mhurhangee/ep-ind-claims huggingface dataset:
Anhydrous cosmetic composition for making up and/or caring for the skin and/or lips, which is liquid at 20°C, with a viscosity of 5 to 25 Pa.s (20°C) comprising, in a physiologically acceptable medium, at least one fatty phase comprising: - at least one organopolysiloxane elastomer powder coated with silicone resin, - at least one organopolysiloxane elastomer conveyed in a first oil, - at least one wax, - at least one second oil, and the said organopolysiloxane elastomer and the organopolysiloxane elastomer powder coated with a silicone resin being present in a ratio by weight on a dry basis of organopolysiloxane elastomer conveyed in an oil/organopolysiloxane elastomer powder coated with a silicone resin of greater than 2 and preferably of greater than 2.5. - at least one organopolysiloxane elastomer powder coated with silicone resin, - at least one organopolysiloxane elastomer conveyed in a first oil, - at least one wax, - at least one second oil, and
A method for controlling a vehicle comprising an electric powertrain, an energy storage system, regenerative braking functionality and cruise control functionality, wherein the cruise control functionality is configured to maintain a set cruise control speed of the vehicle during downhill travel by applying the regenerative braking functionality, the method comprising: obtaining a tolerance limit for an allowed increase in energy consumption caused by non-use or reduced use of regenerative braking during downhill travel; obtaining information relating to an upcoming downhill road segment; based on the information relating to the upcoming downhill road segment, setting an allowed overspeed, caused by non-use or reduced use of the regenerative braking functionality, wherein the allowed overspeed exceeds the set cruise control speed for the upcoming downhill road segment and is set based on the tolerance limit; and in the upcoming downhill road segment, controlling regenerative braking of the vehicle based on the set allowed overspeed, thereby reducing or preventing regenerative braking during the downhill travel. obtaining a tolerance limit for an allowed increase in energy consumption caused by non-use or reduced use of regenerative braking during downhill travel; obtaining information relating to an upcoming downhill road segment; based on the information relating to the upcoming downhill road segment, setting an allowed overspeed, caused by non-use or reduced use of the regenerative braking functionality, wherein the allowed overspeed exceeds the set cruise control speed for the upcoming downhill road segment and is set based on the tolerance limit; and in the upcoming downhill road segment, controlling regenerative braking of the vehicle based on the set allowed overspeed, thereby reducing or preventing regenerative braking during the downhill travel.
Actuator unit for automotive applications, in particular motor vehicle door latches, with a drive, and with an actuating element (3, 4) which can be impinged by the drive, whereby the actuating element (3, 4) is made completely or partly of plastic, the actuating element (3,4) has at least a spindle and a spindle nut accommodated in a housing, characterized in that the plastic contains a polymer material self-reinforced partially or completely and that the self-reinforced polymer material comprises rod-shaped molecules which are predominantly arranged in the lengthwise extension of the actuating element (3, 4), whereby the rod-shaped molecules of a liquid crystal polymer are thus aligned at least in the spindle in such a way that they demonstrate an arrangement in the lengthwise extension.
A magnetic refrigerating device comprising: a)a fixed container filled with a refrigerant, the fixed container including a magnetic material container being filled with a magnetic material and being capable of moving in the fixed container and an elastic member (14a, 14b) provided at an end of the magnetic material container; and b) a magnetic field applying/removing mechanism (16a, 16b) being provided at an outside of the fixed container, the mechanism (16a, 16b) being configured to apply and remove a magnetic field to and from the magnetic material and to generate a magnetic torque in a moving direction of the magnetic material container; characterized in that c) said magnetic field applying/removing mechanism (16a, 16b) and the magnetic material container are forming a moving magnetic field circuit whereby the magnetic material container is drawn in the direction in which the magnetic circuit moves. a)a fixed container filled with a refrigerant, the fixed container including a magnetic material container being filled with a magnetic material and being capable of moving in the fixed container and an elastic member (14a, 14b) provided at an end of the magnetic material container; and b) a magnetic field applying/removing mechanism (16a, 16b) being provided at an outside of the fixed container, the mechanism (16a, 16b) being configured to apply and remove a magnetic field to and from the magnetic material and to generate a magnetic torque in a moving direction of the magnetic material container; characterized in that c) said magnetic field applying/removing mechanism (16a, 16b) and the magnetic material container are forming a moving magnetic field circuit whereby the magnetic material container is drawn in the direction in which the magnetic circuit moves.
A stent (100, 200, 300) comprising: a non-bioresorbable framework extending along a longitudinal axis having an at least partially cylindrical shape with proximal and distal ends; a longitudinal zone (104, 204) of the stent extending from the proximal end of the framework to the distal end, the longitudinal zone (104, 204) being defined by opposing longitudinal edges (106, 108, 206, 208); and a plurality of bioresorbable struts (110, 210), each bioresorbable strut being secured to the opposing longitudinal edges (106, 108, 206, 208) of the longitudinal zone (104, 204) to maintain the stent (100, 200, 300) in one operational state having an expanded deployed diameter with the plurality of bioresorbable struts (110, 210) holding the opposing longitudinal edges (106, 108, 206, 208) a first distance apart such that upon degradation of the plurality of bioresorbable struts (110, 210), the stent (100, 200, 300) will contract to another operational state having a reduced deployed diameter so that the opposing longitudinal edges (106, 108, 206, 208) are a second distance apart that is less than the first distance; and at least one non-bioresorbable strut that is secured to the opposing longitudinal edges (106, 108, 206, 208) of the longitudinal zone (104, 204) wherein the non-bioresorbable framework and the at least one non-bioresorbable strut have sufficient resiliency to cause the stent (100, 200, 300) to contract to the reduced deployed diameter when the plurality of bioresorbable struts (110, 210) degrade. a non-bioresorbable framework extending along a longitudinal axis having an at least partially cylindrical shape with proximal and distal ends; a longitudinal zone (104, 204) of the stent extending from the proximal end of the framework to the distal end, the longitudinal zone (104, 204) being defined by opposing longitudinal edges (106, 108, 206, 208); and a plurality of bioresorbable struts (110, 210), each bioresorbable strut being secured to the opposing longitudinal edges (106, 108, 206, 208) of the longitudinal zone (104, 204) to maintain the stent (100, 200, 300) in one operational state having an expanded deployed diameter with the plurality of bioresorbable struts (110, 210) holding the opposing longitudinal edges (106, 108, 206, 208) a first distance apart such that upon degradation of the plurality of bioresorbable struts (110, 210), the stent (100, 200, 300) will contract to another operational state having a reduced deployed diameter so that the opposing longitudinal edges (106, 108, 206, 208) are a second distance apart that is less than the first distance; and at least one non-bioresorbable strut that is secured to the opposing longitudinal edges (106, 108, 206, 208) of the longitudinal zone (104, 204) wherein the non-bioresorbable framework and the at least one non-bioresorbable strut have sufficient resiliency to cause the stent (100, 200, 300) to contract to the reduced deployed diameter when the plurality of bioresorbable struts (110, 210) degrade.
Flame-retardant polyamide compositions having a heat deflection temperature HDT-A of at least 280°C, comprising - polyamide having a melting point of not less than 290°C as component A, - fillers and/or reinforcers as component B, - phosphinic salt of the formula as component C in which R 1 and R 2 are ethyl, M is Al, Fe, TiO p or Zn, m is 2 to 3, and p = 4 − m / 2 - compound selected from the group of the Al, Fe, TiO p and Zn salts of ethylbutylphosphinic acid, of dibutylphosphinic acid, of ethylhexylphosphinic acid, of butylhexylphosphinic acid and/or of dihexylphosphinic acid as component D, and - monoethylphosphinic salt of the formula II as component E in which R 3 is ethyl, Met is Al, Fe, TiO q or Zn, n is 2 to 3, and q = 4 − n / 2. - polyamide having a melting point of not less than 290°C as component A, - fillers and/or reinforcers as component B, - phosphinic salt of the formula as component C in which R 1 and R 2 are ethyl, M is Al, Fe, TiO p or Zn, m is 2 to 3, and p = 4 − m / 2 in which R 1 and R 2 are ethyl, M is Al, Fe, TiO p or Zn, m is 2 to 3, and p = 4 − m / 2 - compound selected from the group of the Al, Fe, TiO p and Zn salts of ethylbutylphosphinic acid, of dibutylphosphinic acid, of ethylhexylphosphinic acid, of butylhexylphosphinic acid and/or of dihexylphosphinic acid as component D, and - monoethylphosphinic salt of the formula II as component E in which R 3 is ethyl, Met is Al, Fe, TiO q or Zn, n is 2 to 3, and q = 4 − n / 2. in which R 3 is ethyl, Met is Al, Fe, TiO q or Zn, n is 2 to 3, and q = 4 − n / 2.
A flexible lighting assembly comprising: a flexible cable having a width and thickness, and comprising electrical conductors to provide electrical circuit paths; a plurality of light emitting diodes electrically connected to electrical conductors of the flexible cable, wherein the light emitting diodes comprise leads placed against a first exterior surface of the flexible cable; and a plurality of light distribution film segments positioned on the first exterior surface of the flexible cable, each segment corresponding to a light emitting diode, and each distribution film segment comprising a top surface generally parallel to the flexible cable and two side surfaces running between the top surface and the first exterior surface of the flexible cable at opposing ends of each segment, each distribution film segment comprising a light deflector positioned directly over the light emitting diode, wherein the light deflector redirects light emitted from the light emitting diode in a direction generally towards one of the side surfaces of the segment, and the side surface of one segment is spaced apart from the closest side surface of an adjacent segment by a gap on the flexible cable. a flexible cable having a width and thickness, and comprising electrical conductors to provide electrical circuit paths; a plurality of light emitting diodes electrically connected to electrical conductors of the flexible cable, wherein the light emitting diodes comprise leads placed against a first exterior surface of the flexible cable; and a plurality of light distribution film segments positioned on the first exterior surface of the flexible cable, each segment corresponding to a light emitting diode, and each distribution film segment comprising a top surface generally parallel to the flexible cable and two side surfaces running between the top surface and the first exterior surface of the flexible cable at opposing ends of each segment, each distribution film segment comprising a light deflector positioned directly over the light emitting diode, wherein the light deflector redirects light emitted from the light emitting diode in a direction generally towards one of the side surfaces of the segment, and the side surface of one segment is spaced apart from the closest side surface of an adjacent segment by a gap on the flexible cable.
An electroplating solution for lithium metal, the electroplating solution comprising: an ether-based solvent; a lithium salt; a lithium nitrogen oxide; and an additive represented by the following Chemical Formula 1: <Chemical Formula 1> MNO X wherein, in Chemical Formula 1, M is Cs, Rb, K, Ba, Sr, Ca, Na or Mg, and x is 2 or 3. an ether-based solvent; a lithium salt; a lithium nitrogen oxide; and an additive represented by the following Chemical Formula 1: <Chemical Formula 1> MNO X wherein, in Chemical Formula 1, M is Cs, Rb, K, Ba, Sr, Ca, Na or Mg, and x is 2 or 3.
Attachment configured for assembling at least two basic parts (51, 52) by tightening them, said attachment including a first component, the first component being equipped with a head extended by an elongated element, said elongated element comprising, along a geometric axis, an initial section and a final section, the initial section extending along said geometric axis from the head, the final section forming a free end of the elongated element and being configured to be separated from the initial section, the initial section being contained in a first geometric cylinder, which is centred on said geometric axis, and has a first geometric diameter, the final section being contained in a second geometric cylinder, which is centred on said geometric axis, and has a second geometric diameter, the first geometric axis being larger than the second geometric diameter, characterised in that said elongated element includes a cutting component, positioned between the free end and the head along said geometric axis, and configured to cut at least one said basic part following insertion of the first component in said at least two basic parts, said initial section extending along said geometric axis from said head up to an initial end supporting said cutting component.
A collar device for use in a method for mitigating a traumatic brain injury in a subject by reducing the blood flow through one or more neck veins, wherein the collar device is configured to be worn by the subject to only partially encircle the subject's neck, and has at least one inwardly-directed region configured to contact the neck, thereby applying a localized pressure to the one or more neck veins before and during events with risk of the traumatic brain injury wherein the pressure is due to the internal dimension of the collar device being less than the neck diameter resulting from the elasticity of the collar device.
A method for weaving at least one carpet (C1, C2), said carpet having a backing fabric (F1, F2) including at least one area (A 1) with piles (D1, D2) and at least one area (A 0) without piles where: - the backing fabric is woven with, on the one hand, filling warp yarns (f1, f2), binding warp yarns (b1, b'1, b"1, b"'1, b2, b'2, b"2, b"'2) and dead pile yarns (I-VIII) and, on the other hand, weft yarns (Wi, Wo) which are inserted in successive insertion cycles (P1-P36) between the binding warp yarns and comprise inner weft yarns (Wi) inserted on the pile side of the filling warp yarns and outer weft yarns (Wo) inserted on a side of the filling warp yarns opposite to the piles, characterised in that - the warp yarns are organized, along the weft direction, in respective sets with all the filling warp yarns (f1, f2), binding warp yarns (b1, b'1, b"1, b'"1, b2, b'2, b"2, b"'2) and dead pile yarns (I-VIII) of one set going through a same reed dent space, and in that in at least one area (A 0) without piles of the backing fabric (F1, F2) of a given carpet (C1, C2) and for each warp yarn set, all the dead pile yarns (I-IV; V-VIII) are respectively maintained in the backing fabric (F1, F2) under or above the inner weft yarns (Wi) and wherein all the dead pile yarns (I-IV; V-VIII) of a warp yarn set follow, within a backing fabric, a path where - for some picks, all the dead pile yarns (I-IV; V-VIII) are placed under the inner weft yarn (Wi) - for some other picks, at least two dead pile yarns (I-IV; V-VIII) of said warp yarn set are placed above the inner weft yarn (Wi) and the other dead pile yarns are placed under the inner weft yarn and in that the inner weft yarns (Wi) are divided into at least two different kinds of inner weft yarns (Wi1, Wi2, Wi3) which are alternatively woven into the backing fabric (F1, F2). - the backing fabric is woven with, on the one hand, filling warp yarns (f1, f2), binding warp yarns (b1, b'1, b"1, b"'1, b2, b'2, b"2, b"'2) and dead pile yarns (I-VIII) and, on the other hand, weft yarns (Wi, Wo) which are inserted in successive insertion cycles (P1-P36) between the binding warp yarns and comprise inner weft yarns (Wi) inserted on the pile side of the filling warp yarns and outer weft yarns (Wo) inserted on a side of the filling warp yarns opposite to the piles, - the warp yarns are organized, along the weft direction, in respective sets with all the filling warp yarns (f1, f2), binding warp yarns (b1, b'1, b"1, b'"1, b2, b'2, b"2, b"'2) and dead pile yarns (I-VIII) of one set going through a same reed dent space, - for some picks, all the dead pile yarns (I-IV; V-VIII) are placed under the inner weft yarn (Wi) - for some other picks, at least two dead pile yarns (I-IV; V-VIII) of said warp yarn set are placed above the inner weft yarn (Wi) and the other dead pile yarns are placed under the inner weft yarn
Method for dynamic normalization of image data for perfusion comparison and quantification, comprising the steps of determining an integrated volume of contrast agent flowing through a defined section of a blood vessel, wherein the integrated volume of contrast agent is determined by a total volume flow in the defined section of the blood vessel and an average contrast amount observed over the defined section of the blood vessel; and normalizing the image data based on the determined integrated volume of contrast agent.
An agitator ball mill (1a, 1b) comprising a cylindrical grinding container, which has a grinding material inlet and a grinding material outlet, comprising a separating device arranged upstream of the grinding material outlet, wherein an agitator shaft, which is connected to a drive via a drive shaft, is arranged in the grinding container, wherein pins are formed on an outer jacket surface of the agitator shaft as agitating elements, which transmit the drive energy of the agitator shaft at least partially to grinding bodies arranged loosely within the grinding container, wherein the agitator shaft is formed to be at least partially hollow cylindrical and wherein an end of the agitator shaft located opposite the drive is at least partially open, characterized in that an inner shaft (10a, 10b) is formed in the hollow cylindrical interior (9a, 9b) of the agitator shaft, wherein a first end of the inner shaft (10a, 10b) within the hollow cylindrical interior (9a, 9b) of the agitator shaft is fastened coaxially to the drive shaft and/or coaxially to the agitator shaft, wherein the opposite second end of the inner shaft (10a, 10b) projects out of the hollow cylindrical interior (9a, 9b) of the agitator shaft and wherein the separating device is arranged on the projecting, second end of the inner shaft (10a, 10b).
A safety ring for closing a container, wherein said container comprises an opening, an annular flange that surrounds and protrudes radially from said opening and a lid capable of closing said opening and having a perimeter edge able to rest on the annular flange, wherein the safety ring comprises: - a curved band which extends about a predetermined central axis and which exhibits a first and a second end portion (160, 165) overlapped on each other, - a clamping device operable to make said end portions (160, 165) slide in a circumferential direction, keeping them in mutual overlap, between an opening configuration, wherein the overlapping of said end portions (160, 165) is minimal and the diameter of the curved band relative to the central axis is maximum, and a closing configuration, wherein the overlap of said end portions (160, 165) is maximum and the diameter of the curved band is minimal, and wherein said curved band exhibits a lateral strip, substantially cylindrical in shape, able to surround the annular flange of the container, a first circumferential edge projecting radially inward with respect to the lateral strip, which circumferential edge is adapted to be overlapped on the perimeter edge of the lid, and a second circumferential edge able to be folded under the annular flange of the container, wherein the first circumferential edge of the curved band folded into a curl and exhibits a cross section, afforded relative to a section plane containing the central axis of the curved band, of a substantially circular or arc shape. - a curved band which extends about a predetermined central axis and which exhibits a first and a second end portion (160, 165) overlapped on each other, - a clamping device operable to make said end portions (160, 165) slide in a circumferential direction, keeping them in mutual overlap, between an opening configuration, wherein the overlapping of said end portions (160, 165) is minimal and the diameter of the curved band relative to the central axis is maximum, and a closing configuration, wherein the overlap of said end portions (160, 165) is maximum and the diameter of the curved band is minimal, and wherein said curved band exhibits a lateral strip, substantially cylindrical in shape, able to surround the annular flange of the container, a first circumferential edge projecting radially inward with respect to the lateral strip, which circumferential edge is adapted to be overlapped on the perimeter edge of the lid, and a second circumferential edge able to be folded under the annular flange of the container, wherein the first circumferential edge of the curved band folded into a curl and exhibits a cross section, afforded relative to a section plane containing the central axis of the curved band, of a substantially circular or arc shape.
A method for controlling lowering of an implement of a working machine, the working machine having a hydraulic system comprising a hydraulic cylinder for moving the implement and a first control valve for controlling the flow of hydraulic fluid from the piston side of the hydraulic cylinder, and a recovery unit connected to the control valve for recovering energy by receiving a return flow from the piston side of the hydraulic cylinder, the piston side of the hydraulic cylinder and the control valve being connected to each other, characterized in that the piston rod side of the hydraulic cylinder is connected to the control valve and to the recovery unit in a point between the control valve and the recovery unit, the method comprising: identifying a requested lowering speed of the implement, identifying a desired pressure at the piston side of the hydraulic cylinder and controlling the recovery unit to provide a counter pressure resulting in the desired pressure at the piston side of the hydraulic cylinder, enabling fluid communication between the piston side of the hydraulic cylinder and the recovery unit, and between the piston side of the hydraulic cylinder and the piston rod side of the hydraulic cylinder, via the control valve, and controlling the control valve in such a way that the flow through the control valve corresponds to the requested lowering speed of the implement. identifying a requested lowering speed of the implement, identifying a desired pressure at the piston side of the hydraulic cylinder and controlling the recovery unit to provide a counter pressure resulting in the desired pressure at the piston side of the hydraulic cylinder, enabling fluid communication between the piston side of the hydraulic cylinder and the recovery unit, and between the piston side of the hydraulic cylinder and the piston rod side of the hydraulic cylinder, via the control valve, and controlling the control valve in such a way that the flow through the control valve corresponds to the requested lowering speed of the implement.