mhurhangee/ep-ind-claims huggingface dataset:
An electromagnetic material for an inductance operating at cryogenic temperatures comprising, in an electrically insulating matrix, metal nanoparticles with superparamagnetic behavior of size less than or equal to 30 nm.
A device for manufacturing gabions by filling cages with rocks after these rocks have been compacted in the cages, characterized in that it comprises: - a vibrating table comprising a floor on which a box is fastened whereof the vertical peripheral wall surrounds at least one metal cage and means for vibrating this floor, - a storage hopper, at the base of which extractors (5, 6) are arranged; - driving means able to move the hopper between at least a filling position of the metal cage(s) and a filling position of the hopper, at a distance from the gabion(s). - a vibrating table comprising a floor on which a box is fastened whereof the vertical peripheral wall surrounds at least one metal cage and means for vibrating this floor, - a storage hopper, at the base of which extractors (5, 6) are arranged; - driving means able to move the hopper between at least a filling position of the metal cage(s) and a filling position of the hopper, at a distance from the gabion(s).
Impulse generator for a rock breaking tool, the impulse generator comprising a main chamber for receiving a first pressurizeable fluid volume, an impulse piston received in the main chamber and arranged for transfer of pressure energy in the fluid volume into impulses in a tool, and a prepressurizing chamber, situated on the side opposite the main chamber side of the impulse piston, for receiving a second pressurizeable fluid volume, characterized in that the impulse generator further comprises a pressure relief chamber, situated on the side opposite to the main chamber side of the impulse piston, for receiving a third pressurizeable fluid volume, where the relationship between the pressurizing pressures in the fluid volumes (6,14,18) and the relationships between the areas of the impulse piston facing the chambers (4,12,16) are such that pressurizing of at least the prepressurizing chamber displaces the impulse piston in the direction towards the main chamber, and the pressure in the main chamber effects a pressure increase in the pressurized pressure relief chamber when the prepressurizing chamber is depressurized, whereby the depressurizing rate in the pressure relief chamber and the velocity of the pressure impulse transferred into the tool when de-pressurizing the pressure relief chamber are increased.
A system comprising: a shell configured to encapsulate at least a portion of a weight-bearing member, the shell having a first end portion and a second end portion; a reinforcing layer (140/145) within the shell, the reinforcing layer extending proximate the first end portion to proximate the second end portion of the shell; a first pocket adhered to the shell, the first pocket having an interior portion; characterized by: a second pocket adhered to the shell, the second pocket having an interior portion; and a laminate having a first end and a second end, the first end positioned within the interior portion of the first pocket, and the second end positioned within the interior portion of the second pocket, the first end adhered to the first pocket and the second end adhered to the second pocket, wherein the first pocket and the second pocket are positioned on the shell such that the laminate extends across the first end portion and the second end portion to provide continuity between two ends of the reinforcing layer. a shell configured to encapsulate at least a portion of a weight-bearing member, the shell having a first end portion and a second end portion; a reinforcing layer (140/145) within the shell, the reinforcing layer extending proximate the first end portion to proximate the second end portion of the shell; a first pocket adhered to the shell, the first pocket having an interior portion; characterized by: a second pocket adhered to the shell, the second pocket having an interior portion; and a laminate having a first end and a second end, the first end positioned within the interior portion of the first pocket, and the second end positioned within the interior portion of the second pocket, the first end adhered to the first pocket and the second end adhered to the second pocket, wherein the first pocket and the second pocket are positioned on the shell such that the laminate extends across the first end portion and the second end portion to provide continuity between two ends of the reinforcing layer.
Inductive energy emitter/receiver for an inductive charger of an electric vehicle wherein said inductive energy emitter/receiver includes: • a planar-shaped magnetic core with two opposed main surfaces; • at least one planar conductive coil wound around an axis perpendicular to the main surfaces of the planar-shaped magnetic core, said planar conductive coil adjacent and overlapped to one of said main surfaces of the magnetic core; • an inductor casing being attached to said planar-shaped magnetic core and said at least one planar conductive coil; wherein the planar-shaped magnetic core is a made of a plurality of elongated partial cores, radially arranged, around a central opening that overlaps another opening in the planar coil 20 that is adjacent, wherein each of the flexible elongated partial cores is perpendicular to an overlapped section of the planar conductive coil, characterized in that each elongated partial core is flexible; the inductor casing is a flexible inductor casing made of flexible polymer bonded soft magnetic material, filling interspaces between the flexible elongated partial cores, and the flexible elongated partial cores are surrounded by the flexible inductor casing, creating in conjunction a planar-shaped magnetic core flexible in two orthogonal directions, whereby the flexible inductor casing collaborates magnetically with the flexible elongated partial cores producing, in conjunction, a magnetic behaviour similar to that produced by a single monolithic magnetic core. • a planar-shaped magnetic core with two opposed main surfaces; • at least one planar conductive coil wound around an axis perpendicular to the main surfaces of the planar-shaped magnetic core, said planar conductive coil adjacent and overlapped to one of said main surfaces of the magnetic core; • an inductor casing being attached to said planar-shaped magnetic core and said at least one planar conductive coil; each elongated partial core is flexible; the inductor casing is a flexible inductor casing made of flexible polymer bonded soft magnetic material, filling interspaces between the flexible elongated partial cores, and the flexible elongated partial cores are surrounded by the flexible inductor casing, creating in conjunction a planar-shaped magnetic core flexible in two orthogonal directions,
Computer implemented method for estimating lanes for a vehicle, the method comprising the following steps carried out by computer hardware components: - determining a first preliminary estimate of lanes based on a plurality of lane markings at a location of the vehicle; - determining a second preliminary estimate of lanes based on a plurality of trails of other road users at the location of the vehicle; - comparing the first preliminary estimate of lanes and the second preliminary estimate of lanes, wherein the comparing comprises a lane cross check of the first preliminary estimate of lanes and the second preliminary estimate of lanes to obtain information of which lanes are actually drivable, non-blocked, and/or obstacle-free; and - determining a final estimate of lanes at the location of the vehicle, including information whether these lanes may actually be used, based on the comparing. - determining a first preliminary estimate of lanes based on a plurality of lane markings at a location of the vehicle; - determining a second preliminary estimate of lanes based on a plurality of trails of other road users at the location of the vehicle; - comparing the first preliminary estimate of lanes and the second preliminary estimate of lanes, wherein the comparing comprises a lane cross check of the first preliminary estimate of lanes and the second preliminary estimate of lanes to obtain information of which lanes are actually drivable, non-blocked, and/or obstacle-free; and - determining a final estimate of lanes at the location of the vehicle, including information whether these lanes may actually be used, based on the comparing.
Battery pole terminal comprising a conical ring portion, wherein the battery pole terminal has a clamp element, a screw element and a screw counterpart element, which are designed in such a way and interact in such a way that, in the course of a screwing operation of the screw element and of the screw counterpart element in the closure direction, the internal diameter of the ring portion is reduced, wherein the battery pole terminal comprises a spring element which is designed in such a way and interacts with the screw element and/or the screw counterpart element in such a way that, in order to screw the screw element and the screw counterpart element together, it is not only a force acting about the rotation axis of the screw element and of the screw counterpart element that is needed, but also a force acting on the spring element along the rotation axis of the screw element and of the screw counterpart element, wherein the screw element and/or the screw counterpart element have at least one engagement face, wherein the engagement face is designed to take up forces about the rotation axis of the screw element and of the screw counterpart element, characterized in that the spring element encloses the at least one engagement face in such a way that, in order to apply a force to the engagement face, a force acting on the spring element along the rotation axis is needed, wherein a compression of the spring element is needed.
A cathode active material layer comprising: secondary particles composed of aggregates of primary particles of a lithium phosphate compound having olivine structure wherein the primary particles are carbon material-coated; wherein an average particle diameter A of primary particles constituting the secondary particles is 50 nm or more and 500 nm or less, a pore diameter B of the secondary particles is 11 nm to 295 nm and a ratio B/A of a pore diameter B of the secondary particles to the average particle diameter A of the primary particles is 0.10 or more and 0.90 or less, and wherein the layer contains a fibrous carbon. secondary particles composed of aggregates of primary particles of a lithium phosphate compound having olivine structure wherein the primary particles are carbon material-coated; wherein an average particle diameter A of primary particles constituting the secondary particles is 50 nm or more and 500 nm or less, a pore diameter B of the secondary particles is 11 nm to 295 nm and a ratio B/A of a pore diameter B of the secondary particles to the average particle diameter A of the primary particles is 0.10 or more and 0.90 or less, and wherein the layer contains a fibrous carbon.
A method comprising: providing a fluid; passing the fluid through a passageway of a tool comprising at least one sensor proximal to the passageway so as to form a plug in the passageway; applying a differential pressure to the plug in the passageway; and measuring at least one attribute of the plug selected from the group consisting of a normal plug pressure, a normal plug displacement, and any combination thereof with the at least one sensor; characterized in that the fluid comprises a wellbore strengthening material and the plug formed also comprises the wellbore strengthening material. providing a fluid; passing the fluid through a passageway of a tool comprising at least one sensor proximal to the passageway so as to form a plug in the passageway; applying a differential pressure to the plug in the passageway; and measuring at least one attribute of the plug selected from the group consisting of a normal plug pressure, a normal plug displacement, and any combination thereof with the at least one sensor; characterized in that the fluid comprises a wellbore strengthening material and the plug formed also comprises the wellbore strengthening material.
Fibre layer suitable for use in an exhaust system of a mobile internal combustion engine, comprising an assembly of fibres and having a layer thickness which extends from one surface of the fibre layer toward an opposite surface, it being possible to characterize the fibre layer on the basis of at least one of the following parameters: porosity, fibre diameter, wherein at least one of the parameters listed has magnitudes which vary in the direction of the layer thickness, and an extreme of these magnitudes is at a distance from the surfaces of the fibre layer, wherein the variation in the magnitudes is formed substantially symmetrically with respect to the centre of the layer thickness and the extreme constitutes a minimum value, characterized in that the fibre layer is configured with a varying porosity and the porosity is lowest in an inwardly located central region of the fibre layer.
A composition comprising: a) a lipid particle, wherein the lipid particle comprises phosphatidylethanolamine, phosphatidylcholine, and a molecule capable of minimizing degradation of the lipid particle, enhancing retention of the lipid particle, and/or making the lipid particle immunotolerant when administered to a subject in need thereof, wherein said molecule is polyethylene glycol, and wherein the PEG is conjugated to a phospholipid; and b) an endogenous carbohydrate selected from the group consisting of mannose, a phosphorylated mannose, a mannofuranose, a phosphorylated mannofuranose, a mannopyranose, a phosphorylated mannopyranose, and mannose-1-phosphate, wherein the endogenous carbohydrate is encapsulated in the lipid particle. a) a lipid particle, wherein the lipid particle comprises phosphatidylethanolamine, phosphatidylcholine, and a molecule capable of minimizing degradation of the lipid particle, enhancing retention of the lipid particle, and/or making the lipid particle immunotolerant when administered to a subject in need thereof, wherein said molecule is polyethylene glycol, and wherein the PEG is conjugated to a phospholipid; and b) an endogenous carbohydrate selected from the group consisting of mannose, a phosphorylated mannose, a mannofuranose, a phosphorylated mannofuranose, a mannopyranose, a phosphorylated mannopyranose, and mannose-1-phosphate, wherein the endogenous carbohydrate is encapsulated in the lipid particle.
A damping force control apparatus, comprising: a damping force control means controlling a damping force of a shock absorber provided between a sprung mass and an unsprung mass of each wheel of a vehicle; a detection means detecting at least an acceleration of the sprung mass in an up-down direction and a relative displacement between the sprung mass and the unsprung mass; a damping coefficient calculation means calculating a damping coefficient to be applied to the damping force control by the damping force control means based on detected results of the detection means; a sensed acceleration increment calculation means calculating a sensed acceleration increment corresponding to an increment of sense according to the Weber Fechner law on the basis of the detected results of the detection means; and a modification means modifying the damping coefficient in accordance with a sensed acceleration increment calculated by the sensed acceleration increment calculation means. a damping force control means controlling a damping force of a shock absorber provided between a sprung mass and an unsprung mass of each wheel of a vehicle; a detection means detecting at least an acceleration of the sprung mass in an up-down direction and a relative displacement between the sprung mass and the unsprung mass; a damping coefficient calculation means calculating a damping coefficient to be applied to the damping force control by the damping force control means based on detected results of the detection means; a sensed acceleration increment calculation means calculating a sensed acceleration increment corresponding to an increment of sense according to the Weber Fechner law on the basis of the detected results of the detection means; and a modification means modifying the damping coefficient in accordance with a sensed acceleration increment calculated by the sensed acceleration increment calculation means.
A method for conveying a single piece liner hanger body, the method comprising: assembling an inner sub-assembly portion (43, 44, 45, 46, 47, 48, 49) of a coupler assembly to form an assembled inner sub-assembly portion (43, 44, 45, 46, 47, 48, 49) of the coupler assembly; inserting the assembled inner sub-assembly portion (43, 44, 45, 46, 47, 48, 49) of the coupler assembly through a first opening of a single piece liner hanger body until it engages within an inner diameter of the single piece liner hanger body, wherein the first opening is intended to be located at the bottom of the single piece liner hanger body when it is situated vertically in a wellbore in use; inserting a collet prop mandrel into the first opening of the single piece liner hanger body until it engages with the assembled inner sub-assembly portion (43, 44, 45, 46, 47, 48, 49) of the coupler assembly to form the coupler assembly; inserting a running tool having a liner hanger sub-assembly installed on the bottom of the running tool into a second opening of the single piece liner hanger body until liner hanger sub-assembly engages with the coupler assembly, wherein the second opening is intended to be located at the top of the single piece liner hanger body when it is situated vertically in a wellbore in use; and securing the liner hanger sub-assembly to the coupler assembly. assembling an inner sub-assembly portion (43, 44, 45, 46, 47, 48, 49) of a coupler assembly to form an assembled inner sub-assembly portion (43, 44, 45, 46, 47, 48, 49) of the coupler assembly; inserting the assembled inner sub-assembly portion (43, 44, 45, 46, 47, 48, 49) of the coupler assembly through a first opening of a single piece liner hanger body until it engages within an inner diameter of the single piece liner hanger body, wherein the first opening is intended to be located at the bottom of the single piece liner hanger body when it is situated vertically in a wellbore in use; inserting a collet prop mandrel into the first opening of the single piece liner hanger body until it engages with the assembled inner sub-assembly portion (43, 44, 45, 46, 47, 48, 49) of the coupler assembly to form the coupler assembly; inserting a running tool having a liner hanger sub-assembly installed on the bottom of the running tool into a second opening of the single piece liner hanger body until liner hanger sub-assembly engages with the coupler assembly, wherein the second opening is intended to be located at the top of the single piece liner hanger body when it is situated vertically in a wellbore in use; and securing the liner hanger sub-assembly to the coupler assembly.
A multilayer strip (1a; 1b; 1c) intended to be wound on a form to manufacture a part in composite material, comprising superposed fibrous layers, at least one of these layers being pre-impregnated, said superposed fibrous layers comprising at least: - a first layer comprising a first material on a first side of the width of the strip, and a second material, differing from the first material, on a second side of the width of the strip opposite the first side, and - a second layer superposed on the first layer and comprising the first material on the first side and the second material on the second side, with overlapping of a material of the second layer over a different material of the first layer. - a first layer comprising a first material on a first side of the width of the strip, and a second material, differing from the first material, on a second side of the width of the strip opposite the first side, and - a second layer superposed on the first layer and comprising the first material on the first side and the second material on the second side, with overlapping of a material of the second layer over a different material of the first layer.
A cartridge comprising a plurality of analyzing tools (3, 7) arranged lined in a plane direction and a case for accommodating the plurality of analyzing tools (3, 7), said cartridge being configured to take out the analyzing tools (3, 7) one at a time from the case; wherein the plurality of analyzing tools (3, 7) further include engagement means (32, 33) for restricting the analyzing tools (3, 7) adjacent to each other in the plane direction (N1, N2) and allowing removable attachment in a thickness direction (D1, D2) of the analyzing tool (3, 7), said cartridge being characterised in that: the engagement means (32, 33) are configured by a projecting portion that projects out in the thickness direction (D1, D2) of the analyzing tool (3, 7) and a recessed portion that engages with a projecting portion of an adjacent analyzing tool (3, 7).
A computer graphics processing method, comprising: processing a set of graphics primitive information for a virtual object with a compute shader running on a GPU to generate a modified set of primitive information; passing the modified set of primitive information to a vertex shader running on the GPU, wherein said passing the modified set of primitive information to a vertex shader includes passing the modified set of primitive information through a ring buffer; and performing vertex shading on the modified set of primitive information with the vertex shader, wherein the size of the ring buffer is determined in dependence upon the speed of the synchronisation of the compute shader and vertex shader operations, such that a faster synchronisation results in a smaller ring buffer size. processing a set of graphics primitive information for a virtual object with a compute shader running on a GPU to generate a modified set of primitive information; passing the modified set of primitive information to a vertex shader running on the GPU, wherein said passing the modified set of primitive information to a vertex shader includes passing the modified set of primitive information through a ring buffer; and performing vertex shading on the modified set of primitive information with the vertex shader, wherein the size of the ring buffer is determined in dependence upon the speed of the synchronisation of the compute shader and vertex shader operations, such that a faster synchronisation results in a smaller ring buffer size.
An isolated antibody, or antigen binding portion thereof, that specifically binds to human CD40 and comprises a heavy chain and a light chain, wherein the heavy chain comprises CDRH1, CDRH2 and CDRH3 sequences and the light chain comprises CDRL1, CDRL2 and CDRL3 sequences, wherein CDRH1, CDRH2 and CDRH3 comprise residues 31-35, 50-66 and 99-108, respectively, of SEQ ID NO:12 and CDRL1, CDRL2 and CDRL3 comprise residues 24-39, 55-61 and 94-102, respectively, of SEQ ID NO:9.