mhurhangee/ep-ind-claims huggingface dataset:
A method of wrapping a load with packaging material using a wrapping apparatus of the type including a packaging material dispenser for dispensing packaging material to the load, the method comprising: generating relative rotation between the packaging material dispenser and the load about a center of rotation, the method being characterized by controlling the packaging material dispenser during the relative rotation to dispense at a first dispense rate at a first rotational position about the center of rotation, wherein the first dispense rate is determined using a curve fit between second and third rotational positions that are respectively before and after the first rotational position about the center of rotation and for which predicted demands are determined. generating relative rotation between the packaging material dispenser and the load about a center of rotation, the method being characterized by controlling the packaging material dispenser during the relative rotation to dispense at a first dispense rate at a first rotational position about the center of rotation, wherein the first dispense rate is determined using a curve fit between second and third rotational positions that are respectively before and after the first rotational position about the center of rotation and for which predicted demands are determined.
A method of determining the risk of age-related neuronal decline, comprising a. measuring expression of at least one transposon in a biological sample from a subject; and b. determining whether the measured transposon expression exceeds a predetermined level, wherein measured transposon expression that exceeds the predetermined level indicates that the subject is at risk of accelerated age-related neuronal decline. a. measuring expression of at least one transposon in a biological sample from a subject; and b. determining whether the measured transposon expression exceeds a predetermined level,
A method of manufacturing a floor board comprising a wood fibre based core a thin surface layer and a sub layer between the surface layer and the core, the sub layer comprises wood fibres and a binder, wherein the method comprises the steps of: • mixing particles comprising wood fibres and an uncured binder for the sub layer; • applying the wood fibres and the uncured binder as a powder for the sub layer on the core; • applying a surface layer on the wood fibres and the uncured binder, wherein the wood fibres are not bonded to each other; and • bringing the core, the surface layer, the wood fibres and the uncured binder under increased pressure and temperature and forming them to a floor board by curing the binder, wherein the method further comprises the step of pressing the surface layer with an embossed pressing matrix such that the surface layer obtains upper portions and embossed portions lower than the upper portions, essentially by shaping of the sub layer. • mixing particles comprising wood fibres and an uncured binder for the sub layer; • applying the wood fibres and the uncured binder as a powder for the sub layer on the core; • applying a surface layer on the wood fibres and the uncured binder, wherein the wood fibres are not bonded to each other; and • bringing the core, the surface layer, the wood fibres and the uncured binder under increased pressure and temperature and forming them to a floor board by curing the binder, wherein the method further comprises the step of pressing the surface layer with an embossed pressing matrix such that the surface layer obtains upper portions and embossed portions lower than the upper portions, essentially by shaping of the sub layer.
A method of washing ware comprising: (a) contacting ware in a washing step with an aqueous cleaning composition in a ware washing machine, the aqueous cleaning composition comprising a major portion of an aqueous diluent and 200 to 5000 parts by weight of a ware washing detergent per each million parts of the aqueous diluent; and (b) contacting the washed ware in a rinse step with an aqueous rinse, the aqueous rinse being free of an intentionally added rinse agent, characterized in that the ware washing detergent contains a sufficient amount of a cationic starch to provide a layer of the cationic starch on the ware so as to afford sheeting action in the aqueous rinse step, and in that when the ware washing detergent contains a nonionic surfactant, the weight ratio of nonionic surfactant to cationic starch is at the most 0.25/1. (a) contacting ware in a washing step with an aqueous cleaning composition in a ware washing machine, the aqueous cleaning composition comprising a major portion of an aqueous diluent and 200 to 5000 parts by weight of a ware washing detergent per each million parts of the aqueous diluent; and (b) contacting the washed ware in a rinse step with an aqueous rinse, the aqueous rinse being free of an intentionally added rinse agent, characterized in that the ware washing detergent contains a sufficient amount of a cationic starch to provide a layer of the cationic starch on the ware so as to afford sheeting action in the aqueous rinse step, and in that when the ware washing detergent contains a nonionic surfactant, the weight ratio of nonionic surfactant to cationic starch is at the most 0.25/1.
A method performed by a client device, comprising: transmitting, to a device integrity computing system, a first request for an anonymous certificate, the request including device-level fraud detection signals for the client device; receiving, from the device integrity computing system, the anonymous certificate, wherein the anonymous certificate corresponds to a given signature group selected from a set of device trustworthiness groups based at least on the device-level fraud detection signals, wherein each device trustworthiness group corresponds to a respective category of trustworthiness; creating an anonymous attestation token comprising (i) a set of data comprising a second request and an attestation token creation timestamp indicating a time of creation of the anonymous attestation token, and (ii) a digital signature of the set of data generated using a group signature scheme with the anonymous certificate; and transmitting the attestation token to a recipient. transmitting, to a device integrity computing system, a first request for an anonymous certificate, the request including device-level fraud detection signals for the client device; receiving, from the device integrity computing system, the anonymous certificate, wherein the anonymous certificate corresponds to a given signature group selected from a set of device trustworthiness groups based at least on the device-level fraud detection signals, wherein each device trustworthiness group corresponds to a respective category of trustworthiness; creating an anonymous attestation token comprising (i) a set of data comprising a second request and an attestation token creation timestamp indicating a time of creation of the anonymous attestation token, and (ii) a digital signature of the set of data generated using a group signature scheme with the anonymous certificate; and transmitting the attestation token to a recipient.
A parametric amplifier for amplifying an input signal, including: a resonator comprising a Josephson junction; wherein the Josephson junction comprises a first superconductor component, a second superconductor component, and a semiconductor component, the semiconductor component being configured to enable coupling of the first and second superconductor components (12, 14); and wherein the parametric amplifier further comprises a gate electrode configured to apply an electrostatic field to the semiconductor component for tuning and pumping the parametric amplifier. a resonator comprising a Josephson junction; wherein the Josephson junction comprises a first superconductor component, a second superconductor component, and a semiconductor component, the semiconductor component being configured to enable coupling of the first and second superconductor components (12, 14); and wherein the parametric amplifier further comprises a gate electrode configured to apply an electrostatic field to the semiconductor component for tuning and pumping the parametric amplifier.
A method of assigning a species to a plurality of sequence reads, the method comprising: receiving the plurality of sequence reads; selecting a test set of the plurality of sequence reads, wherein the test set includes selected ones of the plurality of sequence reads; selecting a plurality of sub-indices (710a-e) of an index, wherein the index points to all sequences of a set of reference sequences corresponding to a plurality of species, wherein each of the sub-indices (710a-e) points to sequences in the set of reference sequences included in a corresponding sector of a phylogenetic tree of the set of reference sequences; aligning the test set to the plurality of sub-indices (710a-e), wherein the aligning is performed in parallel by one or more processing units; identifying, with the one or more processing units, a certain sub-index of the plurality of sub-indices (710a-2) with the best alignment to the test set; aligning, with the one or more processing units, the plurality of sequence reads to the certain sub-index; and assigning the species to the plurality of sequence reads based on said aligning the plurality of sequence reads to the certain sub-index. receiving the plurality of sequence reads; selecting a test set of the plurality of sequence reads, wherein the test set includes selected ones of the plurality of sequence reads; selecting a plurality of sub-indices (710a-e) of an index, wherein the index points to all sequences of a set of reference sequences corresponding to a plurality of species, wherein each of the sub-indices (710a-e) points to sequences in the set of reference sequences included in a corresponding sector of a phylogenetic tree of the set of reference sequences; aligning the test set to the plurality of sub-indices (710a-e), wherein the aligning is performed in parallel by one or more processing units; identifying, with the one or more processing units, a certain sub-index of the plurality of sub-indices (710a-2) with the best alignment to the test set; aligning, with the one or more processing units, the plurality of sequence reads to the certain sub-index; and assigning the species to the plurality of sequence reads based on said aligning the plurality of sequence reads to the certain sub-index.
Screen device, comprising - a roof structure; - one or more column systems which are provided with columns which, in the assembled state, at least partially support the roof structure and attachment elements (11, 12, 38) which are intended to be fitted to a respective column; - one or more screens (7, 9) which can be rolled up and unrolled, extend between said columns and are provided with a bottom slat on the opposite side from the side on which the screens (7, 9) are rolled up and unrolled; - two or more slat guides which, in the assembled state, guide said bottom slats, each of said slat guides being configured as a said attachment element (11, 12, 38); characterized in that each said column is provided on its outer surfaces with at least one stop, and the slat guides are provided on their outer surfaces with at least one part, at least a portion of which, in the assembled state, adjoins a said stop, wherein each said column is provided with one or more prism-shaped cavities which extend towards the inside of the column and of which said stop forms part. - a roof structure; - one or more column systems which are provided with columns which, in the assembled state, at least partially support the roof structure and attachment elements (11, 12, 38) which are intended to be fitted to a respective column; - one or more screens (7, 9) which can be rolled up and unrolled, extend between said columns and are provided with a bottom slat on the opposite side from the side on which the screens (7, 9) are rolled up and unrolled; - two or more slat guides which, in the assembled state, guide said bottom slats, each of said slat guides being configured as a said attachment element (11, 12, 38);
A wire rod for cold heading comprising, in percent (%) by weight of the entire composition, C: 0.15 to 0.5%, Si: 0.1 to 0.4%, Mn: 0.3 to 1.5%, Cr: 0.1 to 1.5%, Al: 0.02 to 0.05%, N: 0.004 to 0.02%, at least one selected from the group consisting of Nb: 0.001 to 0.03%, V: 0.01 to 0.3%, Mo: 0.01 to 0.5%, Ti: 0.001 to 0.03%, and the remainder of iron (Fe) and other inevitable impurities, wherein the wire rod comprises a pearlite colony as microstructure, wherein the long and short axis ratio of cementite present in the pearlite colony is 200: 1 or less and wherein a maximum grain size of the pearlite colony is 5 μ m or less; wherein an area fraction of segmented cementite in the pearlite is 5 to 50%; and wherein the wire rod comprises a ferrite as a microstructure, and the maximum ferrite grain size is 5 μ m or less. wherein the wire rod comprises a pearlite colony as microstructure, wherein the long and short axis ratio of cementite present in the pearlite colony is 200: 1 or less and wherein a maximum grain size of the pearlite colony is 5 μ m or less; wherein an area fraction of segmented cementite in the pearlite is 5 to 50%; and wherein the wire rod comprises a ferrite as a microstructure, and the maximum ferrite grain size is 5 μ m or less.
A light source device (17, 31, 32) comprising: a first light source (20A, 20B, 20C) configured to emit a first source light in a first wavelength range; a color wheel (24, 241, 242, 243, 244) comprising: a fluorescent layer (24G, 24C, 24G1, 24G2, 24B2, 24C1, 24C2, 24G3, 24G3, 24C4) configured to emit other light using the first source light as excitation light; a second light source; a light source controller (31, 32) configured to control driving timing for turning on and off each of the first light source (20A, 20B, 20C) and the second light source; characterized in that the second light source is configured to emit a second source light in a second wavelength range that is different from the first wavelength range; and the light source controller (31, 32) controls the color wheel (24, 241, 242, 243, 244) so as to cyclically select one of a color-varying source light modulated by the color wheel (24, 241, 242, 243, 244) and the second source light to be output as an output source light. a first light source (20A, 20B, 20C) configured to emit a first source light in a first wavelength range; a color wheel (24, 241, 242, 243, 244) comprising: a fluorescent layer (24G, 24C, 24G1, 24G2, 24B2, 24C1, 24C2, 24G3, 24G3, 24C4) configured to emit other light using the first source light as excitation light; a second light source; a light source controller (31, 32) configured to control driving timing for turning on and off each of the first light source (20A, 20B, 20C) and the second light source; characterized in that the second light source is configured to emit a second source light in a second wavelength range that is different from the first wavelength range; and the light source controller (31, 32) controls the color wheel (24, 241, 242, 243, 244) so as to cyclically select one of a color-varying source light modulated by the color wheel (24, 241, 242, 243, 244) and the second source light to be output as an output source light. a fluorescent layer (24G, 24C, 24G1, 24G2, 24B2, 24C1, 24C2, 24G3, 24G3, 24C4) configured to emit other light using the first source light as excitation light; a second light source; a light source controller (31, 32) configured to control driving timing for turning on and off each of the first light source (20A, 20B, 20C) and the second light source; characterized in that the second light source is configured to emit a second source light in a second wavelength range that is different from the first wavelength range; and the light source controller (31, 32) controls the color wheel (24, 241, 242, 243, 244) so as to cyclically select one of a color-varying source light modulated by the color wheel (24, 241, 242, 243, 244) and the second source light to be output as an output source light.
A changeover system, comprising: a pair of left and right endless rotary bodies installed along a main conveying path; a multiplicity of article support bodies each attached between the endless rotary bodies and having a direction perpendicular to the main conveying path as a lengthwise direction thereof; and an article transverse pushing body fitted over and guided by the article support body, wherein the article transverse pushing body comprises an upper plate member, a front plate member extending downward from the front end of the upper plate member, a rear plate member extending downward from the rear end of the upper plate member, a bottom plate member disposed between the lower ends of the front plate member and rear plate member, and a transverse pushing action section provided above the upper plate member, the transverse pushing action section having an upper part formed so that a tilted upper surface in which the middle portion in the front-rear direction is tilted forward and downward, and a leading-end upper surface provided at a gradual angle with respect to the tilted upper surface is formed in the front end portion continuous with the tilted upper surface, characterized in that the leading-end upper surface is formed to have a concave circular arc shape and to rise gradually with a small inclination, and the tilted upper surface is formed to have a straight linear shape and to rise gradually at an inclination angle larger than that of the leading-end upper surface. a pair of left and right endless rotary bodies installed along a main conveying path; a multiplicity of article support bodies each attached between the endless rotary bodies and having a direction perpendicular to the main conveying path as a lengthwise direction thereof; and an article transverse pushing body fitted over and guided by the article support body, wherein the article transverse pushing body comprises an upper plate member, a front plate member extending downward from the front end of the upper plate member, a rear plate member extending downward from the rear end of the upper plate member, a bottom plate member disposed between the lower ends of the front plate member and rear plate member, and a transverse pushing action section provided above the upper plate member, the transverse pushing action section having an upper part formed so that a tilted upper surface in which the middle portion in the front-rear direction is tilted forward and downward, and a leading-end upper surface provided at a gradual angle with respect to the tilted upper surface is formed in the front end portion continuous with the tilted upper surface, characterized in that the leading-end upper surface is formed to have a concave circular arc shape and to rise gradually with a small inclination, and the tilted upper surface is formed to have a straight linear shape and to rise gradually at an inclination angle larger than that of the leading-end upper surface.
An automated weighing apparatus comprising: a container, suitable for containing at least one object to be weighed; a container rail, configured to freely support said container which is movably coupled to said container rail; and a supporting frame; characterised in that said supporting frame configured to support the container rail by way of a vertically extending weighing assembly, said weighing assembly being connected adjacent its upper end to the supporting frame and adjacent its lower end to the container rail, said weighing assembly comprising a lifting cylinder, a load cell and a calibration device. a container, suitable for containing at least one object to be weighed; a container rail, configured to freely support said container which is movably coupled to said container rail; and a supporting frame; characterised in that said supporting frame configured to support the container rail by way of a vertically extending weighing assembly, said weighing assembly being connected adjacent its upper end to the supporting frame and adjacent its lower end to the container rail, said weighing assembly comprising a lifting cylinder, a load cell and a calibration device.
A wind turbine comprising at least a blade having an aerodynamic profile with a leading edge, a trailing edge, a suction side and a pressure side between the leading edge and the trailing edge, the blade includes an anti-noise device placed on the suction side formed by a plurality of elements which are bodies of an arrow shape, and said elements are placed on the blade with the arrow tip oriented towards the leading edge or said elements are placed on the blade with the arrow tip oriented towards the trailing edge, creating streamwise aligned coherent vortices that modify the frequency spectra of the boundary layer noise; said plurality of elements of the anti-noise device are placed on the blade individually, leaving spaces between them, or in groups, leaving spaces between the groups, or are placed on the blade side by side without leaving spaces between the plurality of elements, characterized in that said bodies being defined by left and right upper and lower trapezoidal faces (51, 53, 55, 57) with common central sides from the arrow tip to the arrow center and lateral faces (61, 63, 65, 67, 69, 71) extending between said upper and lower trapezoidal faces (51, 53, 55, 57). at least a blade having an aerodynamic profile with a leading edge, a trailing edge, a suction side and a pressure side between the leading edge and the trailing edge, the blade includes an anti-noise device placed on the suction side formed by a plurality of elements which are bodies of an arrow shape, and said elements are placed on the blade with the arrow tip oriented towards the leading edge or said elements are placed on the blade with the arrow tip oriented towards the trailing edge, creating streamwise aligned coherent vortices that modify the frequency spectra of the boundary layer noise; said plurality of elements of the anti-noise device are placed on the blade individually, leaving spaces between them, or in groups, leaving spaces between the groups, or are placed on the blade side by side without leaving spaces between the plurality of elements, characterized in that said bodies being defined by left and right upper and lower trapezoidal faces (51, 53, 55, 57) with common central sides from the arrow tip to the arrow center and lateral faces (61, 63, 65, 67, 69, 71) extending between said upper and lower trapezoidal faces (51, 53, 55, 57).
A base station capable of communicating with a plurality of subscriber stations in a wireless communication network, the base station comprising: a plurality of antennas configured to transmit data and control information; a transmitter coupled to the plurality of antenna and configured to transmit a plurality of symbols in a sub-frame to a subscriber station; and a controller configured to include a bitmap in a downlink control information, DCI, wherein the bitmap is configured to inform the subscriber station regarding a subset of cells within a coordinated multipoint, CoMP, measurement set for channel quality information reporting. a plurality of antennas configured to transmit data and control information; a transmitter coupled to the plurality of antenna and configured to transmit a plurality of symbols in a sub-frame to a subscriber station; and a controller configured to include a bitmap in a downlink control information, DCI, wherein the bitmap is configured to inform the subscriber station regarding a subset of cells within a coordinated multipoint, CoMP, measurement set for channel quality information reporting.