mhurhangee/ep-ind-claims huggingface dataset:
An electronic circuit (200, 600, 700, 800, 900) receiving a substantially constant input voltage and configured to provide a substantially constant output voltage (VOUT) to a load, the electronic circuit comprising: a voltage regulation circuit that generates a substantially constant bias voltage based on the substantially constant input voltage; a buffer circuit (709, 721) providing the substantially constant output voltage (VOUT) based on a substantially constant boosted bias voltage; a first capacitor (812; 912) coupled to an input terminal of the buffer circuit and ground; a second capacitor (813, 913) having a first terminal coupled to the input terminal of the buffer circuit and a second terminal that is selectively switched between ground and an output terminal of the buffer circuit (709, 721); wherein the boosted bias voltage is based on the constant bias voltage provided by the voltage regulator circuit and a ratio of the second capacitor value to the sum of the first and second capacitor values; and an isolation circuit (806, 807, 812-815) coupled to the voltage regulation circuit and the buffer circuit (709, 721) that selectively disconnects the buffer circuit from the voltage regulation circuit at or before the occurrence of a pulse induced by the load, the buffer circuit (709, 721) providing an output voltage (VOUT) based on the boosted bias voltage at and during the occurrence of the pulse induced by the load. a voltage regulation circuit that generates a substantially constant bias voltage based on the substantially constant input voltage; a buffer circuit (709, 721) providing the substantially constant output voltage (VOUT) based on a substantially constant boosted bias voltage; a first capacitor (812; 912) coupled to an input terminal of the buffer circuit and ground; a second capacitor (813, 913) having a first terminal coupled to the input terminal of the buffer circuit and a second terminal that is selectively switched between ground and an output terminal of the buffer circuit (709, 721); wherein the boosted bias voltage is based on the constant bias voltage provided by the voltage regulator circuit and a ratio of the second capacitor value to the sum of the first and second capacitor values; and an isolation circuit (806, 807, 812-815) coupled to the voltage regulation circuit and the buffer circuit (709, 721) that selectively disconnects the buffer circuit from the voltage regulation circuit at or before the occurrence of a pulse induced by the load, the buffer circuit (709, 721) providing an output voltage (VOUT) based on the boosted bias voltage at and during the occurrence of the pulse induced by the load.
A method of manufacturing wood plastic composite comprising mixing wood filler in the amount of 40 - 80% by weight with heated thermoplastic polymer in the amount of 20 - 60% by weight and optionally additives in the amount of 0 - 30 % by weight and extruding thus formed mixture into the desired shape, wherein the wood filler comprises wood dust from a recycled particle board in the amount of 40 - 98% by weight, wherein - said wood filler is obtained directly in a recycling process of post-consumer wood products and wood product waste by a multi-stage grinding of post-consumer wood products and wood product waste, separation of contaminants from the ground wood material, fractioning the ground wood material according to particle size, selecting a fraction having particle size of 0.05 - 1.5 mm, and wherein the content of the wood filler depends on the selection of the recycled post-consumer wood products and wood product waste, - the water content in thus obtained wood filler used as a starting material in the manufacturing method amounts to 5 - 10 % by weight, and - the recycling process of post-consumer wood products and wood product waste does not comprise a step of drying and the wood filler obtained therein can be used directly as a starting material in the wood plastic composite manufacturing method. - said wood filler is obtained directly in a recycling process of post-consumer wood products and wood product waste by a multi-stage grinding of post-consumer wood products and wood product waste, separation of contaminants from the ground wood material, fractioning the ground wood material according to particle size, selecting a fraction having particle size of 0.05 - 1.5 mm, and wherein the content of the wood filler depends on the selection of the recycled post-consumer wood products and wood product waste, - the water content in thus obtained wood filler used as a starting material in the manufacturing method amounts to 5 - 10 % by weight, and - the recycling process of post-consumer wood products and wood product waste does not comprise a step of drying and the wood filler obtained therein can be used directly as a starting material in the wood plastic composite manufacturing method.
A device for delivering a vascular device within a body lumen, the delivery device comprising: an outer tubular member defining a proximal end and a distal end; an intermediate tubular member at least partially disposed within the outer tubular member, wherein the intermediate tubular member defines a proximal end and a distal end; and an inner member at least partially disposed within the intermediate tubular member and configured to move axially therein, wherein the inner member defines a proximal end and a distal end, and wherein the distal end is configured to engage a vascular device, wherein the distal end of the intermediate tubular member is free to rotate with respect to the distal end of the outer tubular member, and characterized in that the proximal end of the outer tubular member and the proximal end of the intermediate tubular member are fixed to each other, wherein, in use, a torque applied proximate the proximal end of the outer tubular member will be at least partially transmitted to the distal end of the intermediate tubular member. an outer tubular member defining a proximal end and a distal end; an intermediate tubular member at least partially disposed within the outer tubular member, wherein the intermediate tubular member defines a proximal end and a distal end; and an inner member at least partially disposed within the intermediate tubular member and configured to move axially therein, wherein the inner member defines a proximal end and a distal end, and wherein the distal end is configured to engage a vascular device, wherein the distal end of the intermediate tubular member is free to rotate with respect to the distal end of the outer tubular member, and characterized in that the proximal end of the outer tubular member and the proximal end of the intermediate tubular member are fixed to each other, wherein, in use, a torque applied proximate the proximal end of the outer tubular member will be at least partially transmitted to the distal end of the intermediate tubular member.
A method, comprising: receiving at a terminal a refresh message sent by a secure element, wherein said refresh message comprises a request for a session reset; sending by said terminal a status message to said secure element, wherein said status message notifies said current active application on said secure element that an application session reset procedure will be executed; and sending by said terminal an application selection message to said secure element, wherein said application selection message instructs said secure element to reactivate said current active application with at least one new value, characterized in that the terminal refresh message is in response to at least one value associated with the current active application on said secure element being changed to the at least one new value; the status message is a status command of universal subscriber identity module application session reset, the user need not re-enter a personal identification number, PIN, and the at least one value comprises an international mobile subscriber identity. receiving at a terminal a refresh message sent by a secure element, wherein said refresh message comprises a request for a session reset; sending by said terminal a status message to said secure element, wherein said status message notifies said current active application on said secure element that an application session reset procedure will be executed; and sending by said terminal an application selection message to said secure element, wherein said application selection message instructs said secure element to reactivate said current active application with at least one new value, characterized in that the terminal refresh message is in response to at least one value associated with the current active application on said secure element being changed to the at least one new value; the status message is a status command of universal subscriber identity module application session reset, the user need not re-enter a personal identification number, PIN, and the at least one value comprises an international mobile subscriber identity.
An apparatus comprising a processor and a memory for storing instructions to be executed by the processor, wherein the processor is configured to determine transmit power for each antenna element ( 31 to 34) of an antenna array for beamforming by determining a weight vector comprising a weight for each antenna element ( 31 to 34) according to a specific beamforming procedure, to detect whether at least one of the plurality of antenna elements ( 31 to 34) is saturated, wherein an antenna element is saturated when the determined transmit power for this antenna element is higher than a threshold, and, when it is detected that there is at least one saturated antenna element, to adjust the transmit power for each antenna element ( 31 to 34) of the antenna array such that a part of the transmit power allocated to the at least one saturated antenna element is reallocated to at least one antenna element of the antenna array which is not saturated based on the weight vector determined according to the specific beamforming procedure. wherein the processor is further configured, upon adjusting the transmit power for each unsaturated antenna element, to calculate an adjustment factor based on a weight vector determined by the specific beamforming procedure and on a weight of the saturated antenna element, and to calculate the adjusted weight of the at least one unsaturated antenna element based on the following formula: U 0, i ′ = ρ i U 0, i, i ∈ A, ρ i = ∑ i ∈ A ‖ U 0, i ‖ 2 + ‖ U 0, j ‖ 2 − C ∑ i ∈ A ‖ U 0, i ‖ 2, where j is the saturated antenna element index, U 0, i ′ is the adjusted weight of the antenna element i, ρ i is the adjustment factor, U 0, i is the weight determined by the specific beamforming procedure, U 0 is the weight vector determined by the specific beamforming procedure, U 0, j is the weight of the saturated antenna element, C is the per-antenna element transmit power capability, and A is a subset of all antenna elements i with j ∉ A.
A bone growth composition comprising particles of a mineralized collagen component that comprise a fibrillar collagen component and an acidic calcium hydrogen phosphate component wherein the composition further comprises demineralised bone.
A lamp, comprising: a beam on which, in use, a load is supported; and at least three supporting elements (33,34,35,36), each including a spring and being connected to the beam, so as to maintain the beam in an equilibrium position; wherein at least two of the supporting elements (33,34,35,36) are positioned such that one is on each side of a vertical plane through the beam, thereby providing rotational stability to the beam, and wherein the supporting elements (33,34,35,36) are arranged so as to provide static equilibrium of the beam at any position within the range of movement of the beam; and of wherein the beam is supported solely by the use of the supporting elements (33,34,35,36). a beam on which, in use, a load is supported; and at least three supporting elements (33,34,35,36), each including a spring and being connected to the beam, so as to maintain the beam in an equilibrium position; wherein at least two of the supporting elements (33,34,35,36) are positioned such that one is on each side of a vertical plane through the beam, thereby providing rotational stability to the beam, and wherein the supporting elements (33,34,35,36) are arranged so as to provide static equilibrium of the beam at any position within the range of movement of the beam; and of wherein the beam is supported solely by the use of the supporting elements (33,34,35,36).
Positioning device for positioning a body component with at least one locating bore in vehicle construction, comprising a locating pin with a conical end that is designed to be guided axially through the locating bore in the body component in order to centre and position the body component, characterized in that the locating pin is mounted in a radially floating manner, wherein the locating pin has an axial recess in the form of an internal taper at its end opposite the conical end, wherein the positioning device comprises a locking pin, wherein the locking pin has a conical end, wherein the locking pin is axially displaceable with respect to the locating pin, wherein the diameters of the internal taper of the locating pin and of the conical end of the locking pin fit together, so that the conical end can be received in the internal taper by fitting.
Process for preparing 3-chloro-2-vinylphenol of the formula, characterized in that 1,5,5-trichloro-6-vinyl-7-oxabicyclo[4.1.0]heptane of the formula, is reacted in the presence of a base, a dipolar aprotic additive and optionally a solvent to give the compound of the formula, wherein the base is selected from lithium carbonate, sodium carbonate, potassium carbonate, calcium carbonate, triethylamine, diethylisopropylamine, tri- n -butylamine, pyridine, picoline, lutidine and collidine, wherein the dipolar aprotic additive is N,N-dimethylacetamide, and wherein the solvent is methyl tert -butyl ether, tetrahydrofuran, 2-methyltetrahydrofuran, cyclopentyl methyl ether, 1,4-dioxane, ethyl acetate, n -propyl acetate, i -propyl acetate or n -butyl acetate.
A motorized vehicle having an engine for providing power, comprising: a transmission (118, 200, 308, 402) having an input (202, 406) coupled to the engine for receiving power, and an output (284, 426) configured to transfer the power to one or more wheels (134A, 134B) on the vehicle; a controller (310, 404) for controlling at least the transmission (118, 200, 308, 402); a braking system of the vehicle including a brake sensor and a brake pack (408, 410) configured to reduce a speed of the vehicle, the brake sensor in electrical communication with the controller (310, 404); a main hydraulic pump operably driven by the engine and adapted to provide hydraulic fluid to the transmission (118, 200, 308, 402); an output hydraulic pump operably driven by the transmission output (284, 426); and a brake coolant valve in fluid communication with the main hydraulic pump and the output hydraulic pump, the brake coolant valve being operably controlled between an open position and a closed position; characterised in that the main hydraulic pump and the output hydraulic pump are fluidly coupled to the brake pack (408, 410) when the brake coolant valve is in its open position, and at least the output hydraulic pump is not fluidly coupled to the brake pack (408, 410) when the brake coolant valve is in its closed position. a transmission (118, 200, 308, 402) having an input (202, 406) coupled to the engine for receiving power, and an output (284, 426) configured to transfer the power to one or more wheels (134A, 134B) on the vehicle; a controller (310, 404) for controlling at least the transmission (118, 200, 308, 402); a braking system of the vehicle including a brake sensor and a brake pack (408, 410) configured to reduce a speed of the vehicle, the brake sensor in electrical communication with the controller (310, 404); a main hydraulic pump operably driven by the engine and adapted to provide hydraulic fluid to the transmission (118, 200, 308, 402); an output hydraulic pump operably driven by the transmission output (284, 426); and a brake coolant valve in fluid communication with the main hydraulic pump and the output hydraulic pump, the brake coolant valve being operably controlled between an open position and a closed position; characterised in that the main hydraulic pump and the output hydraulic pump are fluidly coupled to the brake pack (408, 410) when the brake coolant valve is in its open position, and at least the output hydraulic pump is not fluidly coupled to the brake pack (408, 410) when the brake coolant valve is in its closed position.
A method of forming a ceramic matrix composite component comprising an integral fastener, comprising the steps of: (a) forming a fiber preform (130; 230) with an opening (110; 210) that has a wide portion at one surface of the fiber preform and a narrow portion at an opposite surface of the fiber preform, and rigidizing the fiber preform (130, 230) with a non-polymer-based material to provide a rigid preform structure and machining the opening (110, 210) in the rigid preform structure subsequent to rigidizing the preform; (b) forming a fiber fastener to comprise a fastener body extending from a first end to a second end, and forming the fiber fastener to have a foot portion at the second end that has a smaller width than a head portion at the first end, and including machining the opening (110, 210) in the rigid preform structure to be wider at one surface of the ceramic matrix composite component than at an opposite surface to accommodate the head portion; (c) inserting the fiber fastener into the opening (110; 210) to form a dry fiber preform and fiber fastener assembly, wherein the fastener body extends through the dry fiber preform such that the head portion formed in step (b) is received within the wide portion of the opening; (d) infiltrating a matrix material into the fiber preform (130; 230) and fiber fastener to form a ceramic matrix composite component with an integral fastener; and wherein the method further includes removing the non-polymer based material from the rigid preform structure prior to step (d), and machining the foot portion of the fiber fastener to receive a connecting structure subsequent to the step of infiltrating a matrix material into the rigid preform structure and fiber fastener. (a) forming a fiber preform (130; 230) with an opening (110; 210) that has a wide portion at one surface of the fiber preform and a narrow portion at an opposite surface of the fiber preform, and rigidizing the fiber preform (130, 230) with a non-polymer-based material to provide a rigid preform structure and machining the opening (110, 210) in the rigid preform structure subsequent to rigidizing the preform; (b) forming a fiber fastener to comprise a fastener body extending from a first end to a second end, and forming the fiber fastener to have a foot portion at the second end that has a smaller width than a head portion at the first end, and including machining the opening (110, 210) in the rigid preform structure to be wider at one surface of the ceramic matrix composite component than at an opposite surface to accommodate the head portion; (c) inserting the fiber fastener into the opening (110; 210) to form a dry fiber preform and fiber fastener assembly, wherein the fastener body extends through the dry fiber preform such that the head portion formed in step (b) is received within the wide portion of the opening; (d) infiltrating a matrix material into the fiber preform (130; 230) and fiber fastener to form a ceramic matrix composite component with an integral fastener; and
An electrochemical cell comprising at least one multilayer component which comprises: - a positive electrode film comprising, on a current collector, elemental sulfur particles as electrochemically active material, a conductive carbon, and a polymer binder, the elemental sulfur particles being encapsulated in a coating material; - a negative electrode film comprising lithium as an electrochemically active material; and - a solid electrolyte film between the negative and positive electrode films, said solid electrolyte film comprising at least one lithium salt and at least one polymeric layer, the solid electrolyte film being an ion-conductive film and comprising at least one inorganic compound in the polymeric layer or in a separate ion-conductive solid layer, the electrolyte polymer comprising a block copolymer composed of at least one lithium ion-solvating segment and at least one cross-linkable segment, the cross-linkable segment of the polymer being a polymer segment comprising at least one functional group cross-linkable multidimensionally by irradiation or thermal treatment, and the lithium ion-solvating segment being selected from homo- or copolymers having repeating units of Formula: wherein, R is selected from H, C 1 -C 10 alkyl, or -(CH 2 -O-R a R b); R a is (CH 2 -CH 2 -O) y; R b is selected from H and a C 1 -C 10 alkyl group; x is an integer selected from the range of 10 to 200,000; and y is a number selected from the range of 0 to 10. - a positive electrode film comprising, on a current collector, elemental sulfur particles as electrochemically active material, a conductive carbon, and a polymer binder, the elemental sulfur particles being encapsulated in a coating material; - a negative electrode film comprising lithium as an electrochemically active material; and - a solid electrolyte film between the negative and positive electrode films, said solid electrolyte film comprising at least one lithium salt and at least one polymeric layer, the solid electrolyte film being an ion-conductive film and comprising at least one inorganic compound in the polymeric layer or in a separate ion-conductive solid layer, the electrolyte polymer comprising a block copolymer composed of at least one lithium ion-solvating segment and at least one cross-linkable segment, the cross-linkable segment of the polymer being a polymer segment comprising at least one functional group cross-linkable multidimensionally by irradiation or thermal treatment, and the lithium ion-solvating segment being selected from homo- or copolymers having repeating units of Formula: wherein, R is selected from H, C 1 -C 10 alkyl, or -(CH 2 -O-R a R b); R a is (CH 2 -CH 2 -O) y; R b is selected from H and a C 1 -C 10 alkyl group; x is an integer selected from the range of 10 to 200,000; and y is a number selected from the range of 0 to 10. R is selected from H, C 1 -C 10 alkyl, or -(CH 2 -O-R a R b); R a is (CH 2 -CH 2 -O) y; R b is selected from H and a C 1 -C 10 alkyl group; x is an integer selected from the range of 10 to 200,000; and y is a number selected from the range of 0 to 10.
Rod belt for rod belt conveyors of agricultural machines having rods arranged transversely to the running direction and in parallel to one another, wherein at least one of the rods has flattened and perforated end regions, with which it is supported on elastic and continuous belts with high tensile strength, circulating in parallel to one another, and is connected by rivets or similar fastening means which penetrate the end regions and the belts, wherein at least one further rod is connected rigidly to the at least one rod connected to the belts, characterised in that a crossbar is welded on the at least one rod connected to the belts on both sides, to which crossbar the at least one further rod is connected rigidly, wherein the at least one further rod is introduced with its ends in a compact manner onto the belt inner sides which are turned toward each other, without touching these.