mhurhangee/ep-ind-claims huggingface dataset:
A focused ultrasound device comprising: an ultrasound probe structure comprising a treatment transducer for transmitting a focused ultrasound signal and an image transducer for transmitting and receiving an ultrasonic image signal; a reception switch for selecting a plurality of first elements among elements of the image transducer as a protection area and deactivating same, and selecting a plurality of second other elements among the elements of the image transducer as a reception area and activating same; an image beamformer for forming a reception beam signal by focusing ultrasonic echo signals received from the plurality of second elements; an image generation unit for generating an image for a target area in an object on the basis of the reception beam signal; and a control unit for controlling the selection of the protection area and reception area by means of a reception switch, characterized in that the plurality of first elements are in a central area of the image transducer in which the focused ultrasound signal reflected from an interface of the ultrasound probe structure to the image transducer is concentrated and the plurality of second elements are in a peripheral area of the image transducer. an ultrasound probe structure comprising a treatment transducer for transmitting a focused ultrasound signal and an image transducer for transmitting and receiving an ultrasonic image signal; a reception switch for selecting a plurality of first elements among elements of the image transducer as a protection area and deactivating same, and selecting a plurality of second other elements among the elements of the image transducer as a reception area and activating same; an image beamformer for forming a reception beam signal by focusing ultrasonic echo signals received from the plurality of second elements; an image generation unit for generating an image for a target area in an object on the basis of the reception beam signal; and a control unit for controlling the selection of the protection area and reception area by means of a reception switch, characterized in that the plurality of first elements are in a central area of the image transducer in which the focused ultrasound signal reflected from an interface of the ultrasound probe structure to the image transducer is concentrated and the plurality of second elements are in a peripheral area of the image transducer.
A modular lighting system comprising: an array of LEDs; a driver module providing a communication port and adapted to: communicate with each of a plurality of different external devices (32. 88, 90) that are separate from the driver module, over a communication bus via the communication port; and drive the array of LEDs in response to information received from at least one of the plurality of different external devices that is coupled to the communication bus such that the driver module is configured to be controlled by each of the plurality of different external devices, wherein: one of the plurality of different external devices (90 O) comprises an occupancy sensor and the driver module is adapted to receive occupancy related information from the occupancy sensor; and a bridge module (32, 88) comprising one of the plurality of different external devices, the bridge module (32, 88) adapted to communicate with the driver module using a first protocol and communicate with a remote control system using a second protocol, which is different from the first protocol, wherein the driver module is configured to provide power directly to the plurality of different external devices, including the bridge module, via a power port. an array of LEDs; a driver module providing a communication port and adapted to: communicate with each of a plurality of different external devices (32. 88, 90) that are separate from the driver module, over a communication bus via the communication port; and drive the array of LEDs in response to information received from at least one of the plurality of different external devices that is coupled to the communication bus such that the driver module is configured to be controlled by each of the plurality of different external devices, wherein: one of the plurality of different external devices (90 O) comprises an occupancy sensor and the driver module is adapted to receive occupancy related information from the occupancy sensor; and communicate with each of a plurality of different external devices (32. 88, 90) that are separate from the driver module, over a communication bus via the communication port; and drive the array of LEDs in response to information received from at least one of the plurality of different external devices that is coupled to the communication bus such that the driver module is configured to be controlled by each of the plurality of different external devices, wherein: one of the plurality of different external devices (90 O) comprises an occupancy sensor and the driver module is adapted to receive occupancy related information from the occupancy sensor; and a bridge module (32, 88) comprising one of the plurality of different external devices, the bridge module (32, 88) adapted to communicate with the driver module using a first protocol and communicate with a remote control system using a second protocol, which is different from the first protocol, wherein the driver module is configured to provide power directly to the plurality of different external devices, including the bridge module, via a power port.
A method of performing codebook-based, closed-loop transmission via N antennas, where N is an integer two or greater, comprising: providing an NxM differential codebook, where M is an integer number of data streams that is less than N; generating an Nx(N-M) differential codebook from the NxM differential codebook, including: performing a complementary expansion of the NxM differential codebook, by adding complementary and orthogonal columns; and precoding (N-M) streams of data for transmission via the N antennas using a codeword chosen from the Nx(N-M) differential codebook. providing an NxM differential codebook, where M is an integer number of data streams that is less than N; generating an Nx(N-M) differential codebook from the NxM differential codebook, including: performing a complementary expansion of the NxM differential codebook, by adding complementary and orthogonal columns; and performing a complementary expansion of the NxM differential codebook, by adding complementary and orthogonal columns; and precoding (N-M) streams of data for transmission via the N antennas using a codeword chosen from the Nx(N-M) differential codebook.
A method for indexing an asset, the method comprising: generating for display a progress bar for the asset; skipping a first portion of the asset; playing the asset from a first point corresponding substantially to the end of the skipped portion to a second point, later than the first point; storing a played-from index corresponding to the first point and a first video clip of the asset around the first point; storing a played-to index corresponding to the second point and a second video clip of the asset around the second point; generating for display a marker overlaid on the progress bar from the first point corresponding to the played-from index to the second point corresponding to the played-to index; and generating, for display with the progress bar and the marker, the first video clip and the second video clip. generating for display a progress bar for the asset; skipping a first portion of the asset; playing the asset from a first point corresponding substantially to the end of the skipped portion to a second point, later than the first point; storing a played-from index corresponding to the first point and a first video clip of the asset around the first point; storing a played-to index corresponding to the second point and a second video clip of the asset around the second point; generating for display a marker overlaid on the progress bar from the first point corresponding to the played-from index to the second point corresponding to the played-to index; and generating, for display with the progress bar and the marker, the first video clip and the second video clip.
An ear-worn electronic device configured to be worn by a wearer, comprising: a housing configured to be supported at, by, in or on the wearer's ear, a processor (102, 206) disposed in the housing; a speaker or a receiver (110, 252a, 252b) operably coupled to the processor (102, 206); a radio frequency transceiver disposed in the housing and operably coupled to the processor (102, 206); and a battery-antenna module (105, 220a, 220b, 308, 400, 500, 600, 800) disposed in the housing and comprising: a battery (106, 221a, 221b, 304, 404, 504, 604, 804); a helical antenna (108, 402, 502) wrapped around the battery (106, 221a, 221b, 304, 404, 504, 604, 804) and operably coupled to the transceiver; and electrically insulating material (515, 607, 707) disposed between the helical antenna (108, 402, 502) and the battery (106, 221a, 221b, 304, 404, 504, 604, 804), the ear-worn electronic device being characterised in that the helical antenna (108, 402, 502) comprises a ground plane (408, 508), and the battery (106, 221a, 221b, 304, 404, 504, 604, 804) is situated on the ground plane (408, 508). a housing configured to be supported at, by, in or on the wearer's ear, a processor (102, 206) disposed in the housing; a speaker or a receiver (110, 252a, 252b) operably coupled to the processor (102, 206); a radio frequency transceiver disposed in the housing and operably coupled to the processor (102, 206); and a battery-antenna module (105, 220a, 220b, 308, 400, 500, 600, 800) disposed in the housing and comprising: a battery (106, 221a, 221b, 304, 404, 504, 604, 804); a helical antenna (108, 402, 502) wrapped around the battery (106, 221a, 221b, 304, 404, 504, 604, 804) and operably coupled to the transceiver; and electrically insulating material (515, 607, 707) disposed between the helical antenna (108, 402, 502) and the battery (106, 221a, 221b, 304, 404, 504, 604, 804), the ear-worn electronic device being characterised in that the helical antenna (108, 402, 502) comprises a ground plane (408, 508), and the battery (106, 221a, 221b, 304, 404, 504, 604, 804) is situated on the ground plane (408, 508). a battery (106, 221a, 221b, 304, 404, 504, 604, 804); a helical antenna (108, 402, 502) wrapped around the battery (106, 221a, 221b, 304, 404, 504, 604, 804) and operably coupled to the transceiver; and electrically insulating material (515, 607, 707) disposed between the helical antenna (108, 402, 502) and the battery (106, 221a, 221b, 304, 404, 504, 604, 804), the ear-worn electronic device being characterised in that the helical antenna (108, 402, 502) comprises a ground plane (408, 508), and the battery (106, 221a, 221b, 304, 404, 504, 604, 804) is situated on the ground plane (408, 508).
A saddle-type vehicle including a seating assembly (41, 42) for an occupant to be seated thereon and a tilting mechanism tilting said seating assembly (41, 42), the saddle-type vehicle comprising a controller configured to control said tilting mechanism, wherein said tilting mechanism serves as a mechanism for tilting a seating surface (41A, 42A) of said seating assembly (41, 42), the saddle-type vehicle being characterized in that said controller carries out at least either one of a control process for tilting said seating surface (41A, 42A) such that said seating assembly (41, 42) has a rear portion lifted upwardly on the basis of acceleration of said saddle-type vehicle and a control process for tilting said seating surface (41A, 42A) such that said seating assembly (41, 42) has a front portion lifted upwardly on the basis of deceleration of said saddle-type vehicle. a controller configured to control said tilting mechanism, wherein said tilting mechanism serves as a mechanism for tilting a seating surface (41A, 42A) of said seating assembly (41, 42), the saddle-type vehicle being characterized in that said controller carries out at least either one of a control process for tilting said seating surface (41A, 42A) such that said seating assembly (41, 42) has a rear portion lifted upwardly on the basis of acceleration of said saddle-type vehicle and a control process for tilting said seating surface (41A, 42A) such that said seating assembly (41, 42) has a front portion lifted upwardly on the basis of deceleration of said saddle-type vehicle.
Application head specially designed for producing composite material parts, comprising an application roller, guiding means defining a guiding plane and a cutting system for cutting a fiber guided by the guiding means and applied by the application roller, the cutting system comprising a first tool movable in translation along a cutting direction (Tc) and a second tool, the first tool and the second tool of the cutting system being formed by two blades, or a blade and a counter-tool, characterized in that the cutting system comprises an integrated control means able to displace at least the first tool in translation along the cutting direction (Tc) and to displace the first and second tool (51, 53) together, in rotation around a direction parallel to the application roller, such that the first and second cutting tools maintain their alignment along the cutting direction while being displaced.
Anti-viral, anti-microbial and stimulating immunity food supplement, characterized in that it includes the following components in weight percentages: - liquorice - Glycyrrhiza glabra from 1,19% to 47,61%, - sweet wormwood - Artemisia annua from 1,19% to 47,61%, - quinine bark extract - Cinchona from 1,19% to 47,61%, - hawthorn extract - Crataegus from 1,19% to 47,61%, - dandelion extract - Taraxcum from 1,19% to 47,61%, - vitamin C - Ascorbic acid from 1,19% to 47,61%, - D-D- Galacturonic acid from 1,19% to 47,61%, - apple pectin from 1,19% to 47,61%, - bitter orange - Citrus aurantium from 1,19% to 47,61%, - ginger - Zingiber officinale from 0,23% to 11,9%, - Radix isatidis from 0,23% to 11,9%, - Lindera aggregate from 0,23% to 11,9%, - woad - Isatis indigotica from 0,23% to 9,52%, - Torreya nucifera from 0,23% to 9,52%, - geranium extract - Pelargonium from 0,23% to 9,52%, - Zinc from 0,23% to 2,38% and - Sodium Selenite from 0,00119% to 0,04762%. - liquorice - Glycyrrhiza glabra from 1,19% to 47,61%, - sweet wormwood - Artemisia annua from 1,19% to 47,61%, - quinine bark extract - Cinchona from 1,19% to 47,61%, - hawthorn extract - Crataegus from 1,19% to 47,61%, - dandelion extract - Taraxcum from 1,19% to 47,61%, - vitamin C - Ascorbic acid from 1,19% to 47,61%, - D-D- Galacturonic acid from 1,19% to 47,61%, - apple pectin from 1,19% to 47,61%, - bitter orange - Citrus aurantium from 1,19% to 47,61%, - ginger - Zingiber officinale from 0,23% to 11,9%, - Radix isatidis from 0,23% to 11,9%, - Lindera aggregate from 0,23% to 11,9%, - woad - Isatis indigotica from 0,23% to 9,52%, - Torreya nucifera from 0,23% to 9,52%, - geranium extract - Pelargonium from 0,23% to 9,52%, - Zinc from 0,23% to 2,38% and - Sodium Selenite from 0,00119% to 0,04762%.
A computer-implemented method of dynamically batching a video stream from a video camera (301a, 301b, 301n), said video camera connected to a packet-switched network; the method comprising the steps of: capturing 401, by the video camera, a video stream; identifying 403 two or more intended subscribers of the video stream, said subscribers connected to the video camera via the packet-switched network; determining 404 a sensitivity to latency for each subscriber; batching 405 the video stream into a plurality of batches, wherein the size of each batch of the plurality of batches is based on the subscriber determined to be most sensitive to latency; and transmitting 406 the plurality of batches of the video stream to each subscriber; wherein determining a sensitivity to latency includes identifying a type of subscriber. capturing 401, by the video camera, a video stream; identifying 403 two or more intended subscribers of the video stream, said subscribers connected to the video camera via the packet-switched network; determining 404 a sensitivity to latency for each subscriber; batching 405 the video stream into a plurality of batches, wherein the size of each batch of the plurality of batches is based on the subscriber determined to be most sensitive to latency; and transmitting 406 the plurality of batches of the video stream to each subscriber;
Method for determining the point of impact of flying objects in a defined target area, wherein - a number of radar units (20, 20') each having a detection area (21, 21') with a central axis (22, 22') are arranged in at least one area in the vicinity of the target area, - distance values of an object flying through the detection areas are detected, - the flight path of the object is determined by evaluating these distance values and the known geometric arrangement of the radar units, and - the resulting point of impact in the target area is then calculated on the basis of the determined flight path, wherein the detection areas of at least adjacent radar units overlap or touch each other at least in regions and wherein their central axes have different direction vectors (23, 23'), characterized in that a target with impact sensor is fitted in the region of the target area, and in that the determination of the point of impact takes into account whether the impact sensor has responded. - a number of radar units (20, 20') each having a detection area (21, 21') with a central axis (22, 22') are arranged in at least one area in the vicinity of the target area, - distance values of an object flying through the detection areas are detected, - the flight path of the object is determined by evaluating these distance values and the known geometric arrangement of the radar units, and - the resulting point of impact in the target area is then calculated on the basis of the determined flight path, wherein
A method for fabricating a stiffened panel formed by an outer-mold-line layer and an inner-mold-line layer having a surface with protrusions, the method comprising: placing layers of composite material on a surface of an inner-mold-line tool having protrusions that extend from the surface of the inner-mold-line tool; compacting the layers of composite material laid-up on the surface of the inner-mold-line tool using an intensifier to form compacted layers of composite material, wherein the intensifier has a symmetrical shape of the inner-mold-line tool on which the layers of composite material are laid-up to form compacted layers of composite material; curing the compacted layers of composite material to form the inner-mold-line layer having corresponding protrusions; and joining the inner-mold-line layer to the outer-mold-line layer comprises bonding the inner-mold-line layer to the outer-mold-line layer using a bonding tool which is positioned on the inner-mold-layer, includes protrusions and applies a pressure at bond locations between the inner-mold-line layer and the outer-mold-line layer, wherein the bond locations comprise depressions of the inner-mold-line layer. placing layers of composite material on a surface of an inner-mold-line tool having protrusions that extend from the surface of the inner-mold-line tool; compacting the layers of composite material laid-up on the surface of the inner-mold-line tool using an intensifier to form compacted layers of composite material, wherein the intensifier has a symmetrical shape of the inner-mold-line tool on which the layers of composite material are laid-up to form compacted layers of composite material; curing the compacted layers of composite material to form the inner-mold-line layer having corresponding protrusions; and joining the inner-mold-line layer to the outer-mold-line layer comprises bonding the inner-mold-line layer to the outer-mold-line layer using a bonding tool which is positioned on the inner-mold-layer, includes protrusions and applies a pressure at bond locations between the inner-mold-line layer and the outer-mold-line layer, wherein the bond locations comprise depressions of the inner-mold-line layer.
A suspension comprising solid lipid nanoparticle in an aqueous phase as a coloring composition in a food product, wherein the SLN comprise a. a core comprising: i. a lipid having a melting point above 40°C, and ii. an oil-soluble pigment b. a dual surfactant system comprising i. a polysorbate, and ii. a phospholipid wherein the ratio of polysorbate:phospholipid (i:ii) in said dual surfactant system is between 10:1 and 1:10 and the amount of pigment is 5-40% w/w of said SLN; wherein said suspension comprises: i. the lipid having a melting point above 40°C, in an amount of 10-35% w/w of the total suspension; and ii. the oil-soluble pigment, in an amount of 1-5% w/w of the total suspension; and iii. the dual surfactant system, in an amount of 1-25% w/w of the total suspension. a. a core comprising: i. a lipid having a melting point above 40°C, and ii. an oil-soluble pigment i. a lipid having a melting point above 40°C, and ii. an oil-soluble pigment b. a dual surfactant system comprising i. a polysorbate, and ii. a phospholipid i. a polysorbate, and ii. a phospholipid wherein the ratio of polysorbate:phospholipid (i:ii) in said dual surfactant system is between 10:1 and 1:10 and the amount of pigment is 5-40% w/w of said SLN; wherein said suspension comprises: i. the lipid having a melting point above 40°C, in an amount of 10-35% w/w of the total suspension; and ii. the oil-soluble pigment, in an amount of 1-5% w/w of the total suspension; and iii. the dual surfactant system, in an amount of 1-25% w/w of the total suspension. i. the lipid having a melting point above 40°C, in an amount of 10-35% w/w of the total suspension; and ii. the oil-soluble pigment, in an amount of 1-5% w/w of the total suspension; and iii. the dual surfactant system, in an amount of 1-25% w/w of the total suspension.