mhurhangee/ep-ind-claims huggingface dataset:
Workpiece clamping arrangement for clamping workpieces, having a bearing arrangement on which at least one clamping device, in particular a vertical clamp, is arranged wherein the clamping device has a first, in particular upper, clamping element and a second in particular lower, clamping element wherein the second clamping element has a workpiece support face defining a support plane wherein the clamping elements (1a, 1b) are opposite one another and can be displaced relative to one another in order to clamp a workpiece at least one lift rail which can be raised and lowered relative to the support plane parallel to the vertical direction, wherein the lift rail can be fixed in at least three lift positions, namely i) a first lift position which the workpiece support of the workpiece support section is situated in or beneath the support plane ii) a second lift position in which the workpiece support of the workpiece support section is situated in the support plane or between the support plane and first clamping element, and iii) a third lift position which is different from the first or second lift position characterised in that the lift rail has a workpiece support section with a workpiece support. at least one lift rail which can be raised and lowered relative to the support plane parallel to the vertical direction, wherein the lift rail can be fixed in at least three lift positions, namely i) a first lift position which the workpiece support of the workpiece support section is situated in or beneath the support plane ii) a second lift position in which the workpiece support of the workpiece support section is situated in the support plane or between the support plane and first clamping element, and iii) a third lift position which is different from the first or second lift position i) a first lift position which the workpiece support of the workpiece support section is situated in or beneath the support plane ii) a second lift position in which the workpiece support of the workpiece support section is situated in the support plane or between the support plane and first clamping element, and iii) a third lift position which is different from the first or second lift position characterised in that the lift rail has a workpiece support section with a workpiece support.
Method for estimation of an item of information representative of a height, characterized in that the method comprises the following steps: a) selecting (61, 71) a first point as a reference point from among a plurality of points of a normal map, a normal being associated with each of the points of said plurality, a reference height (Hr) being associated with said first point, b) calculating a height difference d with respect to a vertical axis, between the reference point and a point of the normal map different from the reference point and being in the immediate neighbouring area of said reference point, the height difference d being calculated according to the normal n associated with the point, a vector v representative of said vertical axis and the distance δ separating the reference point from the point in the normal map represented on a regular grid such that the height difference d equals (n-v)·δ. c) assigning said item of information representative of a height to said point, said item of information being based on said height difference, d) calculating a height difference for each point of the normal map and assigning said item of information representative of a height to said each point by repeating steps b) and c), wherein the point for which said height difference has been previously calculated becomes the reference point and the height difference is computed for a point of the immediate neighbouring area of the point for which said height difference has been previously calculated. a) selecting (61, 71) a first point as a reference point from among a plurality of points of a normal map, a normal being associated with each of the points of said plurality, a reference height (Hr) being associated with said first point, b) calculating a height difference d with respect to a vertical axis, between the reference point and a point of the normal map different from the reference point and being in the immediate neighbouring area of said reference point, the height difference d being calculated according to the normal n associated with the point, a vector v representative of said vertical axis and the distance δ separating the reference point from the point in the normal map represented on a regular grid such that the height difference d equals (n-v)·δ. c) assigning said item of information representative of a height to said point, said item of information being based on said height difference, d) calculating a height difference for each point of the normal map and assigning said item of information representative of a height to said each point by repeating steps b) and c), wherein the point for which said height difference has been previously calculated becomes the reference point and the height difference is computed for a point of the immediate neighbouring area of the point for which said height difference has been previously calculated.
Method for preventing or reducing the risk of injury to vehicle occupants in the event of a rear-end collision, comprising the following method steps: a) detecting the imminent occurrence of the rear-end collision, b) determining the estimated impact time t A, c) determining the emission time t E or emission time window for a startle signal that acts on the vehicle occupants, d) emitting the startle signal at the emission time t E or within the emission time window in order to induce a startle reflex in the vehicle occupants, e) characterised in that before the startle signal is emitted, the head is aligned in the direction of travel as a preparatory measure by a preceding optical signal being output. a) detecting the imminent occurrence of the rear-end collision, b) determining the estimated impact time t A, c) determining the emission time t E or emission time window for a startle signal that acts on the vehicle occupants, d) emitting the startle signal at the emission time t E or within the emission time window in order to induce a startle reflex in the vehicle occupants, e) characterised in that before the startle signal is emitted, the head is aligned in the direction of travel as a preparatory measure by a preceding optical signal being output.
Underlay for a sloping roof having a water-permeable and water vapour-permeable support layer and a water-tight and water vapour-permeable sealing layer based on TPU, characterised in that the thickness of the sealing layer has dimensions such that the underlay can be joined to a further similar underlay by thermal welding and solvent welding to be water-tight and water vapour-permeable, wherein the underlay has a water-tight and water vapour-permeable connecting strip based on TPU along at least one of the edges of the support layer which projects beyond this at least one edge, wherein both the TPU of the sealing layer and the TPU of the connecting strip is an aromatic TPU.
A picture coding apparatus which codes a picture on a block-by-block basis, the picture coding apparatus comprising: a motion compensation unit configured to generate, when performing frame coding on a block included in the picture, a predictive image using i) pixel values of a reference frame to which the block refers and ii) a frame weighting factor, and to generate, when performing field coding on the block, a predictive image using i) pixel values of a reference field to which the block refers and ii) a field weighting factor; and a variable length coding unit configured to code only the frame weighting factor without coding the field weighting factor and output a coded signal which includes i) a coded picture generated using the predictive image and ii) the coded frame weighting factor, when the picture has a frame structure and switching between the frame coding and the field coding is adaptively performed per block included in the picture, wherein the field weighting factor is generated from the frame weighting factor when the picture has the frame structure and the switching between the frame coding and the field coding is adaptively performed per block included in the picture. a motion compensation unit configured to generate, when performing frame coding on a block included in the picture, a predictive image using i) pixel values of a reference frame to which the block refers and ii) a frame weighting factor, and to generate, when performing field coding on the block, a predictive image using i) pixel values of a reference field to which the block refers and ii) a field weighting factor; and a variable length coding unit configured to code only the frame weighting factor without coding the field weighting factor and output a coded signal which includes i) a coded picture generated using the predictive image and ii) the coded frame weighting factor, when the picture has a frame structure and switching between the frame coding and the field coding is adaptively performed per block included in the picture, wherein the field weighting factor is generated from the frame weighting factor when the picture has the frame structure and the switching between the frame coding and the field coding is adaptively performed per block included in the picture.
A current sensor (100,200,300) comprising: a conductor (140,240,340); an insulation layer (130,230,330) in contact with the conductor (140,240,340); a shield layer (120,220,320) spaced from the conductor (140,240,340) by the insulation layer (130,230,330) and coupled to a reference potential; a semiconductor substrate (110,210,310) having a first surface (110a,210a,310a) in contact with the shield layer (120,220,320) and a second opposing surface (110b,210b,310b) disposed distal from the shield layer (120,220,320), wherein an edge of the insulation layer (130,230,330) extends beyond an edge of the conductor (140,240,340), the shield layer (120,220,320) and the semiconductor substrate (110,210,310); a magnetic field sensing circuit comprising a magnetic field sensing element (115,215,315) supported by the first or second surface of the substrate (110,210,310), wherein the reference potential to which the shield layer (120,220,320) is coupled is a reference potential of the magnetic field sensing circuit; and a via (150,250,350) extending through the semiconductor substrate (110,210,310) to couple the shield layer (120,220,320) to the second surface (110b,210b,310b) of the semiconductor substrate (110,210,310), wherein the shield layer (120,220,320) is coupled to the reference potential through the via (150,250,350). a conductor (140,240,340); an insulation layer (130,230,330) in contact with the conductor (140,240,340); a shield layer (120,220,320) spaced from the conductor (140,240,340) by the insulation layer (130,230,330) and coupled to a reference potential; a semiconductor substrate (110,210,310) having a first surface (110a,210a,310a) in contact with the shield layer (120,220,320) and a second opposing surface (110b,210b,310b) disposed distal from the shield layer (120,220,320), wherein an edge of the insulation layer (130,230,330) extends beyond an edge of the conductor (140,240,340), the shield layer (120,220,320) and the semiconductor substrate (110,210,310); a magnetic field sensing circuit comprising a magnetic field sensing element (115,215,315) supported by the first or second surface of the substrate (110,210,310), wherein the reference potential to which the shield layer (120,220,320) is coupled is a reference potential of the magnetic field sensing circuit; and a via (150,250,350) extending through the semiconductor substrate (110,210,310) to couple the shield layer (120,220,320) to the second surface (110b,210b,310b) of the semiconductor substrate (110,210,310), wherein the shield layer (120,220,320) is coupled to the reference potential through the via (150,250,350).
A composition comprising a drug conjugate, wherein said drug conjugate comprises calicheamicin derivatives and an anti-CD22 antibody and has the formula: wherein the antibody comprises SEQ ID NO: 1 for CDR-H1, residues 50-66 of SEQ ID NO: 27 for CDR-H2, SEQ ID NO: 3 for CDR-H3, SEQ ID NO: 4 for CDR-L1, SEQ ID NO: 5 for CDR-L2 and SEQ ID NO: 6 for CDR-L3.
Axle lift to be mounted to a wheel axle suspension of a vehicle; the wheel axle suspension including a carrying bracket mounted to a vehicle chassis, a trailing arm attached to an axle body of the wheel axle, a pivot bolt having a head and a corresponding tensioning nut as well as an air spring which is operative between the chassis and the axle body, the trailing arm being pivotably mounted to the carrying bracket by means of the pivot bolt and the tensioning nut, wherein the carrying bracket comprises two spaced apart lateral plates each having a hole provided with an alignment feature, and wherein the pivot bolt extends through said holes and an eyelet of the trailing arm arranged between the lateral plates of the carrying bracket, the holes with the alignment feature allowing varying positions of the pivot bolt in the carrying bracket and thereby an alignment of the axle body attached to the trailing arm; the axle lift comprising an actuator adapted to lift the wheel axle and a supporting console adapted to be mounted to the carrying bracket and supporting one end of the actuator underneath the carrying bracket, wherein the supporting console has legs extending along the lateral plates of the carrying bracket, which legs have an upper leg portion adapted to be arranged against the pivot bolt head and the tensioning nut, or against accessories arranged around the pivot bolt head and/or tensioning nut, such as bushings, spacer rings or the like, wherein the axle lift is adapted to be retrofitted to an existing wheel axle suspension without loosening the pivot bolt, characterized in that the axle lift furthermore comprises a supporting bracket which is connected to the supporting console, which supporting bracket in the mounted state abuts an underside of the carrying bracket to counteract the actuator force, which supporting bracket is adapted to be secured to the carrying bracket and wherein the supporting bracket and/or the supporting console have an alignment feature (30, 35) to allow securing of the supporting console to the carrying bracket in varying positions adaptive to the varying alignment positions of the pivot bolt in the carrying bracket.
A spool comprising: a drum portion having a front end and a rear end, the drum portion also including a side wall that extends between the front and rear ends of the drum portion and surrounds an axis of rotation of the spool, the drum portion further including a rear end wall at the rear end of the drum portion, the rear end wall defining a fastener opening aligned with the axis of rotation of the spool; a flange portion coupled to the front end of the drum portion, the flange portion extending radially outwardly from the axis of rotation of the spool; and a strap arrangement coupled to the flange portion to hold any of a plurality of types of optical network terminals to the spool; wherein the strap arrangement has a first end attached to the flange portion and a second end defining a plurality of apertures. a drum portion having a front end and a rear end, the drum portion also including a side wall that extends between the front and rear ends of the drum portion and surrounds an axis of rotation of the spool, the drum portion further including a rear end wall at the rear end of the drum portion, the rear end wall defining a fastener opening aligned with the axis of rotation of the spool; a flange portion coupled to the front end of the drum portion, the flange portion extending radially outwardly from the axis of rotation of the spool; and a strap arrangement coupled to the flange portion to hold any of a plurality of types of optical network terminals to the spool; wherein the strap arrangement has a first end attached to the flange portion and a second end defining a plurality of apertures.
A lid (10, 110) for a container, the lid (10, 110) comprising: a central wall (12, 112); and a dispensing feature (16, 116) comprising a dispenser flap foldably connected to the central wall (12, 112), a projection (24, 124) extending from the dispenser flap, and a ledge, wherein the projection (24, 124) comprises a top surface (26, 126) that is curved downwardly from a center portion of the projection (24, 124) along a direction that is parallel to at least a portion of the ledge, and wherein the projection (24, 124) comprises a front surface (28, 128) extending at least upwardly from the dispenser flap to a corner (30, 130) extending between the top surface (26, 126) and the front surface (28, 128) of the projection (24, 124); the dispenser flap is movable to a dispensing position in which the dispenser flap is spaced from the ledge to at least partially form a dispensing opening, wherein the corner (30, 130) snaps under the ledge so that the dispenser flap is in the dispensing position and the projection (24, 124) is in locking engagement with the ledge, and wherein the top surface (26, 126) engages the ledge and the corner (30, 130) is positioned below the ledge when the projection (24, 124) is in locking engagement with the ledge. a central wall (12, 112); and a dispensing feature (16, 116) comprising a dispenser flap foldably connected to the central wall (12, 112), a projection (24, 124) extending from the dispenser flap, and a ledge, wherein the projection (24, 124) comprises a top surface (26, 126) that is curved downwardly from a center portion of the projection (24, 124) along a direction that is parallel to at least a portion of the ledge, and wherein the projection (24, 124) comprises a front surface (28, 128) extending at least upwardly from the dispenser flap to a corner (30, 130) extending between the top surface (26, 126) and the front surface (28, 128) of the projection (24, 124); the dispenser flap is movable to a dispensing position in which the dispenser flap is spaced from the ledge to at least partially form a dispensing opening, wherein the corner (30, 130) snaps under the ledge so that the dispenser flap is in the dispensing position and the projection (24, 124) is in locking engagement with the ledge, and wherein the top surface (26, 126) engages the ledge and the corner (30, 130) is positioned below the ledge when the projection (24, 124) is in locking engagement with the ledge.
A system, comprising: a gas turbine engine configured to combust an oxidant and a fuel to generate an exhaust gas (42, 60); a catalyst bed configured to treat at least a portion of the exhaust gas from the gas turbine engine to generate a treated exhaust gas; a differential temperature monitor configured to monitor a differential temperature between a first temperature of the portion of exhaust gas upstream of the catalyst bed and a second temperature of the treated exhaust gas downstream of the catalyst bed; and an oxidant-to-fuel ratio system configured to adjust a parameter to maintain an efficacy of the catalyst bed based at least in part on the differential temperature in order to maintain a target equivalence ratio. a gas turbine engine configured to combust an oxidant and a fuel to generate an exhaust gas (42, 60); a catalyst bed configured to treat at least a portion of the exhaust gas from the gas turbine engine to generate a treated exhaust gas; a differential temperature monitor configured to monitor a differential temperature between a first temperature of the portion of exhaust gas upstream of the catalyst bed and a second temperature of the treated exhaust gas downstream of the catalyst bed; and an oxidant-to-fuel ratio system configured to adjust a parameter to maintain an efficacy of the catalyst bed based at least in part on the differential temperature in order to maintain a target equivalence ratio.
An implant made from plastic, comprising a longitudinal axis and an external thread, characterized in that the implant comprises a thermoplastic plastic with a modulus of elasticity E of 10-70 GPa, reinforced with long fibers arranged multidirectionally in a targeted manner, wherein the long fibers arranged multidirectionally in a targeted manner comprise fibers extending parallel to the longitudinal axis of the implant as well as, in the region of the external thread, fibers which extend at a right angle with respect to the longitudinal axis of the implant and which, in the region of the thread flanks, follow the winding course, and in that it is a single-component plastic implant.
Procedure for operating a field device (T1, T2) used in process automation technology, wherein data are exchanged between the field device (F1, F2) and an operating program (P1, P2, P3, P4) by means of at least a protocol, wherein the protocol comprises basic commands, which each field device compatible with the corresponding protocol must have, and via said basic commands basic functions (F1, F2, F3, F4) of the field device are called, wherein each field device (T1, T2) compatible with the protocol has said basic functions (F1, F2, F3, F4), characterized in that only basic commands of the protocol are used to transmit data between the operating program (P1, P2, P3, P4) and the field device (T1, T2).
A damage recognition assist system of a vehicle, said system comprising: - at least one vehicle camera adapted to provide a stream of camera frames including camera images of the vehicle's surrounding and of areas or parts of the vehicle's chassis; - a monitoring unit adapted to detect an imminent interaction of the vehicle with an external object and to identify areas or parts of the vehicle's chassis possibly affected by the detected interaction; - a comparison unit adapted to compare recent camera images of the possibly affected areas or parts of the vehicle's chassis with previous camera images of the same areas included in reference camera frames to determine the state and level of damage of the vehicle's chassis due to the detected interaction; characterized by - a notification unit adapted to notify a driver of the vehicle about determined damaged areas and/or parts of the vehicle's chassis and/or other possibly affected components of the vehicle, wherein - determined damaged areas and/or components of the vehicle's chassis are displayed using a three-dimensional vehicle model of the affected vehicle where the suspected affected areas and/or components are highlighted, and wherein - the notification unit notifies the driver whether he has to stop the vehicle for safety reasons. - at least one vehicle camera adapted to provide a stream of camera frames including camera images of the vehicle's surrounding and of areas or parts of the vehicle's chassis; - a monitoring unit adapted to detect an imminent interaction of the vehicle with an external object and to identify areas or parts of the vehicle's chassis possibly affected by the detected interaction; - a comparison unit adapted to compare recent camera images of the possibly affected areas or parts of the vehicle's chassis with previous camera images of the same areas included in reference camera frames to determine the state and level of damage of the vehicle's chassis due to the detected interaction; - a notification unit adapted to notify a driver of the vehicle about determined damaged areas and/or parts of the vehicle's chassis and/or other possibly affected components of the vehicle, wherein - determined damaged areas and/or components of the vehicle's chassis are displayed using a three-dimensional vehicle model of the affected vehicle where the suspected affected areas and/or components are highlighted, and wherein - the notification unit notifies the driver whether he has to stop the vehicle for safety reasons. - determined damaged areas and/or components of the vehicle's chassis are displayed using a three-dimensional vehicle model of the affected vehicle where the suspected affected areas and/or components are highlighted, and wherein - the notification unit notifies the driver whether he has to stop the vehicle for safety reasons.