mhurhangee/ep-ind-claims huggingface dataset:
A method for communicating data frames (230, 530) on a bus that operates according to a multi-master bus protocol, the method comprising the steps of: beginning transmission of a data frame from a node on the bus when the node gains control of the bus, wherein the multi-master bus protocol specifies a frame format that includes a start portion (240, 540), a payload portion (242, 542), and an end portion (244, 544); during transmission of the payload portion of the data frame, inserting an in-payload arbitration field (250, 550) into the transmission if the payload portion of the data frame exceeds a certain predetermined size; continuing transmission of the data frame if the node maintains control of the bus after insertion of the in-payload arbitration field; and halting transmission of the data frame before transmission of the data frame is complete if the node loses control of the bus after insertion of the in-payload arbitration field. beginning transmission of a data frame from a node on the bus when the node gains control of the bus, wherein the multi-master bus protocol specifies a frame format that includes a start portion (240, 540), a payload portion (242, 542), and an end portion (244, 544); during transmission of the payload portion of the data frame, inserting an in-payload arbitration field (250, 550) into the transmission if the payload portion of the data frame exceeds a certain predetermined size; continuing transmission of the data frame if the node maintains control of the bus after insertion of the in-payload arbitration field; and halting transmission of the data frame before transmission of the data frame is complete if the node loses control of the bus after insertion of the in-payload arbitration field.
A parking assistance system for parking a vehicle into a parking garage having a measuring sensor system arranged on at least one vehicle end of the vehicle for measuring a garage contour of the parking garage, and having a steering control unit automatically steering the vehicle into a final parking position within the parking garage starting from a stop position, characterized in that a calculating unit of the parking assistance system determines, from the measured garage contour of the parking garage, a position of the vehicle at the stop position, in particular an angular position, relative to the parking garage, wherein the calculating unit of the parking assistance system calculates driving lines starting from the stop position toward a suitable final parking position within the parking garage, in which final parking position the vehicle body of the vehicle is oriented in parallel with at least one garage wall of the parking garage, said calculation being performed depending on a garage depth of the parking garage captured by the sensors and a garage width of the parking garage captured by the sensors and on the basis of the determined position of the vehicle at the stop position.
A surgical device, comprising: a first member extending from a proximal end to a distal end and having a first surface opposite a second surface; a first channel defined by a first channel wall descending into said first surface and extending in-between said distal end and proximal end of said first member; a second channel defined by a second channel wall descending into said first surface running in-between said distal end and said proximal end, said second channel formed adjacent said first channel; a first side edge at said proximal end communicating between said first surface and said second surface; a first aperture communicating through said first side edge with said first channel, said aperture sized to accommodate translation of a cabled imaging component therethrough; said second channel communicating through said side edge; and whereby with said surgical device upon an insertion into the body of a patient through an incision to an as-used positioning, said cabled imaging component is translatable through said first aperture into said first channel for communicating images of areas surrounding said surgical device therefrom, and a blade for cutting chosen tissue is insertable along said second channel forming a guided translational pathway for said blade; characterised in that there is at least one viewing aperture communicating through said first channel wall and through said second surface for providing a view of tissue surrounding said surgical device to said cabled imaging component. a first member extending from a proximal end to a distal end and having a first surface opposite a second surface; a first channel defined by a first channel wall descending into said first surface and extending in-between said distal end and proximal end of said first member; a second channel defined by a second channel wall descending into said first surface running in-between said distal end and said proximal end, said second channel formed adjacent said first channel; a first side edge at said proximal end communicating between said first surface and said second surface; a first aperture communicating through said first side edge with said first channel, said aperture sized to accommodate translation of a cabled imaging component therethrough; said second channel communicating through said side edge; and whereby with said surgical device upon an insertion into the body of a patient through an incision to an as-used positioning, said cabled imaging component is translatable through said first aperture into said first channel for communicating images of areas surrounding said surgical device therefrom, and a blade for cutting chosen tissue is insertable along said second channel forming a guided translational pathway for said blade; characterised in that there is at least one viewing aperture communicating through said first channel wall and through said second surface for providing a view of tissue surrounding said surgical device to said cabled imaging component.
A method for detecting the location of buried electrically active heat sources using a lock-in-thermography system, comprising: placing a sample on a test system; applying an electrical excitation signal to the sample; while the electrical excitation signal is applied to the sample, imaging the sample using an infrared camera; detecting a distribution of temperatures across a surface of the sample to thereby locate the heat source laterally; reducing the operational area of the IR camera to obtain a reduced field of view; subsequently applying the electrical excitation signals at multiple different lock-in frequencies to the sample; while the electrical excitation signals are applied to the sample, imaging the sample using the reduced field of view and an increased operational speed of the IR camera; detecting a distribution of temperatures across the reduced field of view of the sample; calculating a plurality of mean values of temperature across the reduced field of view in synchronization with the lock-in frequencies of the electrical excitation signals; detecting and analyzing a resulting phase shift between the electrical excitation signal and the thermal response obtained from the imaging in correlation to the thermal heat propagation within the sample using the mean values; and, analyzing the resulting phase shifts to thereby obtain depth location of the heat source in the sample. placing a sample on a test system; applying an electrical excitation signal to the sample; while the electrical excitation signal is applied to the sample, imaging the sample using an infrared camera; detecting a distribution of temperatures across a surface of the sample to thereby locate the heat source laterally; reducing the operational area of the IR camera to obtain a reduced field of view; subsequently applying the electrical excitation signals at multiple different lock-in frequencies to the sample; while the electrical excitation signals are applied to the sample, imaging the sample using the reduced field of view and an increased operational speed of the IR camera; detecting a distribution of temperatures across the reduced field of view of the sample; calculating a plurality of mean values of temperature across the reduced field of view in synchronization with the lock-in frequencies of the electrical excitation signals; detecting and analyzing a resulting phase shift between the electrical excitation signal and the thermal response obtained from the imaging in correlation to the thermal heat propagation within the sample using the mean values; and, analyzing the resulting phase shifts to thereby obtain depth location of the heat source in the sample.
An optical fiber unit comprising: a plurality of optical fibers; and at least two binding materials (2, 3) that bind the plurality of optical fibers, wherein two of the at least two binding materials (2, 3) are wound around the plurality of optical fibers in an SZ shape with a binding pitch P, in each half of the binding pitch P, winding directions of the two binding materials (2, 3) are reversed, and reversed portions of the two binding materials (2, 3) are formed, the two binding materials (2, 3) are adhered to each other at the reversed portions to form a plurality of adhesive parts, the optical fiber unit, characterized in that, one of the adhesive parts is disposed in each half of the binding pitch P, and each of the adhesive parts includes a plurality of intersection points (A1, A2, A3, A4) of center lines (C2, C3) of the two binding materials (2, 3) as viewed in a first direction orthogonal to a longitudinal direction in which the optical fiber unit extends, and each of the adhesive parts includes a plurality of adhesive surfaces (b1, b2, b3, b4) where the binding materials (2, 3) overlap each other as viewed in the first direction, and the plurality of adhesive surfaces (b1, b2, b3, b4) are disposed at intervals in the longitudinal direction. a plurality of optical fibers; and at least two binding materials (2, 3) that bind the plurality of optical fibers, wherein two of the at least two binding materials (2, 3) are wound around the plurality of optical fibers in an SZ shape with a binding pitch P, in each half of the binding pitch P, winding directions of the two binding materials (2, 3) are reversed, and reversed portions of the two binding materials (2, 3) are formed, the two binding materials (2, 3) are adhered to each other at the reversed portions to form a plurality of adhesive parts, the optical fiber unit, characterized in that, one of the adhesive parts is disposed in each half of the binding pitch P, and each of the adhesive parts includes a plurality of intersection points (A1, A2, A3, A4) of center lines (C2, C3) of the two binding materials (2, 3) as viewed in a first direction orthogonal to a longitudinal direction in which the optical fiber unit extends, and each of the adhesive parts includes a plurality of adhesive surfaces (b1, b2, b3, b4) where the binding materials (2, 3) overlap each other as viewed in the first direction, and the plurality of adhesive surfaces (b1, b2, b3, b4) are disposed at intervals in the longitudinal direction.
A solution comprising: a first active ingredient that is about 1.5% to about 20% w/v diclofenac provided in a free acid or base as applicable or in a simple ester form (but not as a salt); a second active ingredient that is about 0.05% w/v to 10% w/v lidocaine an acid stabilizer selected from among 2% w/v acetic acid and 3% w/v lactic acid; a solvent selected from among ethanol, ethoxydiglycol, dimethyl isosorbide, isopropyl myristate, isopropyl palmitate, glycofurol (Tetraglycol), dipropylene glycol, butylene glycol, propylene glycol, eucalyptol and glycerin; and an emollient; wherein the solution is oily, can be stored at a temperature between about 2' C and 35° C, and, at that temperature, the active ingredients remain in solution without precipitation/ crystallization and chemically un-degraded for a period of time up to about two years. a first active ingredient that is about 1.5% to about 20% w/v diclofenac provided in a free acid or base as applicable or in a simple ester form (but not as a salt); a second active ingredient that is about 0.05% w/v to 10% w/v lidocaine an acid stabilizer selected from among 2% w/v acetic acid and 3% w/v lactic acid; a solvent selected from among ethanol, ethoxydiglycol, dimethyl isosorbide, isopropyl myristate, isopropyl palmitate, glycofurol (Tetraglycol), dipropylene glycol, butylene glycol, propylene glycol, eucalyptol and glycerin; and an emollient;
A system comprising: a memory device including: a crosspoint memory array; and circuitry to: apply a first select voltage across a memory cell of the crosspoint memory array with a first voltage source, wherein the magnitude of the first select voltage is based on a location of the memory cell in the crosspoint memory array; increase the magnitude of a voltage across the memory cell from the first select voltage to a second select voltage, wherein a ramp rate from the first select voltage to the second select voltage is based on the location of the memory cell in the crosspoint memory array; detect thresholding of the memory cell; and apply a third voltage with a lower magnitude than the second select voltage across the memory cell in response to detection of the thresholding of the memory cell. a crosspoint memory array; and circuitry to: apply a first select voltage across a memory cell of the crosspoint memory array with a first voltage source, wherein the magnitude of the first select voltage is based on a location of the memory cell in the crosspoint memory array; increase the magnitude of a voltage across the memory cell from the first select voltage to a second select voltage, wherein a ramp rate from the first select voltage to the second select voltage is based on the location of the memory cell in the crosspoint memory array; detect thresholding of the memory cell; and apply a third voltage with a lower magnitude than the second select voltage across the memory cell in response to detection of the thresholding of the memory cell. apply a first select voltage across a memory cell of the crosspoint memory array with a first voltage source, wherein the magnitude of the first select voltage is based on a location of the memory cell in the crosspoint memory array; increase the magnitude of a voltage across the memory cell from the first select voltage to a second select voltage, wherein a ramp rate from the first select voltage to the second select voltage is based on the location of the memory cell in the crosspoint memory array; detect thresholding of the memory cell; and apply a third voltage with a lower magnitude than the second select voltage across the memory cell in response to detection of the thresholding of the memory cell.
A method of producing a metal pattern on a substrate comprising the steps of: a) providing a first photoimageable film on the substrate; b) providing a second photoimageable film directly over the first photoimageable film; c) placing a negative image of the desired metal pattern over the second photoimageable film and exposing the first photoimageable film and the second photoimageable film to actinic radiation; d) developing off uncured areas of the first photoimageable film and the second photoimageable film to produce a negative image of the desired metal pattern on the substrate; e) depositing metal onto the substrate; and f) stripping the first photoimageable film and the second photoimageable film from the substrate to leave the metal pattern on the substrate, wherein the first photoimageable film has a faster development time than the second photoimageable film characterized in that the development dwell time (in 1% H potassium carbonate at 32°C (90°F)) of the first photoimageable film is between 40 and 60 seconds and the development dwell time of the second photoimageable film is between 80 and 120 seconds. a) providing a first photoimageable film on the substrate; b) providing a second photoimageable film directly over the first photoimageable film; c) placing a negative image of the desired metal pattern over the second photoimageable film and exposing the first photoimageable film and the second photoimageable film to actinic radiation; d) developing off uncured areas of the first photoimageable film and the second photoimageable film to produce a negative image of the desired metal pattern on the substrate; e) depositing metal onto the substrate; and f) stripping the first photoimageable film and the second photoimageable film from the substrate to leave the metal pattern on the substrate, wherein the first photoimageable film has a faster development time than the second photoimageable film characterized in that the development dwell time (in 1% H potassium carbonate at 32°C (90°F)) of the first photoimageable film is between 40 and 60 seconds and the development dwell time of the second photoimageable film is between 80 and 120 seconds.
Equipment comprising: a link; a rotator pivotally attached to the link at a first pivot connection defining a first pivot axis; and a hydraulic assembly, the hydraulic assembly comprising: a hydraulic element provided to the rotator; and a connector provided to the rotator for connecting a hydraulic conduit (136, 137) to the hydraulic element, wherein the connector defines a connection axis; the equipment being characterised in that the connector is configured such that the connection axis approximately intersects the first pivot axis; the hydraulic element is a rotational drive defining a rotation axis and an angle between the connection axis and the rotation axis is greater than approximately 5 degrees and less than approximately 85 degrees; and that the first pivot connection comprises a first pair of pins (128, 130) attaching the rotator to the link and the hydraulic conduit (136, 137) passes between the first pair of pins (128, 130). a link; a rotator pivotally attached to the link at a first pivot connection defining a first pivot axis; and a hydraulic assembly, the hydraulic assembly comprising: a hydraulic element provided to the rotator; and a connector provided to the rotator for connecting a hydraulic conduit (136, 137) to the hydraulic element, wherein the connector defines a connection axis; the equipment being characterised in that the connector is configured such that the connection axis approximately intersects the first pivot axis; the hydraulic element is a rotational drive defining a rotation axis and an angle between the connection axis and the rotation axis is greater than approximately 5 degrees and less than approximately 85 degrees; and that the first pivot connection comprises a first pair of pins (128, 130) attaching the rotator to the link and the hydraulic conduit (136, 137) passes between the first pair of pins (128, 130). a hydraulic element provided to the rotator; and a connector provided to the rotator for connecting a hydraulic conduit (136, 137) to the hydraulic element, wherein the connector defines a connection axis; the equipment being characterised in that the connector is configured such that the connection axis approximately intersects the first pivot axis; the hydraulic element is a rotational drive defining a rotation axis and an angle between the connection axis and the rotation axis is greater than approximately 5 degrees and less than approximately 85 degrees; and that the first pivot connection comprises a first pair of pins (128, 130) attaching the rotator to the link and the hydraulic conduit (136, 137) passes between the first pair of pins (128, 130).
A screwing machine with hydraulic transmission comprising at least a first screwing head and a second screwing head, said first and second screwing heads being intended to screw or unscrew railway sleeper-screws, at least a first and a second hydraulic motors adapted to drive in rotation respectively the first screwing head and the second screwing head, a control unit configured to control the first and the second hydraulic motors, at least one hydraulic pump (8, 9) intended to hydraulically supply the first and second hydraulic motors, characterized in that the screwing machine further comprises at least one hydraulic distribution member piloted by the control unit for: - in a first configuration, hydraulically connecting the first and second hydraulic motors in series in a hydraulic circuit, so that the first and second hydraulic motors operate simultaneously when the tightening torque to be exerted is less than a first predetermined torque value, - in a second configuration, hydraulically uncoupling the first and second hydraulic motors in the hydraulic circuit by directing the flow and the hydraulic pressure only to one of the first or second hydraulic motors when the tightening torque to be exerted is greater than or equal to a second predetermined torque value. - in a first configuration, hydraulically connecting the first and second hydraulic motors in series in a hydraulic circuit, so that the first and second hydraulic motors operate simultaneously when the tightening torque to be exerted is less than a first predetermined torque value, - in a second configuration, hydraulically uncoupling the first and second hydraulic motors in the hydraulic circuit by directing the flow and the hydraulic pressure only to one of the first or second hydraulic motors when the tightening torque to be exerted is greater than or equal to a second predetermined torque value.
A depilatory composition in the form of a gel which comprises a depilatory compound and at least 1.5 to 5 wt% based on the total weight of the composition of poly(methylvinyl ether/maleic anhydride) co-polymer crosslinked with 1,9 decadiene and wherein the depilatory compound may be any compound capable of degrading keratin selected from the group consisting of potassium thioglycolate, dithioerythritol, thioglycerol, thioglycol, thioxanthine, thiosalicylic acid, lipoic acid, sodium dihydrolipoate 6,8-dithiooctanoate, sodium 6,8-diothiooctanoate, a hydrogen sulphide salt, thioglycolic acid, 2-mercaptopropionic acid, 3-mercaptopropionic acid, thiomalic acid, ammonium thioglycolate, glyceryl monothioglycolate, monoethanolamine thioglycolate, monoethanolamine thioglycolic acid, diammoniumdithiodiglycolate, ammonium thiolactate, monoethanolamine thiolactate, thioglycolamide, homocysteine, cysteine, glutathione, dithiothreitol, dihydrolipoic acid, 1,3-dithiopropanol, thioglycolamide, glycerylmonothioglycolate, thioglycolhydrazine, keratinase, guanidine thioglycolate, calcium thioglycolate and/or cysteamine.