mhurhangee/ep-ind-claims huggingface dataset:
Suspension assembly for an automotive vehicle, comprising: - a fixed bracket, - a suspension arm mounted between two mounting flanges (22, 24) of the bracket, - a spacer mounted in a bore of a flange of the bracket, - an articulation shaft mounted through the flanges (22,24), the suspension arm and the spacer, wherein: - the spacer comprises an inner ring in which the articulation shaft is mounted, - an end face of the inner ring is adapted to be pressed, along a longitudinal axis (X-X') of the shaft, against a lateral face of the suspension arm, characterizied in that - the spacer comprises, between its inner ring and the bore in which the spacer is mounted, a deformable sleeve, deformable along said longitudinal axis (X-X') under a shear effort and adapted to slide with respect to the inner ring or to the bracket, along said longitudinal axis (X-X'). - a fixed bracket, - a suspension arm mounted between two mounting flanges (22, 24) of the bracket, - a spacer mounted in a bore of a flange of the bracket, - an articulation shaft mounted through the flanges (22,24), the suspension arm and the spacer, - the spacer comprises an inner ring in which the articulation shaft is mounted, - an end face of the inner ring is adapted to be pressed, along a longitudinal axis (X-X') of the shaft, against a lateral face of the suspension arm, - the spacer comprises, between its inner ring and the bore in which the spacer is mounted, a deformable sleeve, deformable along said longitudinal axis (X-X') under a shear effort and adapted to slide with respect to the inner ring or to the bracket, along said longitudinal axis (X-X').
A positron emission tomography system comprising: a plurality of radiation detectors configured to detect coincident radiation event pairs defining lines of response (LORs) emanating from an imaging region and detected by detector pixels of the radiation detectors; and at least one processor configured to: cause the radiation detectors to acquire listmode data comprising singles events detected by the detector pixels; and characterized in that the at least one processor is further configured to compute a dead time correction factor for each LOR defined by a pair of detector pixels, wherein the computing the dead time correction factor for each LOR includes: determining a random rate for each LOR from the listmode data; determining a singles rate for each detector pixel from the determined random rates; and computing a live time LT ij factor for the LOR defined by detector pixels i and j based on the singles rates S i and S j for the detector pixels i and j respectively. a plurality of radiation detectors configured to detect coincident radiation event pairs defining lines of response (LORs) emanating from an imaging region and detected by detector pixels of the radiation detectors; and at least one processor configured to: cause the radiation detectors to acquire listmode data comprising singles events detected by the detector pixels; and characterized in that the at least one processor is further configured to compute a dead time correction factor for each LOR defined by a pair of detector pixels, cause the radiation detectors to acquire listmode data comprising singles events detected by the detector pixels; and characterized in that the at least one processor is further configured to compute a dead time correction factor for each LOR defined by a pair of detector pixels, wherein the computing the dead time correction factor for each LOR includes: determining a random rate for each LOR from the listmode data; determining a singles rate for each detector pixel from the determined random rates; and computing a live time LT ij factor for the LOR defined by detector pixels i and j based on the singles rates S i and S j for the detector pixels i and j respectively. determining a random rate for each LOR from the listmode data; determining a singles rate for each detector pixel from the determined random rates; and computing a live time LT ij factor for the LOR defined by detector pixels i and j based on the singles rates S i and S j for the detector pixels i and j respectively.
A dispenser for dispensing wet wipes comprising: a container; a plurality of wet wipes contained within the container; a dispensing nozzle made of a resilient material secured to the container; an outlet opening in the dispensing nozzle, the outlet opening being sized to squeeze fluid out of the wet wipe as it is pulled through the dispensing nozzle; and a fluid retaining member located at a point below the outlet opening, characterized in that the fluid retaining member has a sloped surface and retains fluid squeezed out of the wipe. a container; a plurality of wet wipes contained within the container; a dispensing nozzle made of a resilient material secured to the container; an outlet opening in the dispensing nozzle, the outlet opening being sized to squeeze fluid out of the wet wipe as it is pulled through the dispensing nozzle; and a fluid retaining member located at a point below the outlet opening, characterized in that the fluid retaining member has a sloped surface and retains fluid squeezed out of the wipe.
A retroreflective element, comprising: a core; a plurality of glass or glass-ceramic beads adjacent to the core; and a plurality of particles adjacent to the core, wherein the particles each have a diameter that is smaller than a mean diameter of the glass or glass ceramic beads, wherein the retroreflective element has a mean diameter of between 100 microns and 2000 microns, wherein the particles have a diameter that is between 1 nm and 1000 nm, and wherein the glass or glass ceramic beads have a mean diameter of between 60 and 80 microns. a core; a plurality of glass or glass-ceramic beads adjacent to the core; and a plurality of particles adjacent to the core, wherein the particles each have a diameter that is smaller than a mean diameter of the glass or glass ceramic beads, wherein the retroreflective element has a mean diameter of between 100 microns and 2000 microns, wherein the particles have a diameter that is between 1 nm and 1000 nm, and wherein the glass or glass ceramic beads have a mean diameter of between 60 and 80 microns.
A Rankine cycle system comprising: (a) a heater configured to transfer heat from a first waste heat-containing stream to a first working fluid stream to produce a first vaporized working fluid stream and a second waste heat-containing stream; (b) a first expander configured to receive the first vaporized working fluid stream to produce therefrom mechanical energy and an expanded first vaporized working fluid stream; (c) a first heat exchanger configured to transfer heat from the expanded first vaporized working fluid stream and the second waste heat-containing stream to a first condensed working fluid stream to produce therefrom a second vaporized working fluid stream, a heat depleted second waste heat-containing stream and a first heat depleted working fluid stream; (d) a second expander configured to receive the second vaporized working fluid stream to produce therefrom mechanical energy and an expanded second vaporized working fluid stream; (e) a second heat exchanger configured to transfer heat from the expanded second vaporized working fluid stream to a second condensed working fluid stream, to produce therefrom a stream of the working fluid having greater enthalpy than the second condensed working fluid stream and a second heat depleted working fluid stream; and (f) a working fluid stream combiner configured to combine the first heat depleted working fluid stream with the second heat depleted working fluid stream produce therefrom a consolidated heat depleted working fluid stream. (a) a heater configured to transfer heat from a first waste heat-containing stream to a first working fluid stream to produce a first vaporized working fluid stream and a second waste heat-containing stream; (b) a first expander configured to receive the first vaporized working fluid stream to produce therefrom mechanical energy and an expanded first vaporized working fluid stream; (c) a first heat exchanger configured to transfer heat from the expanded first vaporized working fluid stream and the second waste heat-containing stream to a first condensed working fluid stream to produce therefrom a second vaporized working fluid stream, a heat depleted second waste heat-containing stream and a first heat depleted working fluid stream; (d) a second expander configured to receive the second vaporized working fluid stream to produce therefrom mechanical energy and an expanded second vaporized working fluid stream; (e) a second heat exchanger configured to transfer heat from the expanded second vaporized working fluid stream to a second condensed working fluid stream, to produce therefrom a stream of the working fluid having greater enthalpy than the second condensed working fluid stream and a second heat depleted working fluid stream; and (f) a working fluid stream combiner configured to combine the first heat depleted working fluid stream with the second heat depleted working fluid stream produce therefrom a consolidated heat depleted working fluid stream.
Submarine having a submarine rescue device which is arranged in a torpedo tube and is formed in shape and size such that it can be deployed in the submerged state through the torpedo tube, wherein the rescue device comprises a substantially cylindrical and elongate outer contour with a length/diameter ratio between 5 and 18 and is closed off outwardly by a pressure-resistant container, characterized in that the pressure-resistant container accommodates an automatically inflatable life raft and all the further components (2 - 7) of the submarine rescue device and comprises at least one predetermined breaking point (15; 16) which is destroyed prior to the inflation of the life raft situated in said container or by the inflation of the life raft for release from the container.
A method of manufacturing an array substrate, comprising steps of: forming a pattern of an active layer and a pattern of source and drain electrodes on a substrate; forming a pattern of a first transparent electrode and a pattern of a passivation layer through one single patterning process; and processing the substrate on which the pattern of the passivation layer having been formed, such that a material of the passivation layer fills completely in a gap in the pattern of the first transparent electrode, wherein the step of forming the pattern of the first transparent electrode and the pattern of the passivation layer through one single patterning process comprises: forming a film of the transparent conductive layer and a film of the passivation layer in sequence; performing a patterning process on the film of the passivation layer to form the pattern of the passivation layer; and performing a patterning process on the film of the transparent conductive layer by using the pattern of the passivation layer as a mask, so as to form the pattern of the first transparent electrode. forming a pattern of an active layer and a pattern of source and drain electrodes on a substrate; forming a pattern of a first transparent electrode and a pattern of a passivation layer through one single patterning process; and processing the substrate on which the pattern of the passivation layer having been formed, such that a material of the passivation layer fills completely in a gap in the pattern of the first transparent electrode, wherein the step of forming the pattern of the first transparent electrode and the pattern of the passivation layer through one single patterning process comprises: forming a film of the transparent conductive layer and a film of the passivation layer in sequence; performing a patterning process on the film of the passivation layer to form the pattern of the passivation layer; and performing a patterning process on the film of the transparent conductive layer by using the pattern of the passivation layer as a mask, so as to form the pattern of the first transparent electrode. forming a film of the transparent conductive layer and a film of the passivation layer in sequence; performing a patterning process on the film of the passivation layer to form the pattern of the passivation layer; and performing a patterning process on the film of the transparent conductive layer by using the pattern of the passivation layer as a mask, so as to form the pattern of the first transparent electrode.
Bearing assembly preferably for a folding top mechanism of a cabriolet, comprising at least one first component with a bearing opening, and a connecting element (1, 2), it being possible for the connecting element (1, 2) to be connected to the first component via the bearing opening of the latter, the connecting element (1, 2) having a metallic main body (1.1, 2.1), and the connecting element (1, 2) being overmoulded at least in sections with a second, non-metallic material, characterized in that the connecting element (1, 2) has at least one first shank section and one second shank section, the first shank section and the second shank section having different diameters, and the first and the second shank section (S1, S2) being overmoulded, and, at the end of the second shank section, the connecting element (1, 2) having a region which can be upset, the overmoulded material being slotted multiple times in the longitudinal direction in that section of the connecting element (1, 2) which can be upset.
Adjustable mechanical coolant pump for an internal combustion engine, comprising a pump rotor wheel with an axial inlet, the pump rotor wheel pumping a coolant radially outwardly, variable pump stator blades being pivotably arranged radially outwardly at a circle concentrically with the pump rotor wheel, a control ring simultaneously pivoting the blades when the control ring is rotated, an actuator rotating the control ring thereby pivoting the blades between an open and a closed position, and a pump housing body supporting the pump stator blades and the control ring, characterized in that the pump stator blades and the control ring are captively mounted at a separate static blade holding frame which is mounted to the pump housing body, the blade holding frame comprises a first frame ring and a second frame ring, and the control ring is mounted axially between the second frame ring and the pump stator blades, the two frame rings (28, 30) are stiffly connected to each other by at least two axial connection screws, and the control ring is provided with a fixation long hole for every connection screw projecting therethrough.
A childproof closure capsule for closing a container, comprising: i) a cap that can be associated with a container; ii) a cover of the cap, said cover being designed to be turned by a user for closure of the cap; iii) transmission means for transmitting a closure torque from the cover to the cap for closing the cap; the transmission means disengaging upon transmission of a closure torque exceeding a pre-established threshold, such pre-established threshold being calibrated to a value sufficient to ensure the correct tightening of the cap, the transmission means comprising: - at least one tab; - at least one abutment designed to interact with the tab for transmission of the closure torque; the tab and the abutment being afforded one on the cover and one on the cap; wherein the tab is flexible; the tab surmounting a first part of a lateral surface of the cap or of the cover from which it projects; characterised in that, when the transmission means is disengaged, the tab closes towards such first part of the lateral surface; said abutment comprises a first surface that is inclined with respect to a radial direction and designed to interact with a projecting tip of the flexible tab; when said pre-established threshold is exceeded, said tab bends, enabling the tip to slide along the first inclined surface. i) a cap that can be associated with a container; ii) a cover of the cap, said cover being designed to be turned by a user for closure of the cap; iii) transmission means for transmitting a closure torque from the cover to the cap for closing the cap; - at least one tab; - at least one abutment designed to interact with the tab for transmission of the closure torque;
Centipede grass ( Eremochloa ophiuroides) extracts, or the organic solvent fractions prepared by extracting the centipede grass extract, or the active fractions extracted from the acetate fraction of the centipede grass methanol extract for use in treating diabetes.
An alkaline battery comprising: a tubular battery case; a positive electrode (2, 12, 22) filled in the battery case, and including a stack of n pieces of hollow tubular pellets; a negative electrode disposed in hollow portions of the pellets; a separator disposed between the positive electrode (2, 12, 22) and the negative electrode; and an alkaline electrolytic solution, wherein the battery case includes a body portion having a thickness of 0.15 mm or less, and of 0.08 mm or more, the positive electrode (2, 12, 22) contains manganese dioxide and a conductive agent, n is an integer of 3 or more, and 8 or less, and a first proportion is lower than a second proportion, where the first proportion is a proportion of a mass of the conductive agent in a total mass of the manganese dioxide and the conductive agent in at least one pellet (2a, 12a, 22a) positioned in a middle portion in a height direction of the stack, and the second proportion is a proportion of a mass of the conductive agent in a total mass of the manganese dioxide and the conductive agent in at least one pellet (2b, 12b, 22b) positioned in end portions in the height direction of the stack, wherein a difference between the first proportion and the second proportion is 1% by mass or more. a tubular battery case; a positive electrode (2, 12, 22) filled in the battery case, and including a stack of n pieces of hollow tubular pellets; a negative electrode disposed in hollow portions of the pellets; a separator disposed between the positive electrode (2, 12, 22) and the negative electrode; and an alkaline electrolytic solution, wherein the battery case includes a body portion having a thickness of 0.15 mm or less, and of 0.08 mm or more, the positive electrode (2, 12, 22) contains manganese dioxide and a conductive agent, n is an integer of 3 or more, and 8 or less, and a first proportion is lower than a second proportion, where the first proportion is a proportion of a mass of the conductive agent in a total mass of the manganese dioxide and the conductive agent in at least one pellet (2a, 12a, 22a) positioned in a middle portion in a height direction of the stack, and the second proportion is a proportion of a mass of the conductive agent in a total mass of the manganese dioxide and the conductive agent in at least one pellet (2b, 12b, 22b) positioned in end portions in the height direction of the stack,
A heat storage material composition, at least containing at least one organic compound selected from ethanol, ethylene glycol, propylene glycol, and acetic acid, sodium acetate, and water, wherein a content of the water is 78.6 to 85.2 parts by mass relative to 100 parts by mass of the sodium acetate.
An installation, including at least one roller card installation for producing a fibre web and downstream, in material running direction at least one device for depositing a layer of loose fibres on a conveyor belt, wherein the layer of loose fibres is transferable onto the fibre web, characterized in that, in the area of the transfer of the layer of loose fibres onto the fibre web, an entangling device is disposed, adapted to entangle the fibre web with a first compacting and a separate first entangling.
Tank device for storing a gaseous medium, in particular hydrogen, having a tank and a valve device having a valve housing and a first solenoid armature that is arranged therein and is movable along a longitudinal axis, which first solenoid armature cooperates with a first sealing seat for opening and closing an outlet opening, wherein a second solenoid armature that is movable along a longitudinal axis is arranged in the valve housing, which second solenoid armature is at least partially accommodated in a recess in the first solenoid armature and which second solenoid armature cooperates with a second sealing seat for opening and closing a passage opening formed in the first solenoid armature, wherein the first solenoid armature and the second solenoid armature are comprised by a solenoid device, by which solenoid device the first solenoid armature and the second solenoid armature are movable along the longitudinal axis by means of exactly one magnet coil, wherein a through-flow cross section for gaseous medium, in particular hydrogen, from the tank is controllable by the valve device, characterized in that the tank comprises a tank housing having a neck region, in which neck region the valve device is arranged, wherein the valve housing is at least partially integrated into the tank housing and the valve housing seals off a tank interior of the tank by means of a sealing element.
The method of production of a stable composite of bacterial bionanocellulose with perforated metal or polymeric material, designed for the reconstruction of soft and hard tissues, involving the vertical fixing of a sterile, perforated polymeric or metallic material in a cultivation medium of Guconacetobcter xylinus, composed of 20 parts by weight of glucose, 5 parts by weight of yeast extract, 5 parts by weight of peptone, 2.5 parts by weight of MgSO 4 x 7H 2 O, 2.7 parts by weight of Na 2 HPO 4, 1.15 parts by weight of citric acid and 10 parts by weight of ethanol, dissolved in 1000 parts by weight of distilled water, inoculated with bacteria precultivated in the same medium at the temperature 27-33° C, and further conducting of stationary culture at 27-33° C until the total connection of cellulose membrane with a polymeric or metallic material on its whole surface, is characterized by the fact, that the cultivation is performed in a bioreactor with the walls inclined at the angle of 90-30° in relation to the base of bioreactor, wherein the perforated polymeric or metallic material, with the thickness up to 0.5 cm and single pores surface above 0.5 mm 2, used to be overgrown with cellulose, is vertically hanged in a bioreactor, so that material's lower edge is suspended in a culture medium until the first layers of cellulose are formed, and in the next days it is successively dropped down into the medium until this perforated material is completely overgrown with bionanocellulose, the overgrown material is further taken off from the bioreactor, excised from the excess of the membrane, pressed until the proper thickness, packed and sterilized.
A method of producing an antioxidant composition for reducing oxidative deterioration of fats and edible oils, said method comprising the steps of: a) extracting antioxidant compounds comprising palm phenolics from the plant material obtained from palm oil mill aqueous by-products, followed by either b) dissolving the said palm phenolics extract in a solubilising medium to form a solubilisate, and admixing this solubilisate with a surface active agent to produce said antioxidant composition, or c) pre-dissolving said palm phenolics extract in propylene glycol without the use of other solvents a) extracting antioxidant compounds comprising palm phenolics from the plant material obtained from palm oil mill aqueous by-products, followed by either b) dissolving the said palm phenolics extract in a solubilising medium to form a solubilisate, and admixing this solubilisate with a surface active agent to produce said antioxidant composition, or c) pre-dissolving said palm phenolics extract in propylene glycol without the use of other solvents