mhurhangee/ep-ind-claims huggingface dataset:
Method for manufacturing a roll-profiled component, wherein a metal strip to be formed is embossed in sections at least partially between a punch and a die before or after roll profiling is carried out and is displaced between embossing steps in a feed direction parallel to the longitudinal direction of the metal strip, wherein one embossing section is embossed per embossing step, characterised in that the metal strip has at least a first region and a second region continuously in the longitudinal direction, wherein the first region is embossed from a first level of the metal strip, which corresponds to an initial level of the metal strip, to a second level by forming a transition section in the first region of the metal strip in each embossing step, which leads seamlessly and without jumps in the feed direction from the first level to the second level, wherein the transition section formed is completely embossed onto the second level in a subsequent embossing step, wherein the transition section is embossed in a defined shape by the punch and die.
A biopsy needle guidance system comprising: - a lateral arm; - a carriage assembly which traverses along the lateral arm in a predefined axis, the carriage assembly including a carriage and self-adjusting rollers which are loaded against the lateral arm by spring members when the carriage assembly traverses along the lateral arm; and - a gun mount configured to support a biopsy gun, the gun mount being connected to the carriage. - a lateral arm; - a carriage assembly which traverses along the lateral arm in a predefined axis, the carriage assembly including a carriage and self-adjusting rollers which are loaded against the lateral arm by spring members when the carriage assembly traverses along the lateral arm; and - a gun mount configured to support a biopsy gun, the gun mount being connected to the carriage.
A device for analyzing a single cell using a micropore, comprising: an inlet chamber configured to contain a solution including a target cell; an outlet chamber provided on an opposite side of the inlet chamber; a pore membrane disposed between the inlet chamber and the outlet chamber and including a micropore thereon; a pressure generating means provided in the inlet chamber or the outlet chamber and configured to generate a pressure difference between the inlet chamber and the outlet chamber such that a solution in the inlet chamber flows toward the outlet chamber to pass through the micropore; and a pair of electrodes (510, 520) respectively disposed in front and rear of the pore membrane and provided to be in electrical contact with the flowing solution to measure an ion conductivity change in front and rear of the pore membrane, wherein a diameter D of the micropore is 1.1 to 2 times larger than a diameter of the target cell, a thickness t of the pore membrane is 0.5 μm to 1mm, and a slenderness ratio (t/D) is 0.001 to 5, and wherein a cross-sectional shape of the micropore formed on the pore membrane is any one of an oval, a rectangle, and a rounded rectangle; characterised in that the inlet chamber comprises a flow channel for guiding flow of the target cell-containing solution toward the pore membrane and buffer channels joined from opposite sides of the flow channel and configured to guide flow of a buffer solution toward the pore membrane such that the buffer solution flows to opposite sides of the target cell-containing solution. an inlet chamber configured to contain a solution including a target cell; an outlet chamber provided on an opposite side of the inlet chamber; a pore membrane disposed between the inlet chamber and the outlet chamber and including a micropore thereon; a pressure generating means provided in the inlet chamber or the outlet chamber and configured to generate a pressure difference between the inlet chamber and the outlet chamber such that a solution in the inlet chamber flows toward the outlet chamber to pass through the micropore; and a pair of electrodes (510, 520) respectively disposed in front and rear of the pore membrane and provided to be in electrical contact with the flowing solution to measure an ion conductivity change in front and rear of the pore membrane, wherein a diameter D of the micropore is 1.1 to 2 times larger than a diameter of the target cell, a thickness t of the pore membrane is 0.5 μm to 1mm, and a slenderness ratio (t/D) is 0.001 to 5, and wherein a cross-sectional shape of the micropore formed on the pore membrane is any one of an oval, a rectangle, and a rounded rectangle; characterised in that the inlet chamber comprises a flow channel for guiding flow of the target cell-containing solution toward the pore membrane and buffer channels joined from opposite sides of the flow channel and configured to guide flow of a buffer solution toward the pore membrane such that the buffer solution flows to opposite sides of the target cell-containing solution.
A method for decoding a video signal, the method performed by an apparatus and comprising: determining an intra prediction mode for a current block of the video signal; based on the intra prediction mode for the current block being intra planar prediction mode, predicting a video data sample included in the current block by processing a bi-linear interpolation of a first reference sample, a second reference sample, a third reference sample, and a fourth reference sample, the first reference sample being a reconstructed neighboring left sample of the current block and being on a same y-coordinate line as the video data sample, the second reference sample being a reconstructed neighboring top sample of the current block and being on a same x-coordinate line as the video data sample, the third reference sample being a reconstructed reference sample taken from a neighboring top-right block of the current block, and the fourth reference sample being a reconstructed reference sample taken from a neighboring bottom-left block of the current block; and reconstructing the video data sample based on the predicted video data sample, wherein the same third and fourth reference samples are used in the bi-linear interpolation process for each of a plurality of video data samples to be predicted within the current block. determining an intra prediction mode for a current block of the video signal; based on the intra prediction mode for the current block being intra planar prediction mode, predicting a video data sample included in the current block by processing a bi-linear interpolation of a first reference sample, a second reference sample, a third reference sample, and a fourth reference sample, the first reference sample being a reconstructed neighboring left sample of the current block and being on a same y-coordinate line as the video data sample, the second reference sample being a reconstructed neighboring top sample of the current block and being on a same x-coordinate line as the video data sample, the third reference sample being a reconstructed reference sample taken from a neighboring top-right block of the current block, and the fourth reference sample being a reconstructed reference sample taken from a neighboring bottom-left block of the current block; and reconstructing the video data sample based on the predicted video data sample, wherein the same third and fourth reference samples are used in the bi-linear interpolation process for each of a plurality of video data samples to be predicted within the current block.
A method for reducing a frequency of memory errors encountered by a computer system, the method comprising: receiving from a calling software module a request for execution of a memory operation, characterized in that the method further comprises: determining whether one or more mitigation actions should be applied during execution of the memory operation requested by the calling software module by reviewing information stored in a mitigation data store, wherein the information stored in the mitigation data store comprises an event log, the event log comprising information about memory errors experienced by each calling software module, memory errors that have been detected as mitigated, and memory operations requested to be performed; if the one or more mitigation actions should be applied, applying at least one of the one or more mitigation actions to mitigate a memory error occurring as a result of the memory operation, whereby the one or more mitigation actions comprise any action of changing an operation prior to executing it, not executing an operation, executing an operation at a later time, confirming correct input for an operation prior to executing it, or performing an operation with minimal changes to memory space; and executing (312, 314) the memory operation in accordance with the mitigation action. determining whether one or more mitigation actions should be applied during execution of the memory operation requested by the calling software module by reviewing information stored in a mitigation data store, wherein the information stored in the mitigation data store comprises an event log, the event log comprising information about memory errors experienced by each calling software module, memory errors that have been detected as mitigated, and memory operations requested to be performed; if the one or more mitigation actions should be applied, applying at least one of the one or more mitigation actions to mitigate a memory error occurring as a result of the memory operation, whereby the one or more mitigation actions comprise any action of changing an operation prior to executing it, not executing an operation, executing an operation at a later time, confirming correct input for an operation prior to executing it, or performing an operation with minimal changes to memory space; and executing (312, 314) the memory operation in accordance with the mitigation action.
A method for determining user liveness comprising the steps of: processing frames included in a sequence of frames captured by a computing device, each processed frame including image data of a face of a user captured while the computing device was moving; geometrically normalizing, by the computing device, the image data included in each processed frame, the normalized image data for each processed frame including only pixel intensity variations of the image data; detecting, by the computing device, changes in lighting of the face between sequential processed frames based on differences between the pixel intensity variations of the sequential processed frames, the variations being caused by the computing device movement; determining a signal representing the changes in lighting of the face; and determining the user is live when the signal is monotonous, a total change in the signal is less than ten percent, and an incremental change between all sequential frames is less than twenty percent of the total change. processing frames included in a sequence of frames captured by a computing device, each processed frame including image data of a face of a user captured while the computing device was moving; geometrically normalizing, by the computing device, the image data included in each processed frame, the normalized image data for each processed frame including only pixel intensity variations of the image data; detecting, by the computing device, changes in lighting of the face between sequential processed frames based on differences between the pixel intensity variations of the sequential processed frames, the variations being caused by the computing device movement; determining a signal representing the changes in lighting of the face; and determining the user is live when the signal is monotonous, a total change in the signal is less than ten percent, and an incremental change between all sequential frames is less than twenty percent of the total change.
A process for producing translucent polyurethane and polyisocyanurate foams by reaction of a component A comprising or consisting of A1 at least one polyol reactive with the component B; A2 optionally at least one amine; A3 water and optionally formic acid; A4 at least one foam stabilizer A5 optionally auxiliary and/or additive substances; A6 optionally at least one flame retardant; A7 at least one catalyst; and a component B comprising B1 at least one aliphatic or cycloaliphatic polyisocyanate component or a combination thereof; and B2 optionally at least one hydrophilized isocyanate; and B3 less than 20 parts by weight of an aromatic polyisocyanate component, wherein the parts by weight of B3 are based on the sum of the parts by weight of B1 to B3 which are normalized to 100 parts by weight, characterized in that the reaction of the component A with the component B is performed at an isocyanate index of at least 150, wherein substantially no gaseous nucleating agents, introduced by the mixing process, are present during the reaction and wherein the obtained translucent polyurethane and polyisocyanurate foams have a light transmission according to EN ISO 13468-2:2006 of at least 10% and a haze of at least 70% determined according to ASTM D1003-13 in each case measured at a thickness of 20 mm. A1 at least one polyol reactive with the component B; A2 optionally at least one amine; A3 water and optionally formic acid; A4 at least one foam stabilizer A5 optionally auxiliary and/or additive substances; A6 optionally at least one flame retardant; A7 at least one catalyst; B1 at least one aliphatic or cycloaliphatic polyisocyanate component or a combination thereof; and B2 optionally at least one hydrophilized isocyanate; and B3 less than 20 parts by weight of an aromatic polyisocyanate component, wherein the parts by weight of B3 are based on the sum of the parts by weight of B1 to B3 which are normalized to 100 parts by weight, characterized in that the reaction of the component A with the component B is performed at an isocyanate index of at least 150,
A method for wireless communication at a user equipment, UE, the method comprising: identifying a plurality of control channels, wherein each control channel of the plurality of control channels is configured to include a slot format indication, SFI, for one or more slots; identifying control channels of the plurality of control channels where the SFI is detected and control channels where the SFI is undetected; identifying a set of symbols in a slot to transmit radio resource control, RRC, configured uplink signals to a base station; determining whether the set of symbols in the slot is configured as uplink, flexible, or downlink based at least in part on detected SFIs, undetected SFIs, or a combination thereof, included in control channels of the plurality of control channels; transmitting the RRC configured uplink signals when it is determined that the set of symbols in the slot is configured as uplink; and canceling transmission of the RRC configured uplink signals when it is determined that the set of symbols in the slot is configured as flexible or downlink. identifying a plurality of control channels, wherein each control channel of the plurality of control channels is configured to include a slot format indication, SFI, for one or more slots; identifying control channels of the plurality of control channels where the SFI is detected and control channels where the SFI is undetected; identifying a set of symbols in a slot to transmit radio resource control, RRC, configured uplink signals to a base station; determining whether the set of symbols in the slot is configured as uplink, flexible, or downlink based at least in part on detected SFIs, undetected SFIs, or a combination thereof, included in control channels of the plurality of control channels; transmitting the RRC configured uplink signals when it is determined that the set of symbols in the slot is configured as uplink; and canceling transmission of the RRC configured uplink signals when it is determined that the set of symbols in the slot is configured as flexible or downlink.
An article of footwear, comprising: a sole structure including a midsole component and at least one outer sole member; the midsole component including a first outer surface with a recessed portion; the outer sole member having a second outer surface; wherein the recessed portion is configured to receive the outer sole member; a region of the sole structure including a first portion in the first outer surface of the midsole component and a second portion in the second outer surface of the outer sole member; the region including a set of holes arranged in an auxetic configuration, wherein the region is configured to undergo auxetic expansion when a tension is applied across the region in a first direction, wherein the region expands in the first direction and a second direction during auxetic expansion, the second direction being perpendicular to the first direction; wherein the auxetic configuration of the holes does not vary throughout the region; and wherein the set of holes is arranged such that each hole includes an arm oriented in a direction characterized by a first axis. a sole structure including a midsole component and at least one outer sole member; the midsole component including a first outer surface with a recessed portion; the outer sole member having a second outer surface; wherein the recessed portion is configured to receive the outer sole member; a region of the sole structure including a first portion in the first outer surface of the midsole component and a second portion in the second outer surface of the outer sole member; the region including a set of holes arranged in an auxetic configuration, wherein the region is configured to undergo auxetic expansion when a tension is applied across the region in a first direction, wherein the region expands in the first direction and a second direction during auxetic expansion, the second direction being perpendicular to the first direction; wherein the auxetic configuration of the holes does not vary throughout the region; and wherein the set of holes is arranged such that each hole includes an arm oriented in a direction characterized by a first axis.
A process for producing a ballistic-resistant curved molded article, said process comprising pressing in a mold a stack comprising: a plurality of layers of unidirectionally aligned polyolefin fibers substantially absent a bonding matrix, wherein a fiber layer comprises at most 1 wt% bonding matrix; and a plurality of layers of adhesive between adjacent layers of unidirectionally aligned fibers, wherein a means for dispersing pressure is employed against at least one surface of the stack. a plurality of layers of unidirectionally aligned polyolefin fibers substantially absent a bonding matrix, wherein a fiber layer comprises at most 1 wt% bonding matrix; and a plurality of layers of adhesive between adjacent layers of unidirectionally aligned fibers, wherein a means for dispersing pressure is employed against at least one surface of the stack.
A method for remote control of a robot hand comprising a data glove, characterized by the following method steps: - detecting desired gripping movements of the robot hand by a plurality of sensors in the data glove, - detecting a desired movement of the distal end of the robot arm to which the robot hand is mounted, and/or a translatory and/or rotatory movement of the robot hand, which in particular is no gripping movement, by at least one additional sensor in the data glove, - moving the robot hand about an x, y and z axis, the intersection point of which is in the gripping area of the robot hand defined by the last position of the robot arm, so that the robot hand is rotated by the at least one additional sensor in the data glove about a sphere, i.e. about the total of three axes, wherein the location of said sphere is determined by the last position of the robot arm and the center of the gripping area of the robot hand, so that the robot hand can be moved in circles about the object to be gripped, wherein the center of the gripping area can be freely selected and is located in a hovering manner at a defined distance from the palm of the hand, which distance can be varied according to the size of the object to be gripped. - detecting desired gripping movements of the robot hand by a plurality of sensors in the data glove, - detecting a desired movement of the distal end of the robot arm to which the robot hand is mounted, and/or a translatory and/or rotatory movement of the robot hand, which in particular is no gripping movement, by at least one additional sensor in the data glove, - moving the robot hand about an x, y and z axis, the intersection point of which is in the gripping area of the robot hand defined by the last position of the robot arm, so that the robot hand is rotated by the at least one additional sensor in the data glove about a sphere, i.e. about the total of three axes, wherein the location of said sphere is determined by the last position of the robot arm and the center of the gripping area of the robot hand, so that the robot hand can be moved in circles about the object to be gripped, wherein the center of the gripping area can be freely selected and is located in a hovering manner at a defined distance from the palm of the hand, which distance can be varied according to the size of the object to be gripped.
A vehicle, notably a motor vehicle, chassis frame side rail, made up of two section pieces (11, 12) of U-shaped cross-section, welded together by longitudinal connecting tabs (111, 121, 112, 122) juxtaposed contiguously and more or less perpendicularly extending the ends of the branches of the U, each section piece having, between each of the longitudinal connecting tabs (111, 121, 112, 122) and the branches of the U that it extends, a connecting region (113, 123, 114, 124) that forms two separate longitudinal plastic hinges that deform if the side rail is deformed by longitudinal compression so as to keep the welded joint between the longitudinal connecting tabs (111, 121, 112, 122) intact, each connecting region (113, 123, 114, 124) being made up of a radius of curvature greater than or equal to 12 mm, between the section piece portion forming the branch of the U and the longitudinal connecting tabs (111, 121, 112, 122) that extends it, characterized in that the chassis frame side rail includes a plate fixed at its end intended to be at the front of the vehicle, the two end edges of each longitudinal connecting tab (111, 121, 112, 122) of the same section piece being deformed in opposite directions to one another at the level of their fixing (41, 42) to the plate, to promote a deformation of the side rail by forming concertina folds in opposite directions at the level of the two longitudinal connecting tabs (111, 121, 112, 122), in the case of deformation by longitudinal compression.
A disc brake for a utility vehicle having a brake calliper that encompasses a brake disc, in which are mounted brake pads that make contact with the brake disc in the operating position, it being possible to press at least one brake pad onto the brake disc by means of an application device with at least one adjusting spindle mounted in the brake calliper and to which is connected a pressure piece, there being provided in order to seal an opening through the adjusting spindle with the brake calliper or a closing plate a bellows made of an elastic plastic and connected directly or indirectly thereto, the other side of the bellows abutting the pressure piece to form a seal, characterised in that the bellows is secured axially in a form fit to the adjusting spindle, which can be rotated in relation to it.