mhurhangee/ep-ind-claims huggingface dataset:
A system to detect vibrations from a surface comprising: (a) a coherent light source, operating in an eye-safe combination of power and frequency levels, configured to project a multi-beam pattern (14, 15) onto the surface, wherein the multi-beam pattern forms a plurality of spots on the surface; (b) an imaging device formed by an array of light sensing pixels configured to receive through a collecting lens a focused image generated by each of said plurality of spots formed on the surface and backscattered from the surface to the lens, the image of each spot covering a unique region of one or few pixels of the imaging device and the image of each spot containing a speckle field varying with vibrations of the surface; and (c) a processor configured to separately process the total light intensity collected from each spot received by said imaging sensor, to derive surface vibration information by analyzing a variance of said light intensity over time, to identify when a variance of said derived surface vibration is above a predefined threshold, and to detect when the derived surface vibration information is indicative of a subject's heart beat and/or breathing; wherein, an aperture of said collecting lens and a diameter of said projected multi-beam are adapted to optimize vibration detection, based on speckles dynamics for a vibration amplitude range of a subject's heart beat and/or breathing, and based on a statistical model constructed to qualitatively determine the dependence of the variance of the light intensity reaching the detector, wherein said statistical model is configured to calculate the variance in the light intensity produced by a speckle pattern variation of said speckle field, given the different parameters of the system. (a) a coherent light source, operating in an eye-safe combination of power and frequency levels, configured to project a multi-beam pattern (14, 15) onto the surface, wherein the multi-beam pattern forms a plurality of spots on the surface; (b) an imaging device formed by an array of light sensing pixels configured to receive through a collecting lens a focused image generated by each of said plurality of spots formed on the surface and backscattered from the surface to the lens, the image of each spot covering a unique region of one or few pixels of the imaging device and the image of each spot containing a speckle field varying with vibrations of the surface; and (c) a processor configured to separately process the total light intensity collected from each spot received by said imaging sensor, to derive surface vibration information by analyzing a variance of said light intensity over time, to identify when a variance of said derived surface vibration is above a predefined threshold, and to detect when the derived surface vibration information is indicative of a subject's heart beat and/or breathing; wherein, an aperture of said collecting lens and a diameter of said projected multi-beam are adapted to optimize vibration detection, based on speckles dynamics for a vibration amplitude range of a subject's heart beat and/or breathing, and
An abrasive flow machine for moving abrasive media over a surface of a workpiece and/or through the opening of a workpiece, comprising a media drive device which is adapted to move the abrasive medium over a surface of a workpiece and/or through the opening of the workpiece in a flow direction; a workpiece holder for mounting the workpiece, having two parts (20, 22) adapted to be positioned on opposite sides of the workpiece; a structure-borne sound sensor for measuring structure-borne sound generated in a workpiece when the latter is machined with an abrasive medium, characterized by an evaluation unit which is adapted to infer a cutting power of the abrasive medium and/or a rate of material removal on the workpiece based on an integrated measurand of the root mean square of the structure-borne sound measured by the structure-borne sound sensor over time, wherein the evaluation unit has a look-up table stored therein, from which a material removal on the workpiece and/or a cutting power of the abrasive medium can be read based on the integrated measurand of the root mean square of the measured structure-borne sound signal over time. a media drive device which is adapted to move the abrasive medium over a surface of a workpiece and/or through the opening of the workpiece in a flow direction; a workpiece holder for mounting the workpiece, having two parts (20, 22) adapted to be positioned on opposite sides of the workpiece; a structure-borne sound sensor for measuring structure-borne sound generated in a workpiece when the latter is machined with an abrasive medium, characterized by an evaluation unit which is adapted to infer a cutting power of the abrasive medium and/or a rate of material removal on the workpiece based on an integrated measurand of the root mean square of the structure-borne sound measured by the structure-borne sound sensor over time, wherein the evaluation unit has a look-up table stored therein, from which a material removal on the workpiece and/or a cutting power of the abrasive medium can be read based on the integrated measurand of the root mean square of the measured structure-borne sound signal over time.
A method for producing a fuel cell separator, the method comprising the steps of preparing a slurry by mixing together a carbonaceous material, a thermoset resin, a thermoplastic elastomer and a solvent; coating the slurry onto a surface; removing the solvent to form a sheet-like separator precursor; and molding the separator precursor, wherein removing the solvent is performed by heating at a lower temperature than a temperature at which the thermoset resin begins to cure, and further comprising the step of pre-drying the slurry at room temperature to about 80°C prior to heating for solvent removal.
A method of manufacturing a skin pricking lancet characterised by: thermoforming a plastic component; locating the thermoformed component and, optionally, one or more further plastic components around a lancet mechanism; and joining the located component(s) (6a,6b) to form a hermetically sealed enclosure surrounding the lancet mechanism, the component(s) being formed and joined to provide a housing that structurally supports the lancet mechanism during use, and a cap breakable from the housing to facilitate firing of the lancet mechanism. thermoforming a plastic component; locating the thermoformed component and, optionally, one or more further plastic components around a lancet mechanism; and joining the located component(s) (6a,6b) to form a hermetically sealed enclosure surrounding the lancet mechanism, the component(s) being formed and joined to provide a housing that structurally supports the lancet mechanism during use, and a cap breakable from the housing to facilitate firing of the lancet mechanism.
A fuel injector system for a gas turbine engine comprising: an accumulator; a first passage in communication with said accumulator and a pressure source; a first valve in communication with said first passage; a second passage in communication with said accumulator; and a second valve in communication with said second passage; characterised in that: said pressure source is a diffuser case module; said second valve is a differential pressure interface configured to operate in response to a differential pressure between said first passage and said second passage. an accumulator; a first passage in communication with said accumulator and a pressure source; a first valve in communication with said first passage; a second passage in communication with said accumulator; and a second valve in communication with said second passage; said pressure source is a diffuser case module; said second valve is a differential pressure interface configured to operate in response to a differential pressure between said first passage and said second passage.
A decoding method for decoding a current block of a video, wherein the decoding method comprises: obtaining a value of a Most Probable Modes, MPM, flag for the current block from a bitstream; obtaining an MPM index for the current block from the bitstream, when the value of the MPM flag indicates that an intra prediction mode for the current block is an intra prediction mode comprised in an MPM set of intra prediction modes; obtaining a value of the intra prediction mode for the current block, based on the MPM index and the MPM set for the current block, wherein truncated unary binarization is used for signaling of the MPM index; wherein when an intra prediction mode of a left neighboring block of the current block is a Planar mode, and an intra prediction mode of an above neighboring block of the current block is a Planar mode, the MPM set of prediction modes comprises: a Planar mode, a DC mode, a Vertical mode, a Horizontal mode, an intra prediction mode corresponding to the Vertical mode with a first offset, and an intra prediction mode corresponding to the Vertical mode with a second offset, wherein the first offset is -4 and the second offset is +4. obtaining a value of a Most Probable Modes, MPM, flag for the current block from a bitstream; obtaining an MPM index for the current block from the bitstream, when the value of the MPM flag indicates that an intra prediction mode for the current block is an intra prediction mode comprised in an MPM set of intra prediction modes; obtaining a value of the intra prediction mode for the current block, based on the MPM index and the MPM set for the current block, wherein truncated unary binarization is used for signaling of the MPM index; wherein when an intra prediction mode of a left neighboring block of the current block is a Planar mode, and an intra prediction mode of an above neighboring block of the current block is a Planar mode, the MPM set of prediction modes comprises: a Planar mode, a DC mode, a Vertical mode, a Horizontal mode, an intra prediction mode corresponding to the Vertical mode with a first offset, and an intra prediction mode corresponding to the Vertical mode with a second offset, wherein the first offset is -4 and the second offset is +4.
Method for obtaining rubber from rubber-containing plant material, the method comprising the steps of: a) subjecting a composition comprising rubber-containing plant material and a fermentation culture to conditions allowing anaerobic fermentation, wherein the composition has a water content of less than 95 wt.% with respect to the weight of the composition, and wherein the fermentation culture is cycled through the rubber-containing plant material by percolation, and wherein the fermentation is performed in the absence of oxygen ventilation; b) obtaining rubber from the composition. a) subjecting a composition comprising rubber-containing plant material and a fermentation culture to conditions allowing anaerobic fermentation, wherein the composition has a water content of less than 95 wt.% with respect to the weight of the composition, and wherein the fermentation culture is cycled through the rubber-containing plant material by percolation, and wherein the fermentation is performed in the absence of oxygen ventilation; b) obtaining rubber from the composition.
A communication device for a vehicle that is configured to be charged with electric power supplied from an external power supply into a power storage device and to communicate with an external device by utilizing, as a communication path (30, 110, 120), a power line for supplying electric power from said power supply to said power storage device, characterized in that the device comprises: a first signal line provided with a filter for removing noise from a signal transmitted using said power line; a second signal line bypassing said filter; and a communication control unit for communicating using: a signal having passed through said filter while said power storage device is being charged; and a signal having bypassed said filter while the charging of said power storage device is stopped, wherein said communication control unit is connected to said first signal line and said second signal line, said first signal line passes through said filter and connects said power line and said communication control unit together, said second signal line bypasses said filter and connects said power line and said communication control unit together, and said communication control unit communicates using: said first signal line while said power storage device is being charged; and said second signal line while the charging of said power storage device is stopped. a first signal line provided with a filter for removing noise from a signal transmitted using said power line; a second signal line bypassing said filter; and a communication control unit for communicating using: a signal having passed through said filter while said power storage device is being charged; and a signal having bypassed said filter while the charging of said power storage device is stopped, wherein a signal having passed through said filter while said power storage device is being charged; and a signal having bypassed said filter while the charging of said power storage device is stopped, wherein said communication control unit is connected to said first signal line and said second signal line, said first signal line passes through said filter and connects said power line and said communication control unit together, said second signal line bypasses said filter and connects said power line and said communication control unit together, and said communication control unit communicates using: said first signal line while said power storage device is being charged; and said second signal line while the charging of said power storage device is stopped. said first signal line while said power storage device is being charged; and said second signal line while the charging of said power storage device is stopped.
A security element for securing security papers, value documents and other data carriers, having a lenticular image that, from different viewing directions, displays at least two different appearances (14A, 14B), - the lenticular image including a lens grid composed of a plurality of microlenses (40, 60, 62, 64) and a laser-sensitive motif layer that is arranged spaced apart from the lens grid, - the laser-sensitive motif layer comprising, in two or more motif layer sub-regions (172,174,176,178), different markings (30A, 30B) that are introduced by the action of laser radiation and that, when the motif layer is viewed with the lens grid, produce the at least two different appearances (14A, 14B), characterized in that - the lens grid is divided into two or more lens grid sub-regions (72, 74, 76, 78) in which the microlenses each comprise differently refractive lens surface forms, - the different lens grid sub-regions (72, 74, 76, 78) being congruent with the different motif layer sub-regions (172,174,176,178), and the markings (30A, 30B) of the motif layer sub-regions (172,174,176,178) being produced by laser impingement of the lens grid sub-regions (72, 74, 76, 78). - the lenticular image including a lens grid composed of a plurality of microlenses (40, 60, 62, 64) and a laser-sensitive motif layer that is arranged spaced apart from the lens grid, - the laser-sensitive motif layer comprising, in two or more motif layer sub-regions (172,174,176,178), different markings (30A, 30B) that are introduced by the action of laser radiation and that, when the motif layer is viewed with the lens grid, produce the at least two different appearances (14A, 14B), - the lens grid is divided into two or more lens grid sub-regions (72, 74, 76, 78) in which the microlenses each comprise differently refractive lens surface forms, - the different lens grid sub-regions (72, 74, 76, 78) being congruent with the different motif layer sub-regions (172,174,176,178), and the markings (30A, 30B) of the motif layer sub-regions (172,174,176,178) being produced by laser impingement of the lens grid sub-regions (72, 74, 76, 78).
Use of an attenuated rotavirus strain from a G1 P type in the manufacture of a composition for conferring protection against rotavirus infection caused by a rotavirus strain of a G2P type.
A compound of formula Ra is selected from the group consisting of halo, hydroxy, alkyl, halo-substituted alkyl, aryl, halo- or alkyl-substituted aryl, alkoxy, hydroxy- or carboxy- substituted alkoxy, aryloxy, halo- or alkyl-substituted aryloxy, CHO, C -alkyl, C -aryl, C -alkyl-carboxyl, C -alkylene-carboxy ester and cyano, m is an integer selected from 0 to 4, or oxides, esters, pharmaceutically acceptable salts or solvates thereof. Ra is selected from the group consisting of halo, hydroxy, alkyl, halo-substituted alkyl, aryl, halo- or alkyl-substituted aryl, alkoxy, hydroxy- or carboxy- substituted alkoxy, aryloxy, halo- or alkyl-substituted aryloxy, CHO, C -alkyl, C -aryl, C -alkyl-carboxyl, C -alkylene-carboxy ester and cyano, m is an integer selected from 0 to 4,
A process for preparation of catalyst component comprising: (i) contacting magnesium based precursor along with an internal donor based on phenylene dioates with an acyl halides before contact with transition metal compound in a solvent to obtain a solid precatalyst component; and (ii) contacting the solid precatalyst component with transition metal compound to obtain the catalyst component; wherein the internal donor based on phenylene dioates having the following structure wherein R 1 -R 6 groups are equal or different from each other and each of R 1 -R 6 are selected from a group comprising of hydrogen, halogen, C 1 -C 20 linear or branched alkyl group optionally linked with cyclic rings, C 6 -C 14 aryl groups, C 3 -C 15 cycloalkyl groups, C 1 -C 20 alkoxy group, a heteroatom, and combinations thereof, provided that if R 1 is alkoxy, R 2 is not alkoxy and if R 1 is aryl, R 2 is not aryl. (i) contacting magnesium based precursor along with an internal donor based on phenylene dioates with an acyl halides before contact with transition metal compound in a solvent to obtain a solid precatalyst component; and (ii) contacting the solid precatalyst component with transition metal compound to obtain the catalyst component; wherein the internal donor based on phenylene dioates having the following structure wherein R 1 -R 6 groups are equal or different from each other and each of R 1 -R 6 are selected from a group comprising of hydrogen, halogen, C 1 -C 20 linear or branched alkyl group optionally linked with cyclic rings, C 6 -C 14 aryl groups, C 3 -C 15 cycloalkyl groups, C 1 -C 20 alkoxy group, a heteroatom, and combinations thereof, provided that if R 1 is alkoxy, R 2 is not alkoxy and if R 1 is aryl, R 2 is not aryl.
Coin-deposit substitute for triggering an everyday item equipped with a coin-deposit lock, wherein the coin-deposit substitute has a basic body having a coin-like protrusion, which is intended for inserting into the coin-deposit lock, and having a grip portion, which is equipped with a fastening device for fastening a sheet of paper in a releasable manner, characterized in that the fastening device has a lower portion butting against the underside of the grip portion and has an upper portion butting against the upper side of the grip portion, and in that the upper portion has a grip element intended for raising the upper portion.
A method comprising: providing a dual-mode model for a reciprocating compressor, wherein the model includes a measurement mode and a tuning mode; receiving one or more inputs to the model from an operating reciprocating compressor; and in response to receipt of the one or more inputs, executing the model in at least one of the measurement mode and the tuning mode, wherein: in a measurement mode, execution of the model further comprises calculating an actual flow rate of gas in the compressor based on the one or more inputs; and in a tuning mode, execution of the model further comprises calculating one of an unloader setting and a speed set point of a physical element of the compressor for a given flow rate of gas, characterized in that the one or more inputs is a measured input of at least one of suction pressure, suction temperature, discharge pressure and speed of a shaft. providing a dual-mode model for a reciprocating compressor, wherein the model includes a measurement mode and a tuning mode; receiving one or more inputs to the model from an operating reciprocating compressor; and in response to receipt of the one or more inputs, executing the model in at least one of the measurement mode and the tuning mode, wherein: in a measurement mode, execution of the model further comprises calculating an actual flow rate of gas in the compressor based on the one or more inputs; and in a tuning mode, execution of the model further comprises calculating one of an unloader setting and a speed set point of a physical element of the compressor for a given flow rate of gas, characterized in that the one or more inputs is a measured input of at least one of suction pressure, suction temperature, discharge pressure and speed of a shaft. in a measurement mode, execution of the model further comprises calculating an actual flow rate of gas in the compressor based on the one or more inputs; and in a tuning mode, execution of the model further comprises calculating one of an unloader setting and a speed set point of a physical element of the compressor for a given flow rate of gas, characterized in that the one or more inputs is a measured input of at least one of suction pressure, suction temperature, discharge pressure and speed of a shaft.
A composition comprising a non-spliced XBP1 peptide of 35 amino acids or less in length comprising the amino acid sequence of SEQ ID NO:6, a spliced XBP1 peptide of 35 amino acids or less in length and comprising the amino acid sequence of SEQ ID NO:10, and a CD138 peptide of 35 amino acids or less in length and comprising the amino acid sequence of SEQ ID NO:12, for use in a method of inducing an immune response in a subject having breast cancer, colon cancer, pancreatic cancer, or prostate cancer.