mhurhangee/ep-ind-claims huggingface dataset:
Conveyor belt, in particular tubular conveyor belt or pouch conveyor belt, with a belt body that has a carrying-side cover sheet for receiving material to be transported, a profiling that is formed substantially in a perpendicular direction in relation to the surface of the carrying-side cover sheet being formed on the carrying-side cover sheet, the profiling having a number of transverse-strip profiling regions along a longitudinal direction of the carrying-side cover sheet, characterized in that the profiling has in addition to the transverse-strip profiling regions a number of chevron profiling regions along the longitudinal direction of the carrying-side cover sheet, the transverse-strip profiling regions and the chevron profiling regions being arranged in an alternating manner in the longitudinal direction of the carrying-side cover sheet.
An access control system for controlling access to an area secured by a perimeter protection defining a secure perimeter, the access control system comprising: - a portable container configured to be stored, transported and installed repeatedly as closed container and to be operated repeatedly as an open container and closed container and with a permanent barrier section of the portable container configured to secure a perimeter; at least one operational barrier section wherein the at least one operational barrier section is a sliding construction configured to extend outwards from the portable container and configured to be operational in an open state to allow access through the secure perimeter to the area and in a closed state to block access through the secure perimeter to the area, wherein the operational barrier section is configured to be fully contained within the closed container and wherein the operational barrier section is configured to operate outside of the portable container in either the open state or the closed state and to change between the open state and closed state, characterised in that the portable container comprises doors comprising a slit in a section in said doors, said slit being configured for the operational barrier to operate through, and wherein the slit has a complimentary shape to the operational barrier section, so that the operational barrier section can pass through the slit and maintain the interior of the portable container secured or weather sealed whilst in operation - a portable container configured to be stored, transported and installed repeatedly as closed container and to be operated repeatedly as an open container and closed container and with a permanent barrier section of the portable container configured to secure a perimeter;
A plant extract of Cannabis and Peganum hermala plants which revealed green fluorescence under 320 - 405 nm wavelength of UV light; wherein the plant extract is produced by a cold extraction method comprising the following steps: i. Grinding of leaves, stems, seeds, roots and any other part of the Cannabis plant without separating any part of it; ii. Grinding of the leaves, stems, seeds, roots and any other part of the Peganum hermala plant without separating any part of it; iii. Mixing hemp seed oil and dimethyl sulfoxide (DMSO) in a ratio of 1:1 by weight to prepare a solvent mixture; iv. Putting the ground Cannabis and the ground Peganum hermala into separate containers and mixing them with the prepared solvent mixture in a ratio of 1:1 to 1:5 plant:solvent by weight; v. Freezing of obtained the mixtures separately for 24 hours at a temperature range of - 50 °C to 0 °C preferably at -18 °C; vi. Thawing the frozen mixtures separately under room conditions for 24 hours; vii. Repeating the steps v and vi one after the other multiple times, preferable 7 times; viii. Leaching of thawed mixtures separately thus obtaining Cannabis and Peganum hermala extracts; ix. Mixing the Cannabis and Peganum hermala extracts in a ratio of 1:1 by weight. i. Grinding of leaves, stems, seeds, roots and any other part of the Cannabis plant without separating any part of it; ii. Grinding of the leaves, stems, seeds, roots and any other part of the Peganum hermala plant without separating any part of it; iii. Mixing hemp seed oil and dimethyl sulfoxide (DMSO) in a ratio of 1:1 by weight to prepare a solvent mixture; iv. Putting the ground Cannabis and the ground Peganum hermala into separate containers and mixing them with the prepared solvent mixture in a ratio of 1:1 to 1:5 plant:solvent by weight; v. Freezing of obtained the mixtures separately for 24 hours at a temperature range of - 50 °C to 0 °C preferably at -18 °C; vi. Thawing the frozen mixtures separately under room conditions for 24 hours; vii. Repeating the steps v and vi one after the other multiple times, preferable 7 times; viii. Leaching of thawed mixtures separately thus obtaining Cannabis and Peganum hermala extracts; ix. Mixing the Cannabis and Peganum hermala extracts in a ratio of 1:1 by weight.
A transmission comprising a first fixed member a second fixed member a common member configured to couple to each of the first fixed member and the second fixed member; and a multi-position dog clutch including a dog clutch carrier; a first dog clutch sliding member coupled to the dog clutch carrier and engaged with the common member, the first dog clutch sliding member configured to engage with and disengage from the first fixed member; and a second dog clutch sliding member coupled to the dog clutch carrier and engaged with the common member, the second dog clutch sliding member configured to engage with and disengage from the second fixed member, characterised in that the multi-position dog clutch further includes: a separator spring surrounding the dog clutch carrier between the first dog clutch sliding member and the second dog clutch sliding member, wherein the dog clutch carrier is movable to a first carrier position in which the first dog clutch sliding member is engaged with the first fixed member, a second carrier position in which the second dog clutch sliding member is engaged with the second fixed member, and a third carrier position in which the first dog clutch sliding member is engaged with the first fixed member and the second dog clutch sliding member is engaged with the second fixed member. a first fixed member a second fixed member a common member configured to couple to each of the first fixed member and the second fixed member; and a multi-position dog clutch including a dog clutch carrier; a first dog clutch sliding member coupled to the dog clutch carrier and engaged with the common member, the first dog clutch sliding member configured to engage with and disengage from the first fixed member; and a second dog clutch sliding member coupled to the dog clutch carrier a dog clutch carrier; a first dog clutch sliding member coupled to the dog clutch carrier and engaged with the common member, the first dog clutch sliding member configured to engage with and disengage from the first fixed member; and a second dog clutch sliding member coupled to the dog clutch carrier and engaged with the common member, the second dog clutch sliding member configured to engage with and disengage from the second fixed member, a separator spring surrounding the dog clutch carrier between the first dog clutch sliding member and the second dog clutch sliding member, a first carrier position in which the first dog clutch sliding member is engaged with the first fixed member, a second carrier position in which the second dog clutch sliding member is engaged with the second fixed member, and a third carrier position in which the first dog clutch sliding member is engaged with the first fixed member and the second dog clutch sliding member is engaged with the second fixed member.
A composite structure comprising a ground/return system and a composite stiffener, the composite stiffener comprising an integral conductive element extending longitudinally through an entire length of the composite stiffener, wherein the integral conductive element forms part of the ground/return system, wherein the composite stiffener has a blade-shape cross-section, with the integral conductive element disposed in a bead of a terminal portion of the composite stiffener.
A method for quantifying remnant-like lipoprotein cholesterol in a sample containing different lipoproteins including the remnant-like lipoprotein, said method comprising: a step of erasing cholesterol in lipoproteins other than the remnant-like lipoprotein; and a step of quantifying cholesterol in the remaining remnant-like lipoprotein, wherein said step is carried out under an action of a cholesterol esterase having a molecular weight of more than 40 kDa and not having a subunit having a molecular weight of not more than 40 kDa; and said step is carried out under an action of a cholesterol esterase having a molecular weight of not more than 40 kDa or a cholesterol esterase having a subunit having a molecular weight of not more than 40 kDa, wherein said step and said step are carried out in the presence of a nonionic surfactant, which nonionic surfactant is a polyoxyethylene derivative having an HLB value of 11 to 13. a step of erasing cholesterol in lipoproteins other than the remnant-like lipoprotein; and a step of quantifying cholesterol in the remaining remnant-like lipoprotein, wherein said step is carried out under an action of a cholesterol esterase having a molecular weight of more than 40 kDa and not having a subunit having a molecular weight of not more than 40 kDa; and said step is carried out under an action of a cholesterol esterase having a molecular weight of not more than 40 kDa or a cholesterol esterase having a subunit having a molecular weight of not more than 40 kDa, wherein said step and said step are carried out in the presence of a nonionic surfactant, which nonionic surfactant is a polyoxyethylene derivative having an HLB value of 11 to 13.
A rotorcraft comprising: a fuselage; a main rotor; a tailboom extending from the fuselage, the tailboom having an aft portion; and an anti-torque system at least partially located at the aft portion of the tailboom, the anti-torque system comprising: a first tail fan assembly including a plurality of first fan blades and including a first motor configured to provide torque to the plurality of first fan blades; a second tail fan assembly including a plurality of second fan blades; and including a second motor configured to provide torque to the plurality of second fan blades; wherein, the first tail fan assembly has a larger rotational inertia than the second tail fan assembly such that the second tail fan assembly is adapted to experience a larger angular acceleration than the first tail fan assembly in response to torque, thereby providing yaw control for the rotorcraft, characterized in that the plurality of first fan blades includes a larger number of fan blades than the plurality of second fan blades; and in that the first fan blades are formed from a different material than the second fan blades. a fuselage; a main rotor; a tailboom extending from the fuselage, the tailboom having an aft portion; and an anti-torque system at least partially located at the aft portion of the tailboom, the anti-torque system comprising: a first tail fan assembly including a plurality of first fan blades and including a first motor configured to provide torque to the plurality of first fan blades; a second tail fan assembly including a plurality of second fan blades; and including a second motor configured to provide torque to the plurality of second fan blades; wherein, the first tail fan assembly has a larger rotational inertia than the second tail fan assembly such that the second tail fan assembly is adapted to experience a larger angular acceleration than the first tail fan assembly in response to torque, thereby providing yaw control for the rotorcraft, characterized in that the plurality of first fan blades includes a larger number of fan blades than the plurality of second fan blades; and in that the first fan blades are formed from a different material than the second fan blades. a first tail fan assembly including a plurality of first fan blades and including a first motor configured to provide torque to the plurality of first fan blades; a second tail fan assembly including a plurality of second fan blades; and including a second motor configured to provide torque to the plurality of second fan blades; wherein, the first tail fan assembly has a larger rotational inertia than the second tail fan assembly such that the second tail fan assembly is adapted to experience a larger angular acceleration than the first tail fan assembly in response to torque, thereby providing yaw control for the rotorcraft, characterized in that the plurality of first fan blades includes a larger number of fan blades than the plurality of second fan blades; and in that the first fan blades are formed from a different material than the second fan blades.
An exoskeleton configured to be worn by a user and comprising a plurality of modular vertebral elements connected together along a longitudinal axis by flexible connecting means, each vertebral element comprising a central body provided with a supporting surface adapted to be placed on the user's body and a free surface opposite said supporting surface, wherein the exoskeleton comprises a cable engaged with at least two vertebral elements, at least some vertebral elements being provided with guiding means for guiding said cable and with a spacing member of said guiding means from said free surface, which spacing member allows to obtain a distance between the point of application of the force from the cable and the central body of the vertebral element in contact with the user's body, wherein the spacing member consists of a fork comprising two arms extending in an opposite direction to the user starting from said free surface, which arms supporting said guiding means, wherein said guiding means comprise two or more pulleys engaged between the two arms in an idle, rotatable manner about the relative rotation axis thereof, wherein the pulleys have an axis of rotation perpendicular to the user's sagittal plane when wearing the exoskeleton and each vertebral element comprises at least one lower pulley and one upper pulley (13"), respectively positioned below and above when wearing the exoskeleton, the cable being placed in contact with the upper pulley part (13") facing said free surface of the central body and with the lower pulley part facing away from said free surface of the central body. wherein the exoskeleton comprises a cable engaged with at least two vertebral elements, at least some vertebral elements being provided with guiding means for guiding said cable and with a spacing member of said guiding means from said free surface, which spacing member allows to obtain a distance between the point of application of the force from the cable and the central body of the vertebral element in contact with the user's body, wherein the spacing member consists of a fork comprising two arms extending in an opposite direction to the user starting from said free surface, which arms supporting said guiding means, wherein said guiding means comprise two or more pulleys engaged between the two arms in an idle, rotatable manner about the relative rotation axis thereof, wherein the pulleys have an axis of rotation perpendicular to the user's sagittal plane when wearing the exoskeleton and each vertebral element comprises at least one lower pulley and one upper pulley (13"), respectively positioned below and above when wearing the exoskeleton, the cable being placed in contact with the upper pulley part (13") facing said free surface of the central body and with the lower pulley part facing away from said free surface of the central body.
A base station, comprising: a determining unit, configured to determine, according to uplink sounding signals separately received by using m beams, an uplink receive power of each beam in the m beams, wherein m is a positive integer greater than 2; a selecting unit, configured to select n beams from the m beams according to the uplink receive power of each beam in the m beams determined by the determining unit, wherein 2 ≤ n < m, and n is a positive integer, wherein the determining unit is configured to determine a beamforming, BF, weighted value according to uplink sounding signals separately received by using the n beams selected by the selecting unit; and a weighting unit, configured to weight the n beams by using the BF weighted value determined by the determining unit, for forming optimized beams used for data transmission; wherein the selecting unit is configured to: sort the m beams in a descending order of the uplink receive powers of the m beams; and select first n beams from the sorted m beams as the n beams; and wherein a ratio of an uplink receive power of each beam, except a first beam, in the n beams selected by the selecting unit to an uplink receive power of the first beam is less than a preset threshold, wherein the first beam is a beam with a largest uplink receive power among the n beams. a determining unit, configured to determine, according to uplink sounding signals separately received by using m beams, an uplink receive power of each beam in the m beams, wherein m is a positive integer greater than 2; a selecting unit, configured to select n beams from the m beams according to the uplink receive power of each beam in the m beams determined by the determining unit, wherein 2 ≤ n < m, and n is a positive integer, wherein the determining unit is configured to determine a beamforming, BF, weighted value according to uplink sounding signals separately received by using the n beams selected by the selecting unit; and a weighting unit, configured to weight the n beams by using the BF weighted value determined by the determining unit, for forming optimized beams used for data transmission; wherein the selecting unit is configured to: sort the m beams in a descending order of the uplink receive powers of the m beams; and select first n beams from the sorted m beams as the n beams; and wherein a ratio of an uplink receive power of each beam, except a first beam, in the n beams selected by the selecting unit to an uplink receive power of the first beam is less than a preset threshold, wherein the first beam is a beam with a largest uplink receive power among the n beams. sort the m beams in a descending order of the uplink receive powers of the m beams; and select first n beams from the sorted m beams as the n beams; and wherein a ratio of an uplink receive power of each beam, except a first beam, in the n beams selected by the selecting unit to an uplink receive power of the first beam is less than a preset threshold, wherein the first beam is a beam with a largest uplink receive power among the n beams.
A heat exchanger comprising: a refrigerant pipe; and a plurality of fins that are coupled to an outer circumferential surface of the refrigerant pipe, wherein each fin of the plurality of fins comprises: a first region formed downstream in a direction in which air flows, and a second region formed upstream in the direction in which air flows, and at least one coating layer (140, 150) is formed in each of the first region and the second region, characterized in that thicknesses of the coating layer in the first region and the coating layer in the second region are different from each other. a refrigerant pipe; and a plurality of fins that are coupled to an outer circumferential surface of the refrigerant pipe, wherein each fin of the plurality of fins comprises: a first region formed downstream in a direction in which air flows, and a second region formed upstream in the direction in which air flows, and at least one coating layer (140, 150) is formed in each of the first region and the second region, characterized in that thicknesses of the coating layer in the first region and the coating layer in the second region are different from each other. a first region formed downstream in a direction in which air flows, and a second region formed upstream in the direction in which air flows, and at least one coating layer (140, 150) is formed in each of the first region and the second region, characterized in that thicknesses of the coating layer in the first region and the coating layer in the second region are different from each other.
A light emitting device comprising: a substrate of a low index refraction material, wherein the substrate is sapphire; a textured layer configured to scatter light out of the device, wherein the textured layer comprises islands; at least one planarizing layer overlying the textured layer and adjacent to a textured surface of the textured layer; a substantially planar light emitting region disposed between an n-type region and an p-type region; wherein the textured layer overlies the substrate, wherein the planarizing layer is part of the n-type region or the p-type region, characterised in that the planarizing layer is GaN, AlGaN, AlInGaN, or InGaN, the index of refraction of the textured layer is less than the index of refraction of the planarizing layer (33, 34), and the textured layer is AlGaN or AlN. a substrate of a low index refraction material, wherein the substrate is sapphire; a textured layer configured to scatter light out of the device, wherein the textured layer comprises islands; at least one planarizing layer overlying the textured layer and adjacent to a textured surface of the textured layer; a substantially planar light emitting region disposed between an n-type region and an p-type region; wherein the textured layer overlies the substrate, wherein the planarizing layer is part of the n-type region or the p-type region, characterised in that the planarizing layer is GaN, AlGaN, AlInGaN, or InGaN, the index of refraction of the textured layer is less than the index of refraction of the planarizing layer (33, 34), and the textured layer is AlGaN or AlN.
Climate control system for a vehicle having at least one refrigerant circuit and at least one temperature control circuit (3,7,8,90,100,110) for controlling the temperature of a vehicle interior and at least one vehicle component (6,600,601), in particular of an electric vehicle or hybrid vehicle, wherein at least one device for absorbing heat from the temperature control circuit (3,7,8,90,100,110) and at least one device for releasing heat to the temperature control circuit (3,7,8,90,100,110) are provided, wherein the device for absorbing heat from the temperature control circuit is a low-pressure side heat exchanger and/or the device for releasing heat to the temperature control circuit is a high-pressure side heat exchanger of the at least one refrigerant circuit, characterised in that the temperature control circuit comprises two cooling circuits (90,100) for operating components (6,9,600,601) of a vehicle at different temperature levels, and a parallel connection of two evaporators (42,43) of the at least one refrigerant circuit is provided.
An RFID tag comprising: an RFID chip; a first antenna segment secured to the RFID chip; a second antenna segment secured to the RFID chip; and a wire segment secured on a first end of the wire segment to the first antenna segment and secured on a second end of the wire segment to the second antenna segment, characterized in that the first end of the wire segment is wrapped around the first antenna segment and the second end of the wire segment is wrapped around the second antenna segment. an RFID chip; a first antenna segment secured to the RFID chip; a second antenna segment secured to the RFID chip; and a wire segment secured on a first end of the wire segment to the first antenna segment and secured on a second end of the wire segment to the second antenna segment, characterized in that the first end of the wire segment is wrapped around the first antenna segment and the second end of the wire segment is wrapped around the second antenna segment.