mhurhangee/patent-ind-claim-en huggingface dataset:
A toroidal continuously variable transmission comprising: input and output discs opposed to each other; a power roller tiltably held between the input and output discs to transmit rotational drive power of the input disc to the output disc at a speed ratio determined by a tilt angle of the power roller ; at least one lubrication outlet that discharges an oil toward at least one contact interface (H1, H2) between the input or output disc and the power roller ; and at least one cooling outlet that discharges the oil toward the power roller , wherein the cooling outlet and the lubrication outlet are arranged such that a distance between the cooling outlet and a point at which the oil discharged from the cooling outlet contacts the power roller is smaller than a distance between the lubrication outlet and the contact interface (H1, H2), characterized in that the cooling outlet and the lubrication outlet are also arranged such that when the power roller is viewed along a rotational axis (A2) of the power roller , an imaginary extension (I2) of an axis of the cooling outlet is directed toward a point closer to the rotational axis (A2) of the power roller than a point toward which an imaginary extension (I1) of an axis of the lubrication outlet is directed. input and output discs opposed to each other; a power roller tiltably held between the input and output discs to transmit rotational drive power of the input disc to the output disc at a speed ratio determined by a tilt angle of the power roller ; at least one lubrication outlet that discharges an oil toward at least one contact interface (H1, H2) between the input or output disc and the power roller ; and at least one cooling outlet that discharges the oil toward the power roller , wherein the cooling outlet and the lubrication outlet are arranged such that a distance between the cooling outlet and a point at which the oil discharged from the cooling outlet contacts the power roller is smaller than a distance between the lubrication outlet and the contact interface (H1, H2), characterized in that the cooling outlet and the lubrication outlet are also arranged such that when the power roller is viewed along a rotational axis (A2) of the power roller , an imaginary extension (I2) of an axis of the cooling outlet is directed toward a point closer to the rotational axis (A2) of the power roller than a point toward which an imaginary extension (I1) of an axis of the lubrication outlet is directed.
A vacuum conveyor for conveying granulate and/or powdery material, the conveyor comprising: - a main body having an upper end and a lower end ; - a cavity inside the main body , said cavity comprising an opening arranged at the lower end of the main body ; - a valve arranged at the opening positionable between an open position allowing a flow of granulate and/or powdery material out from the cavity through said opening and a sealing position sealing said opening ; - an inlet arranged at the upper end of the main body forming an inlet passage into the cavity ; - a venturi inside the main body at a position being distinct from the cavity , said venturi comprising an inlet and an outlet ; - a suction channel fluidly connecting the throat of the venturi with the interior of the cavity at a position at or above the inlet . - a main body having an upper end and a lower end ; - a cavity inside the main body , said cavity comprising an opening arranged at the lower end of the main body ; - a valve arranged at the opening positionable between an open position allowing a flow of granulate and/or powdery material out from the cavity through said opening and a sealing position sealing said opening ; - an inlet arranged at the upper end of the main body forming an inlet passage into the cavity ; - a venturi inside the main body at a position being distinct from the cavity , said venturi comprising an inlet and an outlet ; - a suction channel fluidly connecting the throat of the venturi with the interior of the cavity at a position at or above the inlet .
A chin ring heat shield for a wheel assembly arranged to provide a shield between convection and radiation heat from braking components and a wheel of the wheel assembly, the chin ring heat shield comprising a first, radially extending, flat portion extending from a first chin ring end and a second, concave portion extending generally axially away from the first portion to a second chin ring end ,and characterised in that the chin ring heat shield comprises an intermediate, straight portion extending in an axial direction from the first, radially extending, flat portion and from which the second, concave portion extends, and wherein the intermediate portion is at an angle of substantially 90 degrees to the first radially extending flat portion .
An insulated wire, comprising at least one foamed insulating layer composed of a thermosetting resin having bubbles, directly or indirectly on the outer periphery of a conductor, wherein the foamed insulating layer has a difference in a bubble density in the thickness direction thereof to be 3% or more, and wherein an average bubble diameter of the foamed insulating layer is 10 μm or less, wherein the difference in bubble density is obtained by using a scanning electron microscope (SEM) and using the method described in to and wherein the average bubble diameter is obtained using a scanning electron microscope and using the method described in .
Negative electrode for a lithium electrochemical generator, characterised in that it comprises, as active material, a lithium and calcium alloy, wherein the calcium is present in the alloy to the extent of 2% to 34% atomic and which is in the form of a sheet or plate having a thickness ranging from 5 to 200 μm.
A barrier device (B) for inhibiting access of a crawling animal to an article (W, L), the device (B) comprising a generally laminar substrate (1,S) having a barrier surface (4, HT) for impeding the motion of a crawling animal across the substrate (1,S), the substrate defining an aperture for accommodating at least a part of the article (W, L) in an operational configuration, and wherein the device (B) has a locating surface (LT) on an opposed side of the substrate (1,S) from the barrier surface (4,HT), the locating surface (LT) comprising an adhesive, and the barrier surface (4, HT) comprises an adhesive surface for adhering to a crawling animal, thereby to impede its motion across the substrate (1,S), and characterised in that the substrate comprises a slit, perforation or line of weakness extending through the substrate (1,S) from the aperture to an edge region, for partly separating the substrate (1,S) into two portions so that the substrate is configurable in either an installation configuration or an operable configuration, wherein in the installation configuration a discontinuity is formed in the substrate (1,S) to permit engagement with the article (W,L), and in the operational configuration the barrier surface (4, HT) extends substantially continuously around an article (W,L) and the adhesive of the locating surface (LT) maintains the position of the device on a floor surface (F), wherein in the operational configuration the substrate has a flat and thin profile.
Vehicle with total or partial sail propulsion comprising a hull (j), at least one inflatable sail, at least one self-supporting mast (l) having a vertical axis, said mast comprising a fixed part (o) disposed at hull level and a movable part (p) that can move about the vertical axis, characterized in that said mast comprises: a. in the fixed part (o), sensors for measuring physical parameters intended to supply digital data on the thrust force, the drift force and the differential pressure of the sail for an inflatable sail, or else, b. in the movable part (p), sensors for measuring physical parameters intended to supply digital data on the aerodynamic thrust force projected in the axis of the sail, the aerodynamic thrust force projected in the axis at right angles to the sail and the differential pressure of the sail for an inflatable sail. a. in the fixed part (o), sensors for measuring physical parameters intended to supply digital data on the thrust force, the drift force and the differential pressure of the sail for an inflatable sail, or else, b. in the movable part (p), sensors for measuring physical parameters intended to supply digital data on the aerodynamic thrust force projected in the axis of the sail, the aerodynamic thrust force projected in the axis at right angles to the sail and the differential pressure of the sail for an inflatable sail.
An apparatus to configure heterogenous components in an accelerator, the apparatus comprising: an accelerator including a credit manager and a configuration controller ; a graph compiler to: identify a workload node in a workload; and generate a selector for the workload node; and the selector to identify an input condition and an output condition of a compute building block, wherein the graph compiler is to, in response to obtaining the identified input condition and output condition from the selector , map the workload node to the compute building block; wherein the compute building block is one out of multiple hardware components in the accelerator ; wherein the input condition and output condition define a type of input and type of output, respectively; wherein the credit manager and/or the configuration controller are to partition a memory of the accelerator into one or more buffers associated with each workload node; wherein the credit manager is to provide credits to the compute building block, in response to receiving an instruction from the configuration controller to execute the workload node, said credits representative of slots in the buffers , wherein the credits are sent back to the credit manager once the compute building block completes the workload node; and wherein the credit manager is to determine that execution of the workload node is complete, and to clear all credits in the compute building block associated with the workload node. an accelerator including a credit manager and a configuration controller ; a graph compiler to: identify a workload node in a workload; and generate a selector for the workload node; and identify a workload node in a workload; and generate a selector for the workload node; and the selector to identify an input condition and an output condition of a compute building block, wherein the graph compiler is to, in response to obtaining the identified input condition and output condition from the selector , map the workload node to the compute building block; wherein the compute building block is one out of multiple hardware components in the accelerator ; wherein the input condition and output condition define a type of input and type of output, respectively; wherein the credit manager and/or the configuration controller are to partition a memory of the accelerator into one or more buffers associated with each workload node; wherein the credit manager is to provide credits to the compute building block, in response to receiving an instruction from the configuration controller to execute the workload node, said credits representative of slots in the buffers , wherein the credits are sent back to the credit manager once the compute building block completes the workload node; and wherein the credit manager is to determine that execution of the workload node is complete, and to clear all credits in the compute building block associated with the workload node.
A method for the preparation of 1,2-propanediol comprising the steps: a) continuously reacting propene with hydrogen peroxide in the presence of a catalyst mixture comprising a quaternary ammonium salt and a polytungstophosphate in a liquid reaction mixture comprising an aqueous phase with a maximum apparent pH of 6 and an organic phase comprising an alkylaromatic hydrocarbon solvent; b) withdrawing liquid reaction mixture from step a) and adding a water-soluble sulfate salt or sulfuric acid to the withdrawn reaction mixture to provide a mixture comprising from 500 to 10,000 mg/kg of sulfate ions in the aqueous phase; c) separating the mixture obtained in step b) into an aqueous phase (P a ) comprising 1,2-propanediol and an organic phase (P o ) v; d) recycling at least a part of the organic phase (P o ) to the reaction step a); and e) recovering 1,2-propanediol from the aqueous phase (P a ), wherein the term "apparent pH" here refers to a value determined by measurement with a glass electrode employing a commercial pH meter calibrated with aqueous buffer solutions of known pH for measuring dilute aqueous solutions. a) continuously reacting propene with hydrogen peroxide in the presence of a catalyst mixture comprising a quaternary ammonium salt and a polytungstophosphate in a liquid reaction mixture comprising an aqueous phase with a maximum apparent pH of 6 and an organic phase comprising an alkylaromatic hydrocarbon solvent; b) withdrawing liquid reaction mixture from step a) and adding a water-soluble sulfate salt or sulfuric acid to the withdrawn reaction mixture to provide a mixture comprising from 500 to 10,000 mg/kg of sulfate ions in the aqueous phase; c) separating the mixture obtained in step b) into an aqueous phase (P a ) comprising 1,2-propanediol and an organic phase (P o ) v; d) recycling at least a part of the organic phase (P o ) to the reaction step a); and e) recovering 1,2-propanediol from the aqueous phase (P a ),
A system comprising: converter circuitry to convert incoming three-phase power to DC power; inverter circuitry to convert the DC power to three-phase controlled frequency AC power to drive a motor ; control circuitry coupled to the inverter circuitry and configured to apply control signals to the inverter circuitry for conversion of the DC power to the controlled frequency AC power; and communications circuitry (34; 58) comprising a bandwidth manager and coupled for data communication between the control circuitry and a plurality of peripheral devices including at least the inverter circuitry , wherein the bandwidth manager of the communications circuitry (34; 58) implements a communications protocol having a plurality of data transfer schemes (66; 86; 88) each having different respective data transfer intervals and data allocations; the system characterized in that the bandwidth manager of the communications circuitry (34; 58) is configured to select the data transfer scheme based upon the capabilities of each peripheral device . converter circuitry to convert incoming three-phase power to DC power; inverter circuitry to convert the DC power to three-phase controlled frequency AC power to drive a motor ; control circuitry coupled to the inverter circuitry and configured to apply control signals to the inverter circuitry for conversion of the DC power to the controlled frequency AC power; and communications circuitry (34; 58) comprising a bandwidth manager and coupled for data communication between the control circuitry and a plurality of peripheral devices including at least the inverter circuitry , wherein the bandwidth manager of the communications circuitry (34; 58) implements a communications protocol having a plurality of data transfer schemes (66; 86; 88) each having different respective data transfer intervals and data allocations; the system characterized in that the bandwidth manager of the communications circuitry (34; 58) is configured to select the data transfer scheme based upon the capabilities of each peripheral device .
A data carrier , in particular a value document or a security paper, comprising a data-carrier substrate having a break-through area having a front side and a back side, wherein - the front side of the data-carrier substrate is furnished with a foil security element in the break-through area; - the break-through area of the data-carrier substrate is formed by a multiplicity of gaps breaking through the data-carrier substrate, which together form a break-through area motif, wherein the break-through area motif is recognizable through the foil security element upon viewing the front side of the data carrier in transmitted light; and - the foil security element upon viewing the front side of the data carrier in incident light shows a first appearance and upon viewing the front side of the data carrier in transmitted light shows a second appearance, which supplements with the break-through area motif of the data-carrier substrate, characterized in that upon viewing the front side of the data carrier in incident light the break-through area motif is not recognizable and is hidden by the foil security element. - the front side of the data-carrier substrate is furnished with a foil security element in the break-through area; - the break-through area of the data-carrier substrate is formed by a multiplicity of gaps breaking through the data-carrier substrate, which together form a break-through area motif, wherein the break-through area motif is recognizable through the foil security element upon viewing the front side of the data carrier in transmitted light; and - the foil security element upon viewing the front side of the data carrier in incident light shows a first appearance and upon viewing the front side of the data carrier in transmitted light shows a second appearance, which supplements with the break-through area motif of the data-carrier substrate,
An osmotic dosage form for once daily administration of deutetrabenazine to a subject in need thereof comprising: a. a tablet core comprising an active layer and a push layer, wherein the active layer comprises an amount of deutetrabenazine microparticles and an active layer control release agent, and wherein the push layer comprises an osmotic agent and a push layer control release agent, and an optional tablet seal coat on the outer surface of the tablet core; b. a semipermeable layer surrounding the tablet core; c. a port extending through the semipermeable layer into the tablet core; and d. an optional immediate release coating external to the semipermeable layer comprising a second amount of deutetrabenazine microparticles. a. a tablet core comprising an active layer and a push layer, wherein the active layer comprises an amount of deutetrabenazine microparticles and an active layer control release agent, and wherein the push layer comprises an osmotic agent and a push layer control release agent, and an optional tablet seal coat on the outer surface of the tablet core; b. a semipermeable layer surrounding the tablet core; c. a port extending through the semipermeable layer into the tablet core; and d. an optional immediate release coating external to the semipermeable layer comprising a second amount of deutetrabenazine microparticles.
Test station for a fan , comprising: - a duct having a longitudinal axis, the duct comprising an air inlet portion , an air outlet portion , and a middle portion between the air inlet portion and the air outlet portion ; and - a damper provided at the inlet end of the air inlet portion of the duct , the damper selectively blocking the inlet of the duct for increasing or decreasing the resistance to an air flow through said duct ; where the air outlet portion of the duct is configured for the connection of the fan to be tested, the test station further comprising: - an auxiliary fan provided at the air inlet portion of the duct downstream the damper , the auxiliary fan being controlled by a regenerative Variable Frequency Drive (VFD) whose rated power is at least 20% larger than the rated power of the auxiliary fan , such that the auxiliary fan can be operated to stop essentially instantaneously from a predetermined speed to full stop; and - a valve provided at the middle portion of the duct between the auxiliary fan and the fan to be tested, the valve being configured to alternate between an open position where a lumen of the duct is not blocked, a first partially closed position where the lumen of the duct is partially blocked, and a second partially closed position where the lumen of the duct is partially blocked further, such that the movement between the open position and the first partially closed position and the movement between the first partially closed position and the second partially closed position take place essentially instantaneously for causing a sudden decrease or increase of the pressure at the axial fan to be tested. - a duct having a longitudinal axis, the duct comprising an air inlet portion , an air outlet portion , and a middle portion between the air inlet portion and the air outlet portion ; and - a damper provided at the inlet end of the air inlet portion of the duct , the damper selectively blocking the inlet of the duct for increasing or decreasing the resistance to an air flow through said duct ; - an auxiliary fan provided at the air inlet portion of the duct downstream the damper , the auxiliary fan being controlled by a regenerative Variable Frequency Drive (VFD) whose rated power is at least 20% larger than the rated power of the auxiliary fan , such that the auxiliary fan can be operated to stop essentially instantaneously from a predetermined speed to full stop; and - a valve provided at the middle portion of the duct between the auxiliary fan and the fan to be tested, the valve being configured to alternate between an open position where a lumen of the duct is not blocked, a first partially closed position where the lumen of the duct is partially blocked, and a second partially closed position where the lumen of the duct is partially blocked further, such that the movement between the open position and the first partially closed position and the movement between the first partially closed position and the second partially closed position take place essentially instantaneously for causing a sudden decrease or increase of the pressure at the axial fan to be tested.
A bio-pressure sensor system , comprising: a first sensor configured to provide a reference pressure measurement; a second sensor configured to measure a fluid pressure associated with a bodily fluid within a human body; wherein the first and second sensors are of substantially similar material properties and characteristics, a first reference element ; and a second reference element in fluid communication with the first sensor and configured to provide a reference pressure, wherein the first and second sensors share the first reference element , and wherein the first and second sensors each comprise independent output signals (V 1 (P), V 2 (P)), characterized by the second reference element comprising a reference fluid column , providing a known positional dependent reference pressure (P col (θ)). a first sensor configured to provide a reference pressure measurement; a second sensor configured to measure a fluid pressure associated with a bodily fluid within a human body; wherein the first and second sensors are of substantially similar material properties and characteristics, a first reference element ; and a second reference element in fluid communication with the first sensor and configured to provide a reference pressure, wherein the first and second sensors share the first reference element , and wherein the first and second sensors each comprise independent output signals (V 1 (P), V 2 (P)), characterized by the second reference element comprising a reference fluid column , providing a known positional dependent reference pressure (P col (θ)).