mhurhangee/ep-ind-claims huggingface dataset:
A suspension system for vehicles, comprising: a) an upright adapted to provide a rotatable mounting for a wheel hub configured to carry a wheel and a mounting for a brake caliper, and including a fastening means; b) a strut shaft that includes a pumping piston and at least one mounting point adapted for rigid attachment to the fastening means; c) a main housing configured with a bearing arrangement adapted to guide and support the strut shaft, a sealing system to contain a pumping fluid, a mounting arrangement for attachment to the main vehicle structure and a fluid outlet port; d) a remote suspension module configured with a hydraulic actuation piston, an energy storage device and a damping device; e) a hydraulic connection between the fluid outlet port of the main housing and the hydraulic actuation piston of the remote suspension module; wherein the wheel is constrained to a predetermined motion by the bearing arrangement guiding the strut shaft and wherein this motion is transmitted to the energy storage device and damping device of the remote suspension module via the pumping fluid, and wherein the upright, strut shaft and main housing are all contained within the volume of the wheel. a) an upright adapted to provide a rotatable mounting for a wheel hub configured to carry a wheel and a mounting for a brake caliper, and including a fastening means; b) a strut shaft that includes a pumping piston and at least one mounting point adapted for rigid attachment to the fastening means; c) a main housing configured with a bearing arrangement adapted to guide and support the strut shaft, a sealing system to contain a pumping fluid, a mounting arrangement for attachment to the main vehicle structure and a fluid outlet port; d) a remote suspension module configured with a hydraulic actuation piston, an energy storage device and a damping device; e) a hydraulic connection between the fluid outlet port of the main housing and the hydraulic actuation piston of the remote suspension module;
A stroller comprising: a stroller frame; a reversible member pivoted to the stroller frame; and: a reversible mechanism locking the reversible member at different positions relative to the stroller frame and comprising: anchoring portions disposed on at least two different positions of the stroller frame; a sliding sleeve movably jacketing the reversible member, the sliding sleeve being selectively engageable with any one of the anchoring portions for locking the reversible member at the different positions relative to the stroller frame; and a release actuator movably disposed on the reversible member and linked with the sliding sleeve, the sliding sleeve being switchable between a locking position and a releasing position with movement of the release actuator or being directly operated for locking or releasing the anchoring portion, characterized by an avoiding hole, which is formed on the release actuator and comprises an opening, wherein the avoiding hole is a long hole for guiding and limiting movement of the release actuator. a stroller frame; a reversible member pivoted to the stroller frame; and: a reversible mechanism locking the reversible member at different positions relative to the stroller frame and comprising: anchoring portions disposed on at least two different positions of the stroller frame; a sliding sleeve movably jacketing the reversible member, the sliding sleeve being selectively engageable with any one of the anchoring portions for locking the reversible member at the different positions relative to the stroller frame; and a release actuator movably disposed on the reversible member and linked with the sliding sleeve, the sliding sleeve being switchable between a locking position and a releasing position with movement of the release actuator or being directly operated for locking or releasing the anchoring portion, characterized by an avoiding hole, which is formed on the release actuator and comprises an opening, wherein the avoiding hole is a long hole for guiding and limiting movement of the release actuator. anchoring portions disposed on at least two different positions of the stroller frame; a sliding sleeve movably jacketing the reversible member, the sliding sleeve being selectively engageable with any one of the anchoring portions for locking the reversible member at the different positions relative to the stroller frame; and a release actuator movably disposed on the reversible member and linked with the sliding sleeve, the sliding sleeve being switchable between a locking position and a releasing position with movement of the release actuator or being directly operated for locking or releasing the anchoring portion, characterized by an avoiding hole, which is formed on the release actuator and comprises an opening, wherein the avoiding hole is a long hole for guiding and limiting movement of the release actuator.
A method for providing an uplink grant, comprising: determining, by a base station, that a terminal needs to transmit uplink data; and assigning, by the base station, an uplink grant to the terminal before the next time point at which a Narrowband Physical Random Access Channel, NPRACH, is accessed; wherein information on a time point at which the NPRACH is accessed is contained in a NPRACH parameter configured for the base station by a network management system. determining, by a base station, that a terminal needs to transmit uplink data; and assigning, by the base station, an uplink grant to the terminal before the next time point at which a Narrowband Physical Random Access Channel, NPRACH, is accessed; wherein information on a time point at which the NPRACH is accessed is contained in a NPRACH parameter configured for the base station by a network management system.
A shoe, comprising: a) a shaft arrangement and a sole, wherein: b) the shaft arrangement has b.1) an outer shaft material and b.2) an air-permeable layer arranged in a shaft bottom, c) the air-permeable layer is arranged in a lower area of the shaft arrangement on the sole side above the sole; d) the air-permeable layer has a three-dimensional structure that permits air passage at least in the horizontal direction; and e) the outer shaft material, in a lower peripheral area on the sole side, has at least one air-passage opening which brings the air-permeable layer into connection with the outer surroundings so that air can be exchanged between the outer surroundings and the air-permeable layer, characterized in that, f) in a lower area of the shaft arrangement that faces the sole, there is provided a waterproof, water-vapour permeable shaft bottom functional layer, with the air-permeable layer being arranged beneath the shaft bottom functional layer, and g) the shaft arrangement comprises furthermore a waterproof, water-vapour permeable shaft functional layer in a shaft portion above the air-permeable layer, with the waterproof, water-vapour permeable shaft bottom functional layer and the waterproof, water-vapour permeable shaft functional layer being arranged such that water-vapour permeability and at the same time waterproofness are achieved both for the shaft portion and for the shaft bottom portion of the shoe. a) a shaft arrangement and a sole, wherein: b) the shaft arrangement has b.1) an outer shaft material and b.2) an air-permeable layer arranged in a shaft bottom, b.1) an outer shaft material and b.2) an air-permeable layer arranged in a shaft bottom, c) the air-permeable layer is arranged in a lower area of the shaft arrangement on the sole side above the sole; d) the air-permeable layer has a three-dimensional structure that permits air passage at least in the horizontal direction; and e) the outer shaft material, in a lower peripheral area on the sole side, has at least one air-passage opening which brings the air-permeable layer into connection with the outer surroundings so that air can be exchanged between the outer surroundings and the air-permeable layer, characterized in that, f) in a lower area of the shaft arrangement that faces the sole, there is provided a waterproof, water-vapour permeable shaft bottom functional layer, with the air-permeable layer being arranged beneath the shaft bottom functional layer, and g) the shaft arrangement comprises furthermore a waterproof, water-vapour permeable shaft functional layer in a shaft portion above the air-permeable layer, with the waterproof, water-vapour permeable shaft bottom functional layer and the waterproof, water-vapour permeable shaft functional layer being arranged such that water-vapour permeability and at the same time waterproofness are achieved both for the shaft portion and for the shaft bottom portion of the shoe.
Encapsulated nanoscale particles of organic pigments, comprising: a polymer-based encapsulating material selected from copolymers of vinyl pyrrolidinones made with (i) alpha-olefins, (ii) substituted styrenes, (iii) substituted (meth)acrylates or (iv) vinyl or allyl ethers, and one or more nanoscale organic pigment particles encapsulated by the polymer-based encapsulating material, wherein said nanoscale organic pigment particles are monoazo laked pigment particles. a polymer-based encapsulating material selected from copolymers of vinyl pyrrolidinones made with (i) alpha-olefins, (ii) substituted styrenes, (iii) substituted (meth)acrylates or (iv) vinyl or allyl ethers, and one or more nanoscale organic pigment particles encapsulated by the polymer-based encapsulating material, wherein said nanoscale organic pigment particles are monoazo laked pigment particles.
An integral composite structure material comprising: an open metal structure having inner surfaces of metal defining a plurality of apertures and at least one external side, said metal structure being selected from the group consisting of aluminum, HSLA steel, stainless steel, carbon steel, nickel-based superalloys, iron-based superalloys, and cobalt-based superalloys, said apertures having a geometry such that no dimension of said pores is greater than about 3⁄4 inch, wherein the total metal volume percent, exclusive of ceramic matrix composite material, is in the range of about 10% to about 90%; and a sintered ceramic matrix composite material laminated to the open metal structure so that the composite material is disposed within a substantial portion of said apertures occupying a substantial volume of aperture space between the metal surfaces, said ceramic composite material being bonded to a substantial portion of the at least one external side and said inner surfaces of said metal, said ceramic matrix composite comprising ceramic fibers and ceramic matrix material, said ceramic fibers being selected from the group consisting of alumina, silica, boric oxide, silicon carbide, glass and combinations thereof, said ceramic matrix material being selected from the group consisting of zirconia, hafnia, alumina silicate, yttria, calcia aluminate, clay, and combinations thereof, wherein the composite material also comprises a second open metal structure applied to the laminated ceramic matrix composite material opposite to the open metal structure. an open metal structure having inner surfaces of metal defining a plurality of apertures and at least one external side, said metal structure being selected from the group consisting of aluminum, HSLA steel, stainless steel, carbon steel, nickel-based superalloys, iron-based superalloys, and cobalt-based superalloys, said apertures having a geometry such that no dimension of said pores is greater than about 3⁄4 inch, wherein the total metal volume percent, exclusive of ceramic matrix composite material, is in the range of about 10% to about 90%; and a sintered ceramic matrix composite material laminated to the open metal structure so that the composite material is disposed within a substantial portion of said apertures occupying a substantial volume of aperture space between the metal surfaces, said ceramic composite material being bonded to a substantial portion of the at least one external side and said inner surfaces of said metal, said ceramic matrix composite comprising ceramic fibers and ceramic matrix material, said ceramic fibers being selected from the group consisting of alumina, silica, boric oxide, silicon carbide, glass and combinations thereof, said ceramic matrix material being selected from the group consisting of zirconia, hafnia, alumina silicate, yttria, calcia aluminate, clay, and combinations thereof, wherein the composite material also comprises a second open metal structure applied to the laminated ceramic matrix composite material opposite to the open metal structure.
A method for driving a mobile communication terminal in a cellular network, said method comprising: monitoring reception power levels (RxLev1, RxLev2, RxLev3) between the mobile communication terminal and a number of base stations (BS1, BS2, BS3) of the cellular network by a control unit of the mobile communication terminal at a predefined reception power level monitoring rate for each base station (BS1, BS2, BS3), intermittently monitoring timing information values (TOI1, TOI2, TOI3) for a number of base stations (BS1, BS2, BS3) of the cellular network by a control unit of the mobile communication terminal, said timing information values (TOI1, TOI2, TOI3) comprise a timing offset indication monitoring a drift of the timing information values (TOI1, TOI2, TOI3) for at least two of the base stations (BS1, BS2, BS3) and a significant motion of the mobile communication terminal is deemed to be detected if at least one of the timing information values (TOI1,TOI2, TOI3) indicates a drift equal to or exceeding a given timing drift threshold, and reducing the predefined reception power level monitoring rate to a reduced reception power level monitoring rate for at least a number of the base stations (BS1, BS2, BS3) as long as the motion of the mobile communication terminal is not a significant motion, wherein the monitored reception power levels (RxLev1, RxLev2, RxLev3) are reported by the mobile communication device to the respective base station (BS1, BS2, BS3) at the desired reception power level monitoring rate and, if the reception power levels (RxLev1, RxLev2, RxLev3) are monitored at the reduced reception power level monitoring rate, a previously measured reception power level (RxLev1, RxLev2, RxLev3) is reported to the base station until a new reception power level has been measured. monitoring reception power levels (RxLev1, RxLev2, RxLev3) between the mobile communication terminal and a number of base stations (BS1, BS2, BS3) of the cellular network by a control unit of the mobile communication terminal at a predefined reception power level monitoring rate for each base station (BS1, BS2, BS3), intermittently monitoring timing information values (TOI1, TOI2, TOI3) for a number of base stations (BS1, BS2, BS3) of the cellular network by a control unit of the mobile communication terminal, said timing information values (TOI1, TOI2, TOI3) comprise a timing offset indication monitoring a drift of the timing information values (TOI1, TOI2, TOI3) for at least two of the base stations (BS1, BS2, BS3) and a significant motion of the mobile communication terminal is deemed to be detected if at least one of the timing information values (TOI1,TOI2, TOI3) indicates a drift equal to or exceeding a given timing drift threshold, and reducing the predefined reception power level monitoring rate to a reduced reception power level monitoring rate for at least a number of the base stations (BS1, BS2, BS3) as long as the motion of the mobile communication terminal is not a significant motion,
A composition useful for controlling fluid flow, said composition comprising a plurality of swellable particles, said particles comprising an assembling agent interspersed among crosslinkable polymer chains, said assembling agent being: one that will associate with the polymer chains upon exposure to a fluid capable of swelling the polymer chains; and selected from the group consisting of polyacrylamide, one of the multivalent Group III-VII metal ions or molecules, methylene bisacrylamide, polyethylene glycol dimethacrylate, phenol-formaldehyde, diallylamine, triallylamine, divinyl sulfonate, diethylene glycol, polyethyleneimine, dichlorophenol, benzoyl peroxide, di-tert-butyl peroxide, dibutyl hydrogen phosphite, and mixtures thereof. one that will associate with the polymer chains upon exposure to a fluid capable of swelling the polymer chains; and selected from the group consisting of polyacrylamide, one of the multivalent Group III-VII metal ions or molecules, methylene bisacrylamide, polyethylene glycol dimethacrylate, phenol-formaldehyde, diallylamine, triallylamine, divinyl sulfonate, diethylene glycol, polyethyleneimine, dichlorophenol, benzoyl peroxide, di-tert-butyl peroxide, dibutyl hydrogen phosphite, and mixtures thereof.
A method for brightness compensation of several light-emitting diodes depending on a temperature value, the method comprising the steps of: - measuring of the temperature value with respect to a plurality of light-emitting diodes, wherein several sensors are provided at several measuring locations for measuring of the temperature value and the temperature value is an averaged value of several measured single temperature values, wherein at each light-emitting diode one sensor is provided and a time interval is defined, specifying how long the respective single temperature value is measured at the respective light-emitting diode; - reading out a current value from several current values stored in a memory module, which current value is assigned to the measured temperature value, wherein the read-out current value is assigned to a temperature interval into which the measured temperature value falls; and - controlling of at least one current controller of a respective light-emitting diode based on the read-out current value. - measuring of the temperature value with respect to a plurality of light-emitting diodes, wherein several sensors are provided at several measuring locations for measuring of the temperature value and the temperature value is an averaged value of several measured single temperature values, wherein at each light-emitting diode one sensor is provided and a time interval is defined, specifying how long the respective single temperature value is measured at the respective light-emitting diode; - reading out a current value from several current values stored in a memory module, which current value is assigned to the measured temperature value, wherein the read-out current value is assigned to a temperature interval into which the measured temperature value falls; and - controlling of at least one current controller of a respective light-emitting diode based on the read-out current value.
A process for increasing purity of a low density polyethylene (LDPE) composition, comprising the steps of: a) providing a melted composition comprising LDPE having Mn of at least 5.0 kg/mol according to size exclusion chromatography, Mw of at least 50 kg/mol according to size exclusion chromatography, a density of 915 to 935 kg/m 3 according to ISO1183 and a melt flow rate of 0.10 g/10 min to 80 g/10 min according to ISO1133:2011 measured at 190 °C and 2.16 kg, and b) providing particles from the melted composition by: b1) mixing a supercritical fluid in the melted composition to obtain a solution saturated with the supercritical fluid and b2) expanding the solution through an opening to obtain the particles. a) providing a melted composition comprising LDPE having Mn of at least 5.0 kg/mol according to size exclusion chromatography, Mw of at least 50 kg/mol according to size exclusion chromatography, a density of 915 to 935 kg/m 3 according to ISO1183 and a melt flow rate of 0.10 g/10 min to 80 g/10 min according to ISO1133:2011 measured at 190 °C and 2.16 kg, and b) providing particles from the melted composition by: b1) mixing a supercritical fluid in the melted composition to obtain a solution saturated with the supercritical fluid and b2) expanding the solution through an opening to obtain the particles. b1) mixing a supercritical fluid in the melted composition to obtain a solution saturated with the supercritical fluid and b2) expanding the solution through an opening to obtain the particles.
A method for molding a plurality of containers from a parison, the method including the steps of: moving a holder and holding the parison; cutting the held parison before filling and/or sealing the containers; moving a first section of a mold into a first closed position about a first portion of the parison; forming a plurality of at least a portion of first containers with the first portion of the parison in the first section; filling or sealing the first containers; moving a second section of the mold into a second closed position about a second portion of the parison; and forming a plurality of at least a portion of second containers, tiered with respect to the first containers, with the second portion of the parison in the second section, characterized in that the second section of the mold is integrated with the first section of the mold. moving a holder and holding the parison; cutting the held parison before filling and/or sealing the containers; moving a first section of a mold into a first closed position about a first portion of the parison; forming a plurality of at least a portion of first containers with the first portion of the parison in the first section; filling or sealing the first containers; moving a second section of the mold into a second closed position about a second portion of the parison; and forming a plurality of at least a portion of second containers, tiered with respect to the first containers, with the second portion of the parison in the second section, characterized in that the second section of the mold is integrated with the first section of the mold.