mhurhangee/ep-ind-claims huggingface dataset:
A projector system comprising: a curved screen of transmissive type having a convex rear side as viewed from a user; a plurality of projector apparatuses, each projector apparatus configured to project a picture onto the curved screen using an ordinary field angle lens; and a control unit configured to receive a picture taken by an imaging apparatus using a super-wide angle lens, to divide the picture into a plurality of pictures, providing an overlapping region between pictures, and to supply a plurality of divided pictures to the plurality of projector apparatuses, respectively, wherein an optical axis of light projected by the plurality of projector apparatuses intersect at a position farther than a central point of the curved screen as viewed from the plurality of projector apparatuses. a curved screen of transmissive type having a convex rear side as viewed from a user; a plurality of projector apparatuses, each projector apparatus configured to project a picture onto the curved screen using an ordinary field angle lens; and a control unit configured to receive a picture taken by an imaging apparatus using a super-wide angle lens, to divide the picture into a plurality of pictures, providing an overlapping region between pictures, and to supply a plurality of divided pictures to the plurality of projector apparatuses, respectively, wherein an optical axis of light projected by the plurality of projector apparatuses intersect at a position farther than a central point of the curved screen as viewed from the plurality of projector apparatuses.
A helmet comprising: a helmet body including an inner surface, an outer surface and a lower surface extending between the inner surface and the outer surface, the helmet body comprising an energy-management liner disposed between the inner surface and the outer surface, the helmet body further including a first side and a second side; a fit system comprising a first strap and a second strap, the first strap attached to the helmet body at one or more first attachment points on the first side of the helmet body, the second strap attached to the helmet body at one or more second attachment points on the second side of the helmet body, characterized in that at least a portion of the first strap and a portion of the second strap are illuminable; one or more first light sources positioned adjacent the lower surface on the first side of the helmet body and configured to emit a first light from adjacent the lower surface to illuminate an end of the illuminable portion of the first strap so that the illuminable portion of the first strap is lit by light traveling or reflecting within the illuminable portion of the first strap; and one or more second light sources positioned adjacent the lower surface on the second side of the helmet body and configured to emit a second light from adjacent the lower surface to illuminate an end of the illuminable portion of the second strap so that the illuminable portion of the second strap is lit by light traveling or reflecting within the illuminable portion of the second strap. a helmet body including an inner surface, an outer surface and a lower surface extending between the inner surface and the outer surface, the helmet body comprising an energy-management liner disposed between the inner surface and the outer surface, the helmet body further including a first side and a second side; a fit system comprising a first strap and a second strap, the first strap attached to the helmet body at one or more first attachment points on the first side of the helmet body, the second strap attached to the helmet body at one or more second attachment points on the second side of the helmet body, characterized in that at least a portion of the first strap and a portion of the second strap are illuminable; one or more first light sources positioned adjacent the lower surface on the first side of the helmet body and configured to emit a first light from adjacent the lower surface to illuminate an end of the illuminable portion of the first strap so that the illuminable portion of the first strap is lit by light traveling or reflecting within the illuminable portion of the first strap; and one or more second light sources positioned adjacent the lower surface on the second side of the helmet body and configured to emit a second light from adjacent the lower surface to illuminate an end of the illuminable portion of the second strap so that the illuminable portion of the second strap is lit by light traveling or reflecting within the illuminable portion of the second strap.
A method of measuring the transit time of an ultrasonic wave in a medium, comprising:- passing an ultrasonic wave pulse through a timing path in the medium, the ultrasonic wave pulse including a plurality of cycles; receiving the ultrasonic wave pulse at the exit of the timing path; comparing a first signal representative of the ultrasonic wave pulse on entry to the timing path with a second signal representative of the ultrasonic wave pulse received at the exit of the timing path, the said first and second signals each including a plurality of cycles; thereby correlating at least one cycle of the first signal with a corresponding cycle of the second signal; determining a zero-crossing point associated with the said cycle of the first signal; determining a zero-crossing point associated with the said corresponding cycle of the second signal; measuring the time interval between the said zero crossing points; and thereby determining the transit time of the ultrasonic wave through the medium, wherein the said at least one cycle of the first and second signals is selected to be one with an amplitude which most closely approximates to a selected fraction of the maximum amplitude of the corresponding wave pulse. passing an ultrasonic wave pulse through a timing path in the medium, the ultrasonic wave pulse including a plurality of cycles; receiving the ultrasonic wave pulse at the exit of the timing path; comparing a first signal representative of the ultrasonic wave pulse on entry to the timing path with a second signal representative of the ultrasonic wave pulse received at the exit of the timing path, the said first and second signals each including a plurality of cycles; thereby correlating at least one cycle of the first signal with a corresponding cycle of the second signal; determining a zero-crossing point associated with the said cycle of the first signal; determining a zero-crossing point associated with the said corresponding cycle of the second signal; measuring the time interval between the said zero crossing points; and thereby determining the transit time of the ultrasonic wave through the medium, wherein the said at least one cycle of the first and second signals is selected to be one with an amplitude which most closely approximates to a selected fraction of the maximum amplitude of the corresponding wave pulse.
Circuit for actuating semiconductor light-emitting elements, - wherein the circuit is supplied by a rectified mains voltage (U 703), - comprising at least two series-connected segments (101, 102, 103), which each have one or more series-connected semiconductor light-emitting elements, - wherein the semiconductor light-emitting elements in at least two of the segments are different, which results in different forward voltages of the segments, - comprising in each case one driver for actuating a segment, wherein the driver has at least one electronic switch (SW3, 717, 820, 727), by means of which the segment assigned to the driver can be bypassed, characterized in that the circuit is designed to decide to bypass the segment assigned to the driver, on the basis of an instantaneous value of the rectified mains voltage (U 703) and on the basis of the bypass state of the segments adjacent to the driver. - wherein the circuit is supplied by a rectified mains voltage (U 703), - comprising at least two series-connected segments (101, 102, 103), which each have one or more series-connected semiconductor light-emitting elements, - wherein the semiconductor light-emitting elements in at least two of the segments are different, which results in different forward voltages of the segments, - comprising in each case one driver for actuating a segment, wherein the driver has at least one electronic switch (SW3, 717, 820, 727), by means of which the segment assigned to the driver can be bypassed, characterized in that the circuit is designed to decide to bypass the segment assigned to the driver, on the basis of an instantaneous value of the rectified mains voltage (U 703) and on the basis of the bypass state of the segments adjacent to the driver.
An adhesive composition comprising: (a) a first component: (b) a second component that chemically reacts with said first component; and (c) graphenic carbon particles having a compressed density of 0.9 or less, calculated according to the following formula: Compressed Density g / cm 3 = 0.1 grams graphenic carbon particles Π * 1.3 cm / 2 2 * measured thickness in cm wherein the measured thickness is determined by subjecting 0.1 gram of the graphenic carbon particles to cold press under 66,723 N (15,000 pound of force) in a 1.3 centimeter die for 45 minutes (contact pressure = 500 MPa pressure), wherein the graphenic carbon particles are made by thermal processes, in which (i) a methane precursor material is introduced into a thermal zone; and (ii) the methane precursor is heated in the thermal zone to form the graphenic carbon particles. (a) a first component: (b) a second component that chemically reacts with said first component; and (c) graphenic carbon particles having a compressed density of 0.9 or less, calculated according to the following formula: Compressed Density g / cm 3 = 0.1 grams graphenic carbon particles Π * 1.3 cm / 2 2 * measured thickness in cm
A gateway in a communications network comprising: a femto gateway functionality residing in the gateway and for communicating with a plurality of femto cells that acts as a proxy for each femto cell with which the gateway communicates by aggregating communications from the plurality of femto cells and communicating as a proxy with a core network on behalf of the plurality of femto cells; a security gateway functionality residing in the gateway that provides a secure connection and tunnels different protocols over a broadband network between each femto cell and the gateway; the proxy of the femto gateway functionality being configured for communicating with other radio access network equipment to provide for a handoff of a mobile node and for hiding individual femto cells from the core network. a femto gateway functionality residing in the gateway and for communicating with a plurality of femto cells that acts as a proxy for each femto cell with which the gateway communicates by aggregating communications from the plurality of femto cells and communicating as a proxy with a core network on behalf of the plurality of femto cells; a security gateway functionality residing in the gateway that provides a secure connection and tunnels different protocols over a broadband network between each femto cell and the gateway; the proxy of the femto gateway functionality being configured for communicating with other radio access network equipment to provide for a handoff of a mobile node and for hiding individual femto cells from the core network.
A battery module, comprising: - two or more battery cells; - a housing including a base plate, a housing frame and a cover plate; and - a gasket interposed between the base plate and the housing frame, respectively the cover plate and the housing frame, characterized in that an upper flange of the housing frame facing the cover plate and/or a lower flange of the housing frame facing the base plate has a stepped contour including a recess at an inner side of the housing frame, wherein the gasket is arranged within the recess, and wherein the gasket is adhered to the base plate and/or the cover plate. - two or more battery cells; - a housing including a base plate, a housing frame and a cover plate; and - a gasket interposed between the base plate and the housing frame, respectively the cover plate and the housing frame,
A cell culture apparatus comprising: a flexible and transparent sterile bag that is installed at a prescribed position in the cell culture apparatus and in which a cell contained in a cell culture solution is cultured; and a turbidity sensor that is located outside the sterile bag and that includes a light emitter which emits light to the cell culture solution in the sterile bag via a first portion of the sterile bag, a light receiver which receives the light after transmission through the cell culture solution in the sterile bag via a second portion of the sterile bag, and that is configured to place the light emitter, the first portion of the sterile bag, the second portion of the sterile bag, and the light receiver, optically on a same straight line. a flexible and transparent sterile bag that is installed at a prescribed position in the cell culture apparatus and in which a cell contained in a cell culture solution is cultured; and a turbidity sensor that is located outside the sterile bag and that includes a light emitter which emits light to the cell culture solution in the sterile bag via a first portion of the sterile bag, a light receiver which receives the light after transmission through the cell culture solution in the sterile bag via a second portion of the sterile bag, and that is configured to place the light emitter, the first portion of the sterile bag, the second portion of the sterile bag, and the light receiver, optically on a same straight line.
A communication method, comprising: determining, by a network device, a plurality of pieces of quasi co-location information, wherein the plurality of pieces of quasi co-location information correspond to a plurality of antenna port sets of a first control resource set, and each piece of quasi co-location information in the plurality of pieces of quasi co-location information is used to indicate a quasi co-location characteristic of an antenna port set corresponding to each piece of quasi co-location information; and sending, by the network device, the plurality of pieces of quasi co-location information to a terminal device, wherein the first control resource set comprises a plurality of resource sets, and the plurality of resource sets respectively correspond to the plurality of antenna port sets, and wherein the method further comprises: sending, by the network device, resource allocation indication information to the terminal device, wherein the resource allocation indication information is used to indicate allocation rule information of the plurality of resource sets comprised in the first control resource set. determining, by a network device, a plurality of pieces of quasi co-location information, wherein the plurality of pieces of quasi co-location information correspond to a plurality of antenna port sets of a first control resource set, and each piece of quasi co-location information in the plurality of pieces of quasi co-location information is used to indicate a quasi co-location characteristic of an antenna port set corresponding to each piece of quasi co-location information; and sending, by the network device, the plurality of pieces of quasi co-location information to a terminal device, wherein the first control resource set comprises a plurality of resource sets, and the plurality of resource sets respectively correspond to the plurality of antenna port sets, and wherein the method further comprises: sending, by the network device, resource allocation indication information to the terminal device, wherein the resource allocation indication information is used to indicate allocation rule information of the plurality of resource sets comprised in the first control resource set.
A device for recognizing foreign parts in the spinning preparation, including an inspection channel, through which a stream of fibre material is guidable, wherein foreign parts to be recognized are present in the stream of fibre material, for this purpose a first lighting unit and at least one second lighting unit being provided for irradiating light (16, 17) into the inspection channel, and wherein at least one camera is provided, by means of which light (16, 17) is detectable, which the lighting units produce and which is reflected from the foreign part, characterized in that the first lighting unit is formed for emitting light with a first polarization direction and the second lighting unit for emitting light with a second polarization direction, wherein the second polarization direction differs from the first polarization direction.
A method of differentially identifying a pancreatic cyst, comprising: testing nucleic acids isolated from cyst fluid or epithelial cells of the pancreatic cyst for mutations characteristic of pancreatic cysts, wherein at least one gene from each of the following groups is tested: a. VHL; b. GNAS; c. RNF43, KRAS; and d. CTNNB1. testing nucleic acids isolated from cyst fluid or epithelial cells of the pancreatic cyst for mutations characteristic of pancreatic cysts, wherein at least one gene from each of the following groups is tested: a. VHL; b. GNAS; c. RNF43, KRAS; and d. CTNNB1. a. VHL; b. GNAS; c. RNF43, KRAS; and d. CTNNB1.
A method of producing a carbon fiber-nonmetal composite material, the method comprising replacing the thermoplastic resin in a carbon fiber composite material with a nonmetal matrix material, wherein the carbon fiber composite material comprises: a thermoplastic resin; carbon nanofibers dispersed in the thermoplastic resin; and dispersing particles which promote dispersion of the carbon nanofibers in the thermoplastic resin; wherein the carbon nanofibers are carbon nanotubes having an average diameter of 0.5 to 500 nm and, as the dispersing particles, there are used metal particles either individually or in combination of two or more, or nonmetal particles of ceramics, glass, either individually or in combination of two or more; and wherein the carbon fiber composite material has a first-component spin-spin relaxation time (T2s) measured at 250 °C of 100 to 1,000 μsec, either without the second-component spin-spin relaxation time or the second-component spin-spin relaxation time being less than 20,000 μsec and the fraction of components having the second-component spin-spin relaxation time being less than 0.2, as measured at 250 °C by the Hahn-echo method using a pulsed NMR technique with 1 H as an observing nucleus. a thermoplastic resin; carbon nanofibers dispersed in the thermoplastic resin; and dispersing particles which promote dispersion of the carbon nanofibers in the thermoplastic resin; wherein the carbon nanofibers are carbon nanotubes having an average diameter of 0.5 to 500 nm and, as the dispersing particles, there are used metal particles either individually or in combination of two or more, or nonmetal particles of ceramics, glass, either individually or in combination of two or more; and wherein the carbon fiber composite material has a first-component spin-spin relaxation time (T2s) measured at 250 °C of 100 to 1,000 μsec, either without the second-component spin-spin relaxation time or the second-component spin-spin relaxation time being less than 20,000 μsec and the fraction of components having the second-component spin-spin relaxation time being less than 0.2, as measured at 250 °C by the Hahn-echo method using a pulsed NMR technique with 1 H as an observing nucleus.
Method for providing access to private digital content, owned by an owner and installed on a content server, to a first client which is capable of rendering said digital content, comprising - generating predetermined information by a second client, required for gaining authorized access to said content server by said first client; - transferring (216, 218, 220) said predetermined information from said second client to said first client; - using (203, 209, 211') said predetermined information by said first client to get access to said private digital content; the method further comprising; - transferring (215, 217, 219) first client specific information comprising a consumer key, and a consumer secret established between the first client and the content server over a secure connection during an initiation phase from said first client to said second client; and wherein said predetermined information is dependent on said first client specific information and comprises information to authenticate the first client to the content server. - generating predetermined information by a second client, required for gaining authorized access to said content server by said first client; - transferring (216, 218, 220) said predetermined information from said second client to said first client; - using (203, 209, 211') said predetermined information by said first client to get access to said private digital content; the method further comprising; - transferring (215, 217, 219) first client specific information comprising a consumer key, and a consumer secret established between the first client and the content server over a secure connection during an initiation phase from said first client to said second client; - transferring (216, 218, 220) said predetermined information from said second client to said first client; - using (203, 209, 211') said predetermined information by said first client to get access to said private digital content; the method further comprising; - transferring (215, 217, 219) first client specific information comprising a consumer key, and a consumer secret established between the first client and the content server over a secure connection during an initiation phase from said first client to said second client;