mhurhangee/ep-ind-claims huggingface dataset:
A system for dimming an array of pixels on an active matrix light-emitting diode display including a voltage source and ground, the system comprising: a plurality of pixels, each having an LED, forming a plurality of rows coupled between the voltage source and ground; a plurality of pulse-width modulation row drivers, each of the plurality of PWM row drivers coupled to each of the pixels in one of the plurality of rows and configured to provide current to the one of the plurality of rows during a display cycle, said display cycle being defined as comprising a first time portion comprising a programming period and an illuminating period and a second time portion defined as a vertical blanking period; and a global PWM driver, characterised by the global PWM driver being coupled to all of the pixels in order to provide current to all the pixels so that LEDs of all the pixels are illuminated during at least a portion of the vertical blanking period of the display cycle. a plurality of pixels, each having an LED, forming a plurality of rows coupled between the voltage source and ground; a plurality of pulse-width modulation row drivers, each of the plurality of PWM row drivers coupled to each of the pixels in one of the plurality of rows and configured to provide current to the one of the plurality of rows during a display cycle, said display cycle being defined as comprising a first time portion comprising a programming period and an illuminating period and a second time portion defined as a vertical blanking period; and a global PWM driver, characterised by the global PWM driver being coupled to all of the pixels in order to provide current to all the pixels so that LEDs of all the pixels are illuminated during at least a portion of the vertical blanking period of the display cycle.
A balloon catheter system comprising: a catheter shaft comprising an outer tube and an inner tube which are slidable to each other; a balloon provided between a distal end of said outer tube and a vicinity of a distal end of said inner tube; an electrode configured to deliver radiofrequency current provided in a central portion of said balloon, an external radiofrequency generator configured to supply radiofrequency energy to said electrode for delivery of radiofrequency current through a lead wire to heat said balloon; a temperature sensor; an external thermometer configured to detect a temperature through the temperature sensor inside said balloon and a lead wire of said temperature sensor; a solution transport path formed between said outer tube and said inner tube. In communication with an inside of said balloon; an external vibration generator configured to apply a vibrational wave to an inside of said balloon through said solution transport path and to generate swirls inside said balloon to make temperature inside said balloon uniform; and a guide wire configured to guide said balloon to a target site, wherein said temperature sensor is provided in the vicinity of said electrode, but is separated from said electrode and is fixed to said distal end of said inner tube inside said balloon to detect the temperature of the swirls flowing along an inner surface of said balloon, characterized by a heat insulating material interposed between said temperature sensor and said electrode. a catheter shaft comprising an outer tube and an inner tube which are slidable to each other; a balloon provided between a distal end of said outer tube and a vicinity of a distal end of said inner tube; an electrode configured to deliver radiofrequency current provided in a central portion of said balloon, an external radiofrequency generator configured to supply radiofrequency energy to said electrode for delivery of radiofrequency current through a lead wire to heat said balloon; a temperature sensor; an external thermometer configured to detect a temperature through the temperature sensor inside said balloon and a lead wire of said temperature sensor; a solution transport path formed between said outer tube and said inner tube. In communication with an inside of said balloon; an external vibration generator configured to apply a vibrational wave to an inside of said balloon through said solution transport path and to generate swirls inside said balloon to make temperature inside said balloon uniform; and a guide wire configured to guide said balloon to a target site, wherein said temperature sensor is provided in the vicinity of said electrode, but is separated from said electrode and is fixed to said distal end of said inner tube inside said balloon to detect the temperature of the swirls flowing along an inner surface of said balloon, characterized by a heat insulating material interposed between said temperature sensor and said electrode.
A resource control method, comprising: determining another network suitable for a User Equipment, UE, according to resource information requested by the UE when the UE accesses multiple networks using a same Access Point Name, APN, and sends a resource request in a current network, and notifying information about the determined another network to the UE, characterized in that: when a network-side device refuses to accept the resource request sent by the UE in the current network, the notifying information about the determined another network to the UE comprises: sending, by a Policy and Charging Rule Function, PCRF, an identifier, ID, of a network recommended or specified by the PCRF for the UE to use to a gateway device; and sending, by the gateway device, a Bearer Resource Request Failure Indication message to the UE, wherein the Bearer Resource Request Failure Indication message carries the ID of the network recommended or specified by the PCRF for the UE to use. determining another network suitable for a User Equipment, UE, according to resource information requested by the UE when the UE accesses multiple networks using a same Access Point Name, APN, and sends a resource request in a current network, and notifying information about the determined another network to the UE, when a network-side device refuses to accept the resource request sent by the UE in the current network, the notifying information about the determined another network to the UE comprises: sending, by a Policy and Charging Rule Function, PCRF, an identifier, ID, of a network recommended or specified by the PCRF for the UE to use to a gateway device; and sending, by the gateway device, a Bearer Resource Request Failure Indication message to the UE, wherein the Bearer Resource Request Failure Indication message carries the ID of the network recommended or specified by the PCRF for the UE to use. sending, by a Policy and Charging Rule Function, PCRF, an identifier, ID, of a network recommended or specified by the PCRF for the UE to use to a gateway device; and sending, by the gateway device, a Bearer Resource Request Failure Indication message to the UE, wherein the Bearer Resource Request Failure Indication message carries the ID of the network recommended or specified by the PCRF for the UE to use.
A therapeutic combination consisting of (a) Compound 1 of formula: and (b) one or more antineoplastic agents selected from the group consisting of cisplatin, oxaliplatin, 5-fluorouracil, gemcitabine, cytosine arabinoside (Ara-C), SN-38, irinotecan and docetaxel, wherein the active ingredients of the combination are present in each case in free form or in the form of a pharmaceutically acceptable salt or any hydrate thereof.
Electrical circuit for converting electrical energy between a three-phase electricity network and a single-phase electricity network, with: a multiplicity of first transformers, each first transformer comprising three primary-side windings and a multiplicity of secondary-side windings, each primary-side winding being connectable to a respective phase of the three-phase power system, a multiplicity of first partial converters, each first partial converter being connected to a corresponding secondary-side winding, and wherein the first partial converters each have three phase modules (41, 42, 43), a multiplicity of DC intermediate circuits, each DC intermediate circuit being connected to a corresponding first partial converter, and a multiplicity of second partial converters, each second partial converter being connected to a corresponding DC intermediate circuit, wherein the second partial converters of each first transformer are connected in series with one another at their alternating current side outputs via several series circuits (29, 30, 31); - said electric circuit further comprising a second transformer and switches, each of said series circuits (29, 30, 31) being connected to a respective secondary-side winding (32, 33, 34) of said second transformer, and a single winding being present on the primary side of said second transformer, said single winding being connectable to said single-phase power system via said switches. a multiplicity of first transformers, each first transformer comprising three primary-side windings and a multiplicity of secondary-side windings, each primary-side winding being connectable to a respective phase of the three-phase power system, a multiplicity of first partial converters, each first partial converter being connected to a corresponding secondary-side winding, and wherein the first partial converters each have three phase modules (41, 42, 43), a multiplicity of DC intermediate circuits, each DC intermediate circuit being connected to a corresponding first partial converter, and a multiplicity of second partial converters, each second partial converter being connected to a corresponding DC intermediate circuit, wherein the second partial converters of each first transformer are connected in series with one another at their alternating current side outputs via several series circuits (29, 30, 31); - said electric circuit further comprising a second transformer and switches, each of said series circuits (29, 30, 31) being connected to a respective secondary-side winding (32, 33, 34) of said second transformer, and a single winding being present on the primary side of said second transformer, said single winding being connectable to said single-phase power system via said switches. - said electric circuit further comprising a second transformer and switches, each of said series circuits (29, 30, 31) being connected to a respective secondary-side winding (32, 33, 34) of said second transformer, and a single winding being present on the primary side of said second transformer, said single winding being connectable to said single-phase power system via said switches.
A urea plant, into which a device for waste gas scrubbing is integrated, wherein the device comprises a duct having an inlet opening and an outlet opening, wherein the device is designed in such a way that a waste gas passes, along a transportation direction in the duct, - a first region for removing dust particles from the waste gas and - a second region for removing chemical compounds from the waste gas, which can be integrated by an acid-base reaction into an aqueous liquid phase, wherein a cross-sectional area of the duct extending perpendicularly to the transportation direction in the second region is greater than a cross-sectional area extending perpendicularly to the transportation direction in the first region, characterized in that the device is designed in such a way that the duct extends horizontally at least in sections and/or the transportation direction of the waste gas through the duct extends horizontally in the installed state of the device, wherein the first region comprises a first surface enlargement structure arranged in the duct for removing urea dust particles, and the second region comprises a second surface enlargement structure arranged in the duct for removing chemical compounds from the waste gas, which can be integrated by an acid-base reaction into an aqueous liquid phase, in particular of ammonia. - a first region for removing dust particles from the waste gas and - a second region for removing chemical compounds from the waste gas, which can be integrated by an acid-base reaction into an aqueous liquid phase,
A ceramic heating element, comprising: a honeycomb ceramic body, wherein porous channels are arranged in the honeycomb ceramic body, and the porous channels are circular holes or polygonal holes; and a heating printed circuit, wherein the heating printed circuit is arranged around the outer surface of the honeycomb ceramic body to heat the air passing through the porous channels, characterised in that the honeycomb ceramic body is an alumina honeycomb ceramic body, the alumina honeycomb ceramic body has a density being not less than 3.86 g/cm 3, and the porous channels are uniformly distributed in the honeycomb ceramic body. a honeycomb ceramic body, wherein porous channels are arranged in the honeycomb ceramic body, and the porous channels are circular holes or polygonal holes; and a heating printed circuit, wherein the heating printed circuit is arranged around the outer surface of the honeycomb ceramic body to heat the air passing through the porous channels, characterised in that the honeycomb ceramic body is an alumina honeycomb ceramic body, the alumina honeycomb ceramic body has a density being not less than 3.86 g/cm 3, and the porous channels are uniformly distributed in the honeycomb ceramic body.
A catheter assembly comprising: a wetting fluid (150; 250; 350; 450; 650; 750); a catheter (130; 230; 330; 430; 630; 730) having on its surface, on at least an insertable part thereof, a hydrophilic surface layer providing low-friction surface character of the catheter by treatment with said wetting fluid; and a receptacle (120; 220; 320; 420; 620; 720) enclosing at least the insertable part of the catheter; characterized in that the wetting fluid (150; 250; 350; 450; 650; 750) comprises at least one dissolved osmolality-increasing compound, wherein the total concentration of the dissolved osmolality-increasing compound(s) exceeds 600 mOsm/dm 3.
An ink jet printer having a number of ink discharge nozzles, a number of actuators respectively associated with the nozzles and arranged to create pressure waves in the ink to be discharged from the respective nozzles, and a controller arranged to apply drive signals to the actuators in accordance with print instructions for an image to be printed, wherein the drive signals comprise print pulses causing image forming droplets to be ejected from the nozzles at timings when the respective nozzle faces an image part of a print medium, and spitting pulses causing spit droplets to be ejected from the nozzles at timings when the respective nozzle faces a non-image part of the print medium, characterized in that the drive signals further comprise pre-fire pulses which have an amplitude below a threshold at which ink droplets are ejected, and the controller is arranged to apply the spitting pulses in the form of combined pulse sequences that each comprise a number of pre-fire pulses preceding the spitting pulse.
A compound of Formula I: or a pharmaceutically acceptable salt thereof, wherein: R 1 is CD 3; and R 2 is selected from CH 3, and CD 3; wherein for each site designated as deuterium, deuterium incorporation is at least 90%. R 1 is CD 3; and R 2 is selected from CH 3, and CD 3; wherein for each site designated as deuterium, deuterium incorporation is at least 90%.
Nanocomposite material comprising a SiGe matrix with germanide and optionally silicide nanoinclusions dispersed therein randomly or according to a pattern, said nanoinclusions being made of a material which responds to formula Si n Ge m A p wherein A is a compound selected from transition metals of atomic number 21 to 30, 39 to 42, 44 to 48, and 72 to 80, and lanthanides of atomic number 57 to 60, and 62 to 71, n, m, p are integers. n ≥ 0, m > 0, p > 0. wherein A is a compound selected from transition metals of atomic number 21 to 30, 39 to 42, 44 to 48, and 72 to 80, and lanthanides of atomic number 57 to 60, and 62 to 71, n, m, p are integers. n ≥ 0, m > 0, p > 0.
A gas venting pipe for a vehicle having a forward tiltable cab, which gas venting pipe comprises: a first pipe section mountable to a chassis of the vehicle; a second pipe section mountable to a rear wall of the forward tiltable cab of the vehicle; and a flexible magnet connection adapted to releasably interconnect the first and second pipe sections, wherein the flexible magnet connection comprises a male end part joined with the first pipe section via a flexible pipe portion, a female end part attached to or integrally formed with the second pipe section, in which female end part the male end part at least partly fits, and magnetic means for holding the first and second pipe sections together, wherein the female end part is cone-shaped to form a mouth part, characterised in that the mouth part is wider than a maximum outer width of the male end part, and in that the magnetic means comprises a first magnet arranged in an annular recess at a tip of the male end part, and a second magnet arranged in an annular recess at a bottom of the female end part. a first pipe section mountable to a chassis of the vehicle; a second pipe section mountable to a rear wall of the forward tiltable cab of the vehicle; and a flexible magnet connection adapted to releasably interconnect the first and second pipe sections, wherein the flexible magnet connection comprises a male end part joined with the first pipe section via a flexible pipe portion, a female end part attached to or integrally formed with the second pipe section, in which female end part the male end part at least partly fits, and magnetic means for holding the first and second pipe sections together, wherein the female end part is cone-shaped to form a mouth part, characterised in that the mouth part is wider than a maximum outer width of the male end part, and in that the magnetic means comprises a first magnet arranged in an annular recess at a tip of the male end part, and a second magnet arranged in an annular recess at a bottom of the female end part.
A single-piece woven fiber structure for fabricating an axisymmetric part of varying diameter made out of composite material, the fiber structure having a portion of frustoconical shape with a large diameter and a small diameter, the ratio between the large diameter and the small diameter being not less than 2, the fiber structure being formed by winding layers of warp and weft yarns that are woven on a mandrel having a profile that is defined as a function of the profile of the part to be fabricated with warp yarn take-up, the structure being characterized in that for each layer of warp and weft yarns, the weft yarns (t) are distributed angularly on a single diameter in a zone of the large diameter of the portion of frustoconical shape of the fiber structure and on at least two different diameters in a zone of the small diameter of the portion of frustoconical shape of the fiber structure in order to form at least two superposed plies of weft yarns.
A glass type mobile terminal comprising: a band frame wearable on a user' s head; a light transmissive lens coupled to the band frame to be located in front the user wearing the band frame, the light transmissive lens comprising a transparent screen where an image is focused; a projector for outputting an image toward the transparent screen from a lateral surface of the light transmissive lens; a photo shutter coupled to a front surface of the light transmissive lens, with a controllable transparency; a touch sensor configured to sense touch inputs; and a controller for controlling the transparency of the photo shutter, characterized in that the photo shutter comprises, a first transparent glass having a first transparent electrode layer formed on a first surface; a second transparent glass having a second transparent electrode layer formed on a second surface such that the second transparent electrode layer is spaced apart from the first transparent electrode layer; a liquid crystal layer formed by liquid crystals between the first and second transparent glass; a first polarizing plate coupled to the first transparent glass and configured to arrange light in a first direction; and a second polarizing plate coupled to the second transparent glass and configured to arrange light in a second direction vertical to the first direction, wherein at least the first transparent electrode layer or the second transparent electrode layer is used as a transparent electrode of both the photo shutter and touch sensor at the same time. a band frame wearable on a user' s head; a light transmissive lens coupled to the band frame to be located in front the user wearing the band frame, the light transmissive lens comprising a transparent screen where an image is focused; a projector for outputting an image toward the transparent screen from a lateral surface of the light transmissive lens; a photo shutter coupled to a front surface of the light transmissive lens, with a controllable transparency; a touch sensor configured to sense touch inputs; and a controller for controlling the transparency of the photo shutter,
A device adapted to compensate for differences in surface reflectivity in an active depth sensing system using structured light, comprising: a receiver sensor (208, 304) for capturing an image of a scene onto which a code mask is projected by a projecting light source (202, 302), the image comprising a plurality of regions each corresponding to one or a subset of a plurality of light elements of the projecting light source; a processing circuit adapted to: capture a first image of the scene at a first instance; capture a second image of the scene at a second instance; track one or more black or saturated image regions across the first and second images captured by the receiver sensor; ascertain one or more parameters for each of the plurality of regions of the captured first and second image, wherein parameters are ascertained only for the tracked regions of the images; and individually adjust, for each of the plurality of light elements of the projecting light source, a light source power based on the one or more parameters ascertained for the region of the captured image corresponding to the light element; and decode the code mask in a subsequently captured image. a receiver sensor (208, 304) for capturing an image of a scene onto which a code mask is projected by a projecting light source (202, 302), the image comprising a plurality of regions each corresponding to one or a subset of a plurality of light elements of the projecting light source; a processing circuit adapted to: capture a first image of the scene at a first instance; capture a second image of the scene at a second instance; track one or more black or saturated image regions across the first and second images captured by the receiver sensor; ascertain one or more parameters for each of the plurality of regions of the captured first and second image, wherein parameters are ascertained only for the tracked regions of the images; and individually adjust, for each of the plurality of light elements of the projecting light source, a light source power based on the one or more parameters ascertained for the region of the captured image corresponding to the light element; and decode the code mask in a subsequently captured image. capture a first image of the scene at a first instance; capture a second image of the scene at a second instance; track one or more black or saturated image regions across the first and second images captured by the receiver sensor; ascertain one or more parameters for each of the plurality of regions of the captured first and second image, wherein parameters are ascertained only for the tracked regions of the images; and individually adjust, for each of the plurality of light elements of the projecting light source, a light source power based on the one or more parameters ascertained for the region of the captured image corresponding to the light element; and decode the code mask in a subsequently captured image.