surrounding support structure lacks the anode and cathode in opposing relation and the active structure resides within the inactive surrounding support structure.
A process for upgrading a Fischer-Tropsch product by contacting a hydrocracking catalyst in a reactor with a Fischer-Tropsch product stream having a feed temperature in the range of from 360°C to 420°C, wherein, before the catalyst is contacted with the Fischer-Tropsch product stream having a feed temperature in the range of from 360°C to 420°C, said process is initiated by; (i) contacting the hydrocracking catalyst with a hydrogen-containing stream having a feed temperature in the range of from 360°C to 420°C; (ii) reducing the feed temperature of the hydrogen-containing stream to a temperature in the range of from 220°C to 280°C; and (iii) contacting the catalyst with a Fischer-Tropsch product stream having a feed temperature in the range of from 220°C to 280°C by co-feeding with the hydrogen-containing stream; (iv) contacting the catalyst with a Fischer-Tropsch product stream having a feed temperature in the range of from 380°C to 400°C by co-feeding with the hydrogen-containing stream and wherein the catalyst is not activated by sulfiding. (i) contacting the hydrocracking catalyst with a hydrogen-containing stream having a feed temperature in the range of from 360°C to 420°C; (ii) reducing the feed temperature of the hydrogen-containing stream to a temperature in the range of from 220°C to 280°C; and (iii) contacting the catalyst with a Fischer-Tropsch product stream having a feed temperature in the range of from 220°C to 280°C by co-feeding with the hydrogen-containing stream; (iv) contacting the catalyst with a Fischer-Tropsch product stream having a feed temperature in the range of from 380°C to 400°C by co-feeding with the hydrogen-containing stream and