mhurhangee/ep-ind-claims huggingface dataset:
An insert for a sole assembly comprising a foam material, the foam material comprising a reaction product of 10 to 100 phr hydrogenated or nonhydrogenated acrylonitrile butadiene copolymer, 5 to 40 phr modified hydrogenated acrylonitrile butadiene copolymer, and 10 to 90 phr alpha olefin copolymer, and a blowing agent in an amount suitable to form the foam material; wherein the modified hydrogenated acrylonitrile butadiene copolymer is modified with zinc oxide, zinc diacrylate, or both; wherein the density of the foam material is less than 0.25 g/cm 3; and wherein the alpha olefin copolymer is a copolymer of ethylene and octene-1. wherein the modified hydrogenated acrylonitrile butadiene copolymer is modified with zinc oxide, zinc diacrylate, or both; wherein the density of the foam material is less than 0.25 g/cm 3; and wherein the alpha olefin copolymer is a copolymer of ethylene and octene-1.
A venturi flow meter for an EGR apparatus, comprising: an inner wall defining an interior space including a converging inlet section, a throat section, and a diverging outlet section; and, an outer wall surrounding the inner wall and attached to the inner wall, the outer wall being spaced from the inner wall to define an insulating space between the inner wall and the outer wall, characterized in that the inner and outer walls (72, 90) are sealed and the insulating space is evacuated. an inner wall defining an interior space including a converging inlet section, a throat section, and a diverging outlet section; and, an outer wall surrounding the inner wall and attached to the inner wall, the outer wall being spaced from the inner wall to define an insulating space between the inner wall and the outer wall, characterized in that the inner and outer walls (72, 90) are sealed and the insulating space is evacuated.
A dynamic headset apparatus comprising: a head cradle configured to receive a head of a subject and having a bottom surface configured to face a platform on which the dynamic headset apparatus is placed; a device comprising an instrument configured to be adjacent to the head of the subject when the head of the subject is in the head cradle, the instrument comprising a transducer configured to transmit or receive energy waves with respect to the head of the subject; a mount under the head cradle, the mount having a convex bottom surface configured to face the platform on which the dynamic headset apparatus is placed; and a base having a cavity configured to receive the convex bottom surface of the mount, wherein the cavity of the base has a larger area than that of the convex bottom surface of the mount such that the cavity defines a rotational path of movement and a sliding path of movement of the mount within the cavity. a head cradle configured to receive a head of a subject and having a bottom surface configured to face a platform on which the dynamic headset apparatus is placed; a device comprising an instrument configured to be adjacent to the head of the subject when the head of the subject is in the head cradle, the instrument comprising a transducer configured to transmit or receive energy waves with respect to the head of the subject; a mount under the head cradle, the mount having a convex bottom surface configured to face the platform on which the dynamic headset apparatus is placed; and a base having a cavity configured to receive the convex bottom surface of the mount, wherein the cavity of the base has a larger area than that of the convex bottom surface of the mount such that the cavity defines a rotational path of movement and a sliding path of movement of the mount within the cavity.
Load support for a heavy-duty transport vehicle, which has a load bed arranged on a substructure of the load support for receiving an elongated object, characterized in that the load bed is arranged pivotably in the substructure of the load support, and that the load bed comprises at least two load carriers (66a, 66b) extending in the longitudinal direction of the load support, that on each narrow sides of the load bed a guiding link (67a, 67b) is provided, which comprises guide slots (68b, 68b), that in the substructure of the load support longitudinal members (69a, 69b) are fixedly arranged, so that the load bed of the load support can pivot about the longitudinal members (69a, 69b) guided in the guiding links (67a, 67b) relative to the substructure of the load support.
A method for isolating small RNA molecules having at most 100 nucleotides or fewer from a sample comprising: a) lysing cells in a lysing solution to produce a lysate; wherein the lysing solution comprises a chaotropic agent b) adding to the lysate an ethanol solution to form a lysate/ethanol mixture; c) applying the lysate/ethanol mixture to a first solid support and collecting flow-through lysate/ethanol mixture; d) adding to the flow-through lysate/ethanol mixture of step c) an ethanol solution; e) applying the lysate/ethanol mixture of step d) to a second solid support; and f) eluting small RNA molecules from the solid support, wherein the lysate/ethanol mixture applied to the first solid support is between about 20% to about 35% ethanol and wherein the lysate/ethanol mixture applied to the second solid support is between about 35% to about 70% ethanol. a) lysing cells in a lysing solution to produce a lysate; wherein the lysing solution comprises a chaotropic agent b) adding to the lysate an ethanol solution to form a lysate/ethanol mixture; c) applying the lysate/ethanol mixture to a first solid support and collecting flow-through lysate/ethanol mixture; d) adding to the flow-through lysate/ethanol mixture of step c) an ethanol solution; e) applying the lysate/ethanol mixture of step d) to a second solid support; and f) eluting small RNA molecules from the solid support, wherein the lysate/ethanol mixture applied to the first solid support is between about 20% to about 35% ethanol and wherein the lysate/ethanol mixture applied to the second solid support is between about 35% to about 70% ethanol.
A process for the production of human growth hormone (hGH) comprising: (i) fermenting human growth hormone producing E. coli cells; (ii) recovering inclusion bodies from the E. coli cells and dissolving the recovered inclusion bodies at an alkaline pH to provide dissolved hGH; (iii) optionally lyophilizing dissolved hGH; characterized in that the fermentation is carried out in a culture medium comprising manganese, zinc, cobalt, molybdenum, calcium, copper, and boron as trace elements. (i) fermenting human growth hormone producing E. coli cells; (ii) recovering inclusion bodies from the E. coli cells and dissolving the recovered inclusion bodies at an alkaline pH to provide dissolved hGH; (iii) optionally lyophilizing dissolved hGH; characterized in that the fermentation is carried out in a culture medium comprising manganese, zinc, cobalt, molybdenum, calcium, copper, and boron as trace elements.
An anthropomorphic test device comprising: a body; a neck assembly connected to said body; and said neck assembly comprising a plurality of vertebra discs and a joint element disposed between each respective pair of said vertebra discs, and a torsion assembly including a bottom member coupled to one of said vertebra discs and a top member cooperating with and rotatable relative to said bottom member to allow rotation about an axis of said one of said vertebra discs to simulate torsion response of a human neck, said torsion assembly includes a torsion element disposed between said bottom member and said top member, and wherein said torsion element has a first ring portion disposed about a protrusion of said bottom member and a second ring portion interconnected to and spaced radially from said first ring portion; the anthropomorphic test device being further characterized in that said second ring portion is bonded to said bottom member and said first ring portion is bonded to said protrusion. a body; a neck assembly connected to said body; and said neck assembly comprising a plurality of vertebra discs and a joint element disposed between each respective pair of said vertebra discs, and a torsion assembly including a bottom member coupled to one of said vertebra discs and a top member cooperating with and rotatable relative to said bottom member to allow rotation about an axis of said one of said vertebra discs to simulate torsion response of a human neck, said torsion assembly includes a torsion element disposed between said bottom member and said top member, and wherein said torsion element has a first ring portion disposed about a protrusion of said bottom member and a second ring portion interconnected to and spaced radially from said first ring portion; the anthropomorphic test device being further characterized in that said second ring portion is bonded to said bottom member and said first ring portion is bonded to said protrusion.
A system for selectively reducing neural activity in a duodenum of a subject, the system comprising: a catheter comprising an elongated catheter body having a proximal end and a distal end; a laser emitting element coupled with the catheter body at or near the distal end, wherein the laser emitting element comprises at least one optical fiber configured to emit a laser beam at a wavelength of 808nm-980nm and an intensity in the range of 100 mW- 10 Watts to a target area in the duodenum, the laser beam configured to be absorbed by the different layers of the target area; a cooling mechanism coupled with the catheter body, configured to lower a temperature of the target area; whereby the laser emitting element when active, selectively ablates sensory neurons within the target area, while maintaining functional activity of the mucosal layer and tissue layers adjacent the sensory neurons within the target area; and a rotatable optical element coupled with the laser emitting element and configured to direct the laser beam to the different layers of the duodenum; wherein the catheter body has an outer diameter selected to fit through within a lumen of an endoscope. a catheter comprising an elongated catheter body having a proximal end and a distal end; a laser emitting element coupled with the catheter body at or near the distal end, wherein the laser emitting element comprises at least one optical fiber configured to emit a laser beam at a wavelength of 808nm-980nm and an intensity in the range of 100 mW- 10 Watts to a target area in the duodenum, the laser beam configured to be absorbed by the different layers of the target area; a cooling mechanism coupled with the catheter body, configured to lower a temperature of the target area; whereby the laser emitting element when active, selectively ablates sensory neurons within the target area, while maintaining functional activity of the mucosal layer and tissue layers adjacent the sensory neurons within the target area; and a rotatable optical element coupled with the laser emitting element and configured to direct the laser beam to the different layers of the duodenum; wherein the catheter body has an outer diameter selected to fit through within a lumen of an endoscope.
A synthetic fiber or synthetic resin product, containing 0.7 to 2.5 wt% of a vegetable oil that comprises 70 wt% or more of linolenic acid and a low-molecular-weight volatile material having a boiling point of 120 to 220°C in an amount of less than 5 wt%.
An adjustable medical assist device comprising: a support frame including a support arm extending along a longitudinal axis; a gearbox slidable along the longitudinal axis; a leg support operably coupled to the gearbox, the gearbox configured to provide a rotational force to the leg support; and a locking mechanism inserted over a portion of the support arm and the gearbox to prevent movement of the gearbox relative to the support arm along the longitudinal axis, the locking mechanism is configured for removal to enable movement of the gearbox relative to the support arm along the longitudinal axis, characterized in that the gearbox includes a housing and a pair of pivot flanges extending outwardly from the housing and each defining an aperture to receive the support arm and rotatably couple the gearbox to the support arm about the longitudinal axis, wherein the locking mechanism is configured for insertion over the support arm between the pair of pivot flanges. a support frame including a support arm extending along a longitudinal axis; a gearbox slidable along the longitudinal axis; a leg support operably coupled to the gearbox, the gearbox configured to provide a rotational force to the leg support; and a locking mechanism inserted over a portion of the support arm and the gearbox to prevent movement of the gearbox relative to the support arm along the longitudinal axis, the locking mechanism is configured for removal to enable movement of the gearbox relative to the support arm along the longitudinal axis,
A system for operating an electric device (12, 112, 212) associated with a door or a closure (308; 308'), said system comprising: a) a piezoelectric energy harvester capable of collecting energy by exciting said piezoelectric energy harvester relative to a rest position, b) a mechanical actuator assembly to actuate said piezoelectric energy harvester, said mechanical actuator assembly including a sprocket portion configured for rotating when the door moves relative to a door frame, wherein the sprocket portion is configured for making contact with the piezoelectric energy harvester, and wherein said piezoelectric energy harvester is excited by said contact, wherein said device (12, 112, 212) receives electrical energy from said piezoelectric energy harvester and wherein at least a portion of said electrical energy is used to operate said device (12, 112, 212). a) a piezoelectric energy harvester capable of collecting energy by exciting said piezoelectric energy harvester relative to a rest position, b) a mechanical actuator assembly to actuate said piezoelectric energy harvester, said mechanical actuator assembly including a sprocket portion configured for rotating when the door moves relative to a door frame, wherein the sprocket portion is configured for making contact with the piezoelectric energy harvester, and wherein said piezoelectric energy harvester is excited by said contact,
Temperature measurement method for a vehicle having an axle and a temperature sensor mounted or integrated at a location on the axle, wherein the temperature sensor is configured for capturing a temperature or temperature change of the axle at the location of the temperature sensor, comprising the steps of: A) capturing the temperature or the temperature change of the axle at the location of the temperature sensor by means of the temperature sensor and generating corresponding measurement signals that are representative of the temperature or the temperature change of the axle; B) passing on the measurement signals to an evaluation unit; C) generating an output signal for signalling optically and/or acoustically and/or haptically a piece of information in dependence on the measurement signals in the evaluation unit, wherein the piece of information is representative of the temperature or the temperature change of the axle; D) signalling optically and/or acoustically and/or haptically the piece of information in dependence on the output signal, wherein - the vehicle comprises a weighing system having a weighing sensor for measuring an axle load on the axle, - the temperature sensor is a temperature sensor of the weighing system, which is additionally used for correcting measurement signals generated with the aid of the weighing sensor. A) capturing the temperature or the temperature change of the axle at the location of the temperature sensor by means of the temperature sensor and generating corresponding measurement signals that are representative of the temperature or the temperature change of the axle; B) passing on the measurement signals to an evaluation unit; C) generating an output signal for signalling optically and/or acoustically and/or haptically a piece of information in dependence on the measurement signals in the evaluation unit, wherein the piece of information is representative of the temperature or the temperature change of the axle; D) signalling optically and/or acoustically and/or haptically the piece of information in dependence on the output signal, wherein - the vehicle comprises a weighing system having a weighing sensor for measuring an axle load on the axle, - the temperature sensor is a temperature sensor of the weighing system, which is additionally used for correcting measurement signals generated with the aid of the weighing sensor. - the vehicle comprises a weighing system having a weighing sensor for measuring an axle load on the axle, - the temperature sensor is a temperature sensor of the weighing system, which is additionally used for correcting measurement signals generated with the aid of the weighing sensor.
Refrigerator, in particular domestic refrigerator, having a series of condensation gutters arranged one above another for collecting and evaporating condensation forming in the cooling chamber of the refrigerator, of which at least one condensation gutter is closed at both end faces and has a gutter wall extending out from the refrigerator in the longitudinal direction (x) of the gutter, wherein in its upper edge contour the gutter wall of the condensation gutter has an overflow lip recessed by a height offset (Δh), characterised in that the end faces of the condensation gutter facing each other in the longitudinal direction (x) of the gutter diverge upwards in a slanted position with an angle (β), and in that where at least two condensation gutters are arranged one above another, the lower condensation gutter projects over a run-off edge of the upper condensation gutter by an excess amount (a) in the longitudinal direction (x) of the gutter.
A cyclic (poly)glycerol sulphate compound of formula: wherein n is an integer from 0 to 20; and each -C 3 H 6 O 2 - is independently a glycerol residual.
A communication interface apparatus for a system and a plurality of users, comprising: a first process unit configured to receive voice information and face information from at least one user, and determine whether the received voice information is voice information of one of at least one registered user based on user models (206, 207) corresponding to the respective received voice information and face information; a second process unit configured to receive the face information, and determine whether the user's attention is on the system based on the received face information, when the first process unit determines that the received voice information is voice information of the registered user; and a third process unit configured to receive the voice information, analyze the received voice information, and determine whether the received voice information is substantially meaningful to the system based on a dialog model that represents conversation flow on a situation basis, when the second process unit determines that there is attention on the system; wherein when the third process unit determines that the received voice information is substantially meaningful to the system, the communication interface apparatus transmits the received voice information to the system. a first process unit configured to receive voice information and face information from at least one user, and determine whether the received voice information is voice information of one of at least one registered user based on user models (206, 207) corresponding to the respective received voice information and face information; a second process unit configured to receive the face information, and determine whether the user's attention is on the system based on the received face information, when the first process unit determines that the received voice information is voice information of the registered user; and a third process unit configured to receive the voice information, analyze the received voice information, and determine whether the received voice information is substantially meaningful to the system based on a dialog model that represents conversation flow on a situation basis, when the second process unit determines that there is attention on the system;
A control system for a hybrid electric vehicle having an engine and at least one electric machine, the vehicle being operable in an electric vehicle mode in which the electric machine develops torque to drive the vehicle whilst the engine is switched off, the control system being operable when the vehicle is in EV mode to command the vehicle to apply torque to the engine to motor the engine without starting the engine when one or more conditions are met, the control system being operable to command recalibration of a rotational position of an engine crankshaft when the engine is rotated without starting.
A fire protection panel for preventative, structural fire protection, in particular for installation in tunnels or in ventilation and/or smoke extraction channels, comprising a cement-bound core layer and two cement-bound cover layers (3a; b) that cover the core layer, wherein the core layer has the following features: a) the core layer has a hardened cement paste matrix composed of a set, hydraulic binder containing calcium aluminate cement clinker, b) in the hardened cement paste matrix, lightweight mineral aggregate particles composed of high-melting-point material with a melting point of ≥ 700°C, preferably ≥ 1100°C, mineral fibres and CSH aggregate particles composed of hydrothermally hardened, tobermorite-containing CSH material are embedded, and wherein the two cover layers (3a; 3b) each have the following features: c) the two cover layers (3a; b) each have a hardened cement paste matrix composed of a set, hydraulic binder containing calcium aluminate cement clinker and preferably Portland cement clinker, d) in the hardened cement paste matrix, lightweight mineral aggregate particles composed of high-melting-point material with a melting point of ≥ 700°C, preferably ≥ 1100°C, mineral fibres and CSH aggregate particles composed of hydrothermally hardened, tobermorite-containing CSH material are embedded, e) the two cover layers (3a; 3b) have a higher dry bulk density po according to DIN EN ISO 12570 than the core layer. a) the core layer has a hardened cement paste matrix composed of a set, hydraulic binder containing calcium aluminate cement clinker, b) in the hardened cement paste matrix, lightweight mineral aggregate particles composed of high-melting-point material with a melting point of ≥ 700°C, preferably ≥ 1100°C, mineral fibres and CSH aggregate particles composed of hydrothermally hardened, tobermorite-containing CSH material are embedded, c) the two cover layers (3a; b) each have a hardened cement paste matrix composed of a set, hydraulic binder containing calcium aluminate cement clinker and preferably Portland cement clinker, d) in the hardened cement paste matrix, lightweight mineral aggregate particles composed of high-melting-point material with a melting point of ≥ 700°C, preferably ≥ 1100°C, mineral fibres and CSH aggregate particles composed of hydrothermally hardened, tobermorite-containing CSH material are embedded, e) the two cover layers (3a; 3b) have a higher dry bulk density po according to DIN EN ISO 12570 than the core layer.