mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: executing a single instruction at a processor, wherein executing the single instruction includes: receiving first data indicating a first coordinate and a second coordinate; receiving a first control value that indicates a first rotation value selected from a set of ninety degree multiples, wherein the set of ninety degree multiples includes zero degrees, ninety degrees, one hundred eighty degrees, and two hundred seventy degrees, and wherein executing the single instruction further comprises: determining output data during a single execution cycle at a single execution unit of the processor, wherein the single execution unit includes swap circuitry and negation circuitry configured for swapping the first coordinate and the second coordinate when the first rotation value corresponds to ninety degrees or two hundred seventy degrees; and negating at least one of the first coordinate and the second coordinate when the first rotation value corresponds to ninety degrees, one hundred eighty degrees, or two hundred seventy degrees;and writing output data to a data storage element, the output data corresponding to the first data rotated by the first rotation value around the coordinate origin. executing a single instruction at a processor, wherein executing the single instruction includes: receiving first data indicating a first coordinate and a second coordinate; receiving a first control value that indicates a first rotation value selected from a set of ninety degree multiples, wherein the set of ninety degree multiples includes zero degrees, ninety degrees, one hundred eighty degrees, and two hundred seventy degrees, and wherein executing the single instruction further comprises: receiving first data indicating a first coordinate and a second coordinate; receiving a first control value that indicates a first rotation value selected from a set of ninety degree multiples, wherein the set of ninety degree multiples includes zero degrees, ninety degrees, one hundred eighty degrees, and two hundred seventy degrees, and wherein executing the single instruction further comprises: determining output data during a single execution cycle at a single execution unit of the processor, wherein the single execution unit includes swap circuitry and negation circuitry configured for swapping the first coordinate and the second coordinate when the first rotation value corresponds to ninety degrees or two hundred seventy degrees; and negating at least one of the first coordinate and the second coordinate when the first rotation value corresponds to ninety degrees, one hundred eighty degrees, or two hundred seventy degrees;and swapping the first coordinate and the second coordinate when the first rotation value corresponds to ninety degrees or two hundred seventy degrees; and negating at least one of the first coordinate and the second coordinate when the first rotation value corresponds to ninety degrees, one hundred eighty degrees, or two hundred seventy degrees;and writing output data to a data storage element, the output data corresponding to the first data rotated by the first rotation value around the coordinate origin.
A system for adapting power usage of a mobile unit that is configured to communicate data to a base unit, the system comprising: said mobile unit, said base unit, and an analysis unit; wherein said mobile unit is configured to provide transmission power information to said analysis unit, wherein said transmission power information corresponds to a transmission power needed by said mobile unit as a function of time; wherein said analysis unit is configured to receive spatial information, wherein said spatial information corresponds to a relative location of said mobile unit with respect to said base unit as a function of time; characterized in that said analysis unit is configured to provide a recommendation on a location of said base unit, wherein said recommendation is based on said transmission power information and on said spatial information. said mobile unit, said base unit, and an analysis unit; wherein said mobile unit is configured to provide transmission power information to said analysis unit, wherein said transmission power information corresponds to a transmission power needed by said mobile unit as a function of time; wherein said analysis unit is configured to receive spatial information, wherein said spatial information corresponds to a relative location of said mobile unit with respect to said base unit as a function of time; characterized in that said analysis unit is configured to provide a recommendation on a location of said base unit, wherein said recommendation is based on said transmission power information and on said spatial information.
A system for decoding macroblocks, said system comprising: memory for storing a first group of macroblocks and a second group of macroblocks, wherein the first group of macroblocks comprises two or more slices and the second group of macroblocks comprises two or more slices; a preprocessor for ordering the two or more slices of each of the first group of macroblocks and the second group of macroblocks in a raster scan order; a first queue for serially shifting at least one macroblock from the first group; a second queue for serially shifting at least one macroblock from the second group; and a processor for selectively decoding macroblocks from either of the queues, wherein the first queue further comprises: an input buffer for storing macroblocks of the first queue in a sequential order; a shifter for serially outputting the macroblocks of the first queue in the sequential order; and an address pointer for pointing to a sequentially next macroblock, wherein the shifter outputs the macroblock pointed to by the address pointer. memory for storing a first group of macroblocks and a second group of macroblocks, wherein the first group of macroblocks comprises two or more slices and the second group of macroblocks comprises two or more slices; a preprocessor for ordering the two or more slices of each of the first group of macroblocks and the second group of macroblocks in a raster scan order; a first queue for serially shifting at least one macroblock from the first group; a second queue for serially shifting at least one macroblock from the second group; and an input buffer for storing macroblocks of the first queue in a sequential order; a shifter for serially outputting the macroblocks of the first queue in the sequential order; and an address pointer for pointing to a sequentially next macroblock, wherein the shifter outputs the macroblock pointed to by the address pointer.
A cap for a cartridge, the cap comprising: fastening means for fastening the cap to a cartridge opening; and a valve configured to control liquid flow from inside the cartridge through the cartridge opening and the cap under negative pressure, characterised in that the valve is a deformable ball which covers one or more flow openings in a non-deformed state and deforms to allow flow through the one or more flow openings in the deformed state. fastening means for fastening the cap to a cartridge opening; and a valve configured to control liquid flow from inside the cartridge through the cartridge opening and the cap under negative pressure, characterised in that the valve is a deformable ball which covers one or more flow openings in a non-deformed state and deforms to allow flow through the one or more flow openings in the deformed state.
Single segment rotor for an electric machine, which has a laminated core with several levels, wherein - a single one-piece individual sheet is arranged in each level, - the individual sheets are the same shape, and each of them has a plurality of segment sections arranged in the shape of a star, mostly separated from one another by magnet recesses for permanent magnets and a central recess for a shaft, wherein - the central recess is surrounded by a closed annular inner section (2, 2') which is formed integrally with the respective individual sheet, and - the magnetic permeability of the inner section (2, 2') is reduced relative to the magnetic permeability of the segment sections prior to the individual sheets being assembled to form a laminated core, and the permanent magnets are inserted into magnet pockets which are formed by the recesses. - a single one-piece individual sheet is arranged in each level, - the individual sheets are the same shape, and each of them has a plurality of segment sections arranged in the shape of a star, mostly separated from one another by magnet recesses for permanent magnets and a central recess for a shaft, wherein - the central recess is surrounded by a closed annular inner section (2, 2') which is formed integrally with the respective individual sheet, and - the magnetic permeability of the inner section (2, 2') is reduced relative to the magnetic permeability of the segment sections prior to the individual sheets being assembled to form a laminated core, and
A fuel filter having an at least two-part housing, in which a first annular filter element is arranged, characterised in that - a second annular filter element and a third annular filter element are also provided, - all the annular filter elements (3, 6, 7) are arranged coaxially to each other and at least two annular filter elements (3, 7) are arranged offset to each other in the axial direction, - all the annular filter elements (3, 6, 7) are connected in series and therefore flow passes through them in succession, - the annular filter elements (3, 6, 7) are formed such that they can be replaced separately and individually, - adapter elements (9, 9', 9") are provided, which are connected to each other and to at least one annular filter element (3, 6, 7) by means of a respective plug-in connection, - one of the adapter elements (9, 9', 9") has a continuation, which closes a no-load opening in the housing when the filter element is inserted. - a second annular filter element and a third annular filter element are also provided, - all the annular filter elements (3, 6, 7) are arranged coaxially to each other and at least two annular filter elements (3, 7) are arranged offset to each other in the axial direction, - all the annular filter elements (3, 6, 7) are connected in series and therefore flow passes through them in succession, - the annular filter elements (3, 6, 7) are formed such that they can be replaced separately and individually, - adapter elements (9, 9', 9") are provided, which are connected to each other and to at least one annular filter element (3, 6, 7) by means of a respective plug-in connection, - one of the adapter elements (9, 9', 9") has a continuation, which closes a no-load opening in the housing when the filter element is inserted.
An applicator for applying a cosmetic product on human keratinous materials, notably the eyelashes, eyebrows, lips, the skin or the nails, including: - a base including a receiving area and an electric heating element having two opposite sides (3a, 3b), and - an applicator element including a holder extending along a longitudinal axis, removably attached to the receiving area and bearing a mass of cosmetic product having an application face able to come into contact with the keratinous materials, the mass of product being heated by the heating element and having a larger dimension of less than 40 mm, only extending on one side (3a, 3b) of the electric heating element and being borne by the holder before attaching the unit onto the base, the mass of product having been cast into contact with the holder. - a base including a receiving area and an electric heating element having two opposite sides (3a, 3b), and - an applicator element including a holder extending along a longitudinal axis, removably attached to the receiving area and bearing a mass of cosmetic product having an application face able to come into contact with the keratinous materials,
Mammography installation for radiographic and ultrasonic imaging of a breast of a patient, comprising - a first compression device, - a second compression device, - a support device, - an X-ray emitter, - an integrated X-ray detector and - an integrated ultrasound transducer which is designed as an even layer, - wherein the second compression device comprises the integrated X-ray detector, - wherein the support device is arranged at the first compression device or at the second compression device and - wherein a breast locating region is provided between the support device and the compression device (11, 12) that is situated opposite the compression device (12, 11) at which the support device is arranged, and the breast of the patient can be positioned in the breast locating region, - wherein the support device comprises the integrated ultrasound transducer, and - wherein the integrated ultrasound transducer is oriented in the direction of the breast locating region, characterised in that the support device and the integrated ultrasound transducer are designed to be deformable such that they can be moulded to the breast of the patient, wherein the integrated ultrasound transducer is arranged on an elastic substrate. - a first compression device, - a second compression device, - a support device, - an X-ray emitter, - an integrated X-ray detector and - an integrated ultrasound transducer which is designed as an even layer, - wherein the second compression device comprises the integrated X-ray detector, - wherein the support device is arranged at the first compression device or at the second compression device and - wherein a breast locating region is provided between the support device and the compression device (11, 12) that is situated opposite the compression device (12, 11) at which the support device is arranged, and the breast of the patient can be positioned in the breast locating region, - wherein the support device comprises the integrated ultrasound transducer, and - wherein the integrated ultrasound transducer is oriented in the direction of the breast locating region,
A mobile device, comprising: a sensor module comprising: three or more sensors (101,102,103,104); and a substrate having the three or more sensors arranged thereon, wherein the sensors are mounted on a front surface of the mobile device; characterised in that: the substrate is disposed on one side of a central area of an upper end of the mobile device, wherein the three or more sensors (101,102,103,104) are arranged along a periphery of a digital block mounted to the substrate to interwork with the digital block; the three or more sensors (101,102,103,104) comprise a gesture sensor, a depth sensor (102,103), and an ambient light or a proximity sensor; and the depth sensor comprises two sensors that are spaced apart from each other and the ambient light or proximity sensor shares one sensor. a sensor module comprising: three or more sensors (101,102,103,104); and a substrate having the three or more sensors arranged thereon, three or more sensors (101,102,103,104); and a substrate having the three or more sensors arranged thereon, wherein the sensors are mounted on a front surface of the mobile device; characterised in that: the substrate is disposed on one side of a central area of an upper end of the mobile device, wherein the three or more sensors (101,102,103,104) are arranged along a periphery of a digital block mounted to the substrate to interwork with the digital block; the three or more sensors (101,102,103,104) comprise a gesture sensor, a depth sensor (102,103), and an ambient light or a proximity sensor; and the depth sensor comprises two sensors that are spaced apart from each other and the ambient light or proximity sensor shares one sensor. the substrate is disposed on one side of a central area of an upper end of the mobile device, wherein the three or more sensors (101,102,103,104) are arranged along a periphery of a digital block mounted to the substrate to interwork with the digital block; the three or more sensors (101,102,103,104) comprise a gesture sensor, a depth sensor (102,103), and an ambient light or a proximity sensor; and the depth sensor comprises two sensors that are spaced apart from each other and the ambient light or proximity sensor shares one sensor.
An implantable myopia lens, wherein said lens is to be located in a posterior chamber of a human eye, said lens comprising: a lens body (1, 5), and a plurality of sheet-shaped support arms (2, 6), cut and formed along an edge of said lens body; wherein each of said support arms includes a connection portion (21, 61) and a support portion; wherein said connection portion is connected with the edge of said lens body; wherein an angle between a plane of said support arm and a plane of said lens body is between 10 and 20 degrees, making the whole of the lens a spheroid, wherein a transparent light guide zone (3, 7) is arranged on said lens body; wherein a bending angle of said support arms automatically adjusts to a contour of said human eye, when said lens is implanted therein, characterized in that said lens body and said support arms are all made of a same hydrophilic polyacrylate material. a lens body (1, 5), and a plurality of sheet-shaped support arms (2, 6), cut and formed along an edge of said lens body; wherein each of said support arms includes a connection portion (21, 61) and a support portion; wherein said connection portion is connected with the edge of said lens body; wherein an angle between a plane of said support arm and a plane of said lens body is between 10 and 20 degrees, making the whole of the lens a spheroid, wherein a transparent light guide zone (3, 7) is arranged on said lens body; wherein a bending angle of said support arms automatically adjusts to a contour of said human eye, when said lens is implanted therein, characterized in that said lens body and said support arms are all made of a same hydrophilic polyacrylate material.
Method for processing in particular panel- or strip-formed workpieces, which consist for example of wood, wood materials, plastic or the like, with a processing machine, said method comprising the steps: processing a workpiece with a first laser processing tool mounted in an interface of the processing machine, wherein laser energy from a laser source of the processing machine is passed to the first laser processing tool for a first processing; followed by adjusting the laser power density of the laser source, by means of a laser power density adjusting unit of the processing machine, for a second laser processing tool (5b-5d, 7) in order to carry out a second processing, wherein the second laser processing tool is connected to the interface and is then supplied by the laser source with laser energy with a laser power density adjusted for the second processing, carrying out the second processing with the second laser processing tool (5b-5d, 7), wherein the second processing differs from the first processing, wherein the first processing is selected from a processing involving cutting, drilling or end trimming, and the second processing involves the activation of a bonding agent. processing a workpiece with a first laser processing tool mounted in an interface of the processing machine, wherein laser energy from a laser source of the processing machine is passed to the first laser processing tool for a first processing; followed by adjusting the laser power density of the laser source, by means of a laser power density adjusting unit of the processing machine, for a second laser processing tool (5b-5d, 7) in order to carry out a second processing, wherein the second laser processing tool is connected to the interface and is then supplied by the laser source with laser energy with a laser power density adjusted for the second processing, carrying out the second processing with the second laser processing tool (5b-5d, 7), wherein the second processing differs from the first processing, wherein the first processing is selected from a processing involving cutting, drilling or end trimming, and the second processing involves the activation of a bonding agent.
A light, structural concrete or mortar composition comprising, in the fresh state, a hydraulic binder, aggregates and water, characterised in that it comprises: - a hydraulic binder content, including cement and any additions, greater than or equal to 280 kg/m 3 of fresh concrete, the hydraulic binder comprising a cement selected from among the cements CEM I, CEM II, CEM III, CEM IV and CEM V, or a sulfo-aluminous clinker or a mixture thereof, any additions being in the form of fine particles with a size less than 125 micrometres, chosen from among calcareous fillers, siliceous fillers, silica fume, fly ash, blast furnace slag and metakaolins, - coarse aggregates with a size greater than 4 mm and/or aggregates with particle size less than or equal to 4 mm, a volume proportion of at least 70% of said aggregates, fine or coarse, being composed of light, fine and/or coarse particles, of which the true density in the dry state is comprised between 800 and 1600 kg/m 3, the total quantity of aggregates being greater than or equal to 500 L/m 3 of fresh concrete, - a superplasticiser, - at least one viscosifying agent and - effective water according to an effective water/hydraulic binder weight ratio comprised between 0.40 and 0.65. - a hydraulic binder content, including cement and any additions, greater than or equal to 280 kg/m 3 of fresh concrete, the hydraulic binder comprising a cement selected from among the cements CEM I, CEM II, CEM III, CEM IV and CEM V, or a sulfo-aluminous clinker or a mixture thereof, any additions being in the form of fine particles with a size less than 125 micrometres, chosen from among calcareous fillers, siliceous fillers, silica fume, fly ash, blast furnace slag and metakaolins, - coarse aggregates with a size greater than 4 mm and/or aggregates with particle size less than or equal to 4 mm, a volume proportion of at least 70% of said aggregates, fine or coarse, being composed of light, fine and/or coarse particles, of which the true density in the dry state is comprised between 800 and 1600 kg/m 3, the total quantity of aggregates being greater than or equal to 500 L/m 3 of fresh concrete, - a superplasticiser, - at least one viscosifying agent and - effective water according to an effective water/hydraulic binder weight ratio comprised between 0.40 and 0.65.
A blood transfer device (300, 400) adapted to receive a blood sample, comprising: a housing (304, 404) having a blood inlet port, a blood outlet port separate from the blood inlet port, and an actuation member (332, 432) adjacent the blood inlet port and transitionable between a first position and a second position; and an open cell foam material (306, 406) disposed within the housing (304, 404) and having a dry anticoagulant powder therein, characterized in that the housing (304, 404) further comprises a lid (334, 434) movable between a closed position in which the open cell foam material (306, 406) is sealed within the housing (304, 404) and an open position in which a portion of the open cell foam material (306, 406) is exposed. a housing (304, 404) having a blood inlet port, a blood outlet port separate from the blood inlet port, and an actuation member (332, 432) adjacent the blood inlet port and transitionable between a first position and a second position; and an open cell foam material (306, 406) disposed within the housing (304, 404) and having a dry anticoagulant powder therein, characterized in that the housing (304, 404) further comprises a lid (334, 434) movable between a closed position in which the open cell foam material (306, 406) is sealed within the housing (304, 404) and an open position in which a portion of the open cell foam material (306, 406) is exposed.