mhurhangee/ep-ind-claims huggingface dataset:
A vehicle-mounted control device comprises a control microcomputer verification device that is allowed to operate in parallel with a microcomputer, and verifies a function that is to be Implemented by the microcomputer when the control software is sequentially executed, the control microcomputer verification device comprising: timing-sequence assertion means for storing an internal state that is predefined in accordance with the function to be implemented by the microcomputer and input information indicating a condition for transition from one internal state of the microcomputer to another, characterized in that the control microcomputer verification device is installed as independent hardware separately from the microcomputer that sequentially executes control software, and the timing-sequence assertion means operates in parallel in real time according to an operation of the microcomputer, estimates the internal state of the microcomputer, and detects whether the internal state has deviated from the transition condition, wherein an event which occurs in a peripheral device is conveyed to an interrupt controller of the microcomputer as an interrupt factor and the interrupt factor is branched before the interrupt controller and is acquired as the transition condition for the verification device, and when a deviation from the transition condition is detected, an output process for the warning issuance is performed to output a warning signal to the outside by using a hardware output of the timing-sequence assertion means or to output an interrupt signal to the microcomputer to have the microcomputer recognize the abnormality detection.
Manipulator (100; 200, 200') for generating a translational movement from a rotational movement, comprising a first component (130; 260) having a first guide formed therein which extends along a trajectory corresponding essentially to a curve bent toward a rotational axis of the first component, said curve extending obliquely in relation to a plane perpendicular to the rotational axis and obliquely in relation to any planes containing the rotational axis; a second component (120; 250) comprising at least three first hinge interfaces (142b, 144b, 146b, 148b; 213, 217, 219) within a first hinge plane; a third component (110; 210) comprising at least three second hinge interfaces (122b, 124b, 126b, 128b; 212, 214, 216, 218) within a second hinge plane, the at least three first hinge interfaces and the at least three second hinge interfaces being arranged in a mutually congruent manner, and the first and second hinge planes being mutually parallel; and at least three deflection levers (112, 114, 116, 118; 222, 224, 226, 228) which are connected, respectively, in an articulated manner to a respective one of the at least three first hinge interfaces (142b, 144b, 146b, 148b) via a third hinge interface (142a, 144a, 146a, 148a), and are connected, respectively, in an articulated manner to a respective one of the at least three second hinge interfaces (122b, 124b, 126b, 128b) via a fourth hinge interface (122a, 124a, 126a, 128a), a first one of the deflection levers comprising a first guide follower portion mounted within the first guide; the manipulator being configured such that the first component and the second component are twistable about the rotational axis against each other because of the rotational movement, whereby the third component is translationally moved by being guided by the first guide follower portion within the first guide.
A method of continuously producing a quaternary amine product comprising the steps of: continuously feeding reactants into a continuously stirred tank reactor (CSTR), the reactants comprising a tertiary amine substrate, water, and an alkylating agent; maintaining conditions in the CSTR such that two substantially distinct liquid phases form, a first phase and a second phase, the second phase being denser than the first phase, the second phase comprising more than 80% QAP and less than 20% water, the first phase present at greater than 5 wt.% of the reaction mixture, and comprising TAS and alkylating agent; not allowing the water content of the CSTR to exceed 16% of the reactants continuously added to the CSTR; and continuously removing, only second phase liquid from the CSTR. continuously feeding reactants into a continuously stirred tank reactor (CSTR), the reactants comprising a tertiary amine substrate, water, and an alkylating agent; maintaining conditions in the CSTR such that two substantially distinct liquid phases form, a first phase and a second phase, the second phase being denser than the first phase, the second phase comprising more than 80% QAP and less than 20% water, the first phase present at greater than 5 wt.% of the reaction mixture, and comprising TAS and alkylating agent; not allowing the water content of the CSTR to exceed 16% of the reactants continuously added to the CSTR; and continuously removing, only second phase liquid from the CSTR.
A pneumatic snow tire (20, 30) comprising: a block that is provided at a tread, and that is demarcated by mutually intersecting main grooves (22, 24) respectively extending around a tire circumferential direction and along a tire width direction; a first step portion that extends along a side wall portion at one tire circumferential direction side of the block, and that has a height (H1, H11, H12) from a groove bottom of the main groove, where the one side wall portion is present, which is lower than a tread face and higher than the groove bottom; and a second step portion that extends along a side wall portion at another tire circumferential direction side of the block, that has a height (H21, H22) from a groove bottom of the main groove, where the other side wall portion is present, which is lower than the tread face and higher than the groove bottom, and that has a smaller width (W21, W22) than the first step portion, wherein: an acute angle portion is provided at a position on the second step portion side of the block where an acute angle of intersection is formed between the main grooves (22, 24); and the width of the second step portion (W21, W22) is such that one end positioned on the acute angle portion side is smaller than another end positioned on an opposite side from the acute angle portion side. a block that is provided at a tread, and that is demarcated by mutually intersecting main grooves (22, 24) respectively extending around a tire circumferential direction and along a tire width direction; a first step portion that extends along a side wall portion at one tire circumferential direction side of the block, and that has a height (H1, H11, H12) from a groove bottom of the main groove, where the one side wall portion is present, which is lower than a tread face and higher than the groove bottom; and a second step portion that extends along a side wall portion at another tire circumferential direction side of the block, that has a height (H21, H22) from a groove bottom of the main groove, where the other side wall portion is present, which is lower than the tread face and higher than the groove bottom, and that has a smaller width (W21, W22) than the first step portion, wherein: an acute angle portion is provided at a position on the second step portion side of the block where an acute angle of intersection is formed between the main grooves (22, 24); and the width of the second step portion (W21, W22) is such that one end positioned on the acute angle portion side is smaller than another end positioned on an opposite side from the acute angle portion side. an acute angle portion is provided at a position on the second step portion side of the block where an acute angle of intersection is formed between the main grooves (22, 24); and the width of the second step portion (W21, W22) is such that one end positioned on the acute angle portion side is smaller than another end positioned on an opposite side from the acute angle portion side.
Heatable media line having a tubular media line, at least one heating element (4, 5), which is wound around the tubular media line in an external arrangement, and at least one fixing means for fixing the position of the at least one heating element (4, 5) on the outside of the tubular media line, wherein at least one high-temperature-resistant film element consisting of polymer material, which can be exposed to temperatures of 150°C or more without being damaged, is provided on the outside of the tubular media line over and/or under the at least one heating element (4, 5) wound around the tubular media line, in order to prevent adhesive fixing agent of the fixing means from sticking to the outside of the tubular media line and/or to the outside of the at least one heating element (4, 5).
A process for the production of diesel fuel comprising the steps of: a) producing a syngas feed from natural gas and/or natural gas liquids and/or carbon dioxide using a partial oxidation system; b) performing a syngas cleanup and conditioning process on the syngas feed to provide a cleaned up syngas feed; c) reducing a supported catalyst in-situ in a fixed bed reactor, wherein the supported catalyst has an effective pellet radius of 600 microns or less, an average pore diameter greater than about 80 angstroms, a crush strength of greater than 1.36 kg/mm (3 lbs/mm), a BET surface area of greater than 150 m 2 /g and a dispersion value of 4%; d) reacting the cleaned up syngas feed that contains hydrogen and carbon monoxide with the supported catalyst to produce a product gas stream, wherein the product gas stream comprises F-T liquids, light gases and a wax, e) condensing out the product gas stream into a product mixture comprising diesel, water and wax in a single knock out vessel wherein the wax stays entrained in the water fraction for ease of separation from the diesel fuel fraction; f) recycling the wax fraction back to the partial oxidation system in addition to the natural gas and/or natural gas liquids and/or carbon dioxide primary feedstocks to produce the syngas feed; wherein the diesel fuel fraction is produced without requiring the hydro processing of wax. a) producing a syngas feed from natural gas and/or natural gas liquids and/or carbon dioxide using a partial oxidation system; b) performing a syngas cleanup and conditioning process on the syngas feed to provide a cleaned up syngas feed; c) reducing a supported catalyst in-situ in a fixed bed reactor, wherein the supported catalyst has an effective pellet radius of 600 microns or less, an average pore diameter greater than about 80 angstroms, a crush strength of greater than 1.36 kg/mm (3 lbs/mm), a BET surface area of greater than 150 m 2 /g and a dispersion value of 4%; d) reacting the cleaned up syngas feed that contains hydrogen and carbon monoxide with the supported catalyst to produce a product gas stream, wherein the product gas stream comprises F-T liquids, light gases and a wax, e) condensing out the product gas stream into a product mixture comprising diesel, water and wax in a single knock out vessel wherein the wax stays entrained in the water fraction for ease of separation from the diesel fuel fraction; f) recycling the wax fraction back to the partial oxidation system in addition to the natural gas and/or natural gas liquids and/or carbon dioxide primary feedstocks to produce the syngas feed;
A computer system for measuring real time position of a plurality of animals, which system based of real time position of the animals determine activity of the animals, which system receives input from a plurality of sensors, which sensors communicates at least with radio receiver/transmitter tags carried by the animals, which system based of measurement of delay in radio communication between the radio receiver/transmitter tags and the sensors calculates the actual position of the animals, which system comprises a Central Processing Unit, which CPU comprises at least two cores (32,34), which system divides the data processing in a first real time position processing in the first core of the processor, and into a second processing of the activity of the animals performed in the second core of the processor, characterized in that the sensors further perform communication with a plurality of reference radio receiver/transmitter tags, which system based of measurement of the position for the reference radio receiver/transmitter tags performs a calibration of the real time position measured by the system.
A method of bonding an electrode (ELEC) of a piezoelectric ultrasonic transducer to an electrically conductive layer of a support substrate to support the piezoelectric ultrasonic transducer and establish an electrical connection between the electrode (ELEC) and the electrically conductive layer; the method comprising: roughening the surface of at least the electrode (ELEC); applying an adhesive to one or both of the electrode (ELEC) and the electrically conductive layer; assembling the electrode (ELEC) and the electrically conductive layer; and curing the adhesive the method being characterized in that: said roughening the surface of said electrode (ELEC) is performed as post-processing on said electrode (ELEC) after manufacturing of said piezoelectric ultrasonic transducer with said electrode (ELEC). roughening the surface of at least the electrode (ELEC); applying an adhesive to one or both of the electrode (ELEC) and the electrically conductive layer; assembling the electrode (ELEC) and the electrically conductive layer; and curing the adhesive the method being characterized in that: said roughening the surface of said electrode (ELEC) is performed as post-processing on said electrode (ELEC) after manufacturing of said piezoelectric ultrasonic transducer with said electrode (ELEC).
A wireless transmit/receive unit, WTRU, the WTRU comprising: a primary connectivity radio, PCR; a wakeup radio, WUR; and a processor, wherein the PCR is configured to send, to an access point, AP, a first WUR frame including at least WUR channel information and WUR data rate information; the PCR is configured to receive, from the AP, in response to the first WUR frame, a second WUR frame including at least a first WUR channel assignment; and the WUR is configured to turn on and monitor a wireless medium for WUR signals, from the AP, on a first WUR channel according to the first WUR channel assignment, wherein the first WUR channel is one of a plurality of WUR channels. a primary connectivity radio, PCR; a wakeup radio, WUR; and a processor, wherein the PCR is configured to send, to an access point, AP, a first WUR frame including at least WUR channel information and WUR data rate information; the PCR is configured to receive, from the AP, in response to the first WUR frame, a second WUR frame including at least a first WUR channel assignment; and the WUR is configured to turn on and monitor a wireless medium for WUR signals, from the AP, on a first WUR channel according to the first WUR channel assignment, wherein the first WUR channel is one of a plurality of WUR channels.
A method carried out by a computer for transitioning gameplay, comprising: receiving a signal to interrupt gameplay of a video game; in response to receiving the signal, transitioning the gameplay from an active state to a paused state; wherein transitioning the gameplay includes progressively reducing an intensity of a gameplay aspect before entering the paused state; wherein the gameplay is presented on a head-mounted display; wherein the intensity of the gameplay aspect is defined by a complexity of graphics presented on the head-mounted display; wherein progressively reducing the intensity of the gameplay aspect includes progressively simplifying the graphics presented on the head-mounted display; and wherein the intensity of the gameplay aspect is progressively reduced according to a rate, defined by a user profile, at which the intensity of gameplay may be reduced. receiving a signal to interrupt gameplay of a video game; in response to receiving the signal, transitioning the gameplay from an active state to a paused state; wherein transitioning the gameplay includes progressively reducing an intensity of a gameplay aspect before entering the paused state; wherein the gameplay is presented on a head-mounted display; wherein the intensity of the gameplay aspect is defined by a complexity of graphics presented on the head-mounted display; wherein progressively reducing the intensity of the gameplay aspect includes progressively simplifying the graphics presented on the head-mounted display; and wherein the intensity of the gameplay aspect is progressively reduced according to a rate, defined by a user profile, at which the intensity of gameplay may be reduced.
Water-bound object comprising a boom (2, 28) that is movable via at least one actuator (14, 58) and comprising a control system (1, 46) for the boom (2, 28), the free end (20, 30) of which boom is equipped with at least one sensor, the sensor being an ultrasonic sensor (18, 32) via which the distance to a landing point (6, 36) of an object can be determined, characterized in that a display device (24, 44, 52) is provided which is designed to display the distance, the control system (1, 46) having at least one operating element (12, 56) for control of the boom (2, 28) by an operator, the control system (1, 46) having a controller (26, 42) which is configured to limit an adjustment speed with which the operator can move the boom (2, 28) depending on the distance from the free end (20, 30) of the boom (2, 28) to the landing point (6, 36).
A heat engine with external hot source in which the engine has at least one variable volume working chamber for a working gas, and a distribution mechanism (29, 31) that connects this chamber to a cold inlet of a heat receiving path during an outgoing transfer phase and to a hot outlet of the energy receiving path during an incoming transfer phase, the heat receiving path being intended to heat the working gas outside the chamber on contact with the external hot source, wherein the distribution mechanism is timed in such a way as to: - maintain pressure in the heat receiving path; characterized in that the distribution is timed in such a way as to: - during stable operation, connect the working chamber with the cold inlet of the heat receiving path whilst the pressure in the chamber is lower than the pressure in the heat receiving path. - maintain pressure in the heat receiving path; characterized in that the distribution is timed in such a way as to: - during stable operation, connect the working chamber with the cold inlet of the heat receiving path whilst the pressure in the chamber is lower than the pressure in the heat receiving path.
A method for forming polymeric compositions containing ambient-temperature stable biopharmaceuticals, the method comprising in any order: (i) producing an amount of ambient-temperature stable biopharmaceuticals micronized for transdermal or mucosal delivery; (ii) dissolving hydroxypropyl cellulose and triacetin in acetone to form a polymer solution; (iii) introducing said ambient-temperature stable biopharmaceuticals micronized for transdermal or mucosal delivery into said polymer solution; and (iv) evaporating the acetone from said polymer solution containing ambient-temperature stable biopharmaceuticals. (i) producing an amount of ambient-temperature stable biopharmaceuticals micronized for transdermal or mucosal delivery; (ii) dissolving hydroxypropyl cellulose and triacetin in acetone to form a polymer solution; (iii) introducing said ambient-temperature stable biopharmaceuticals micronized for transdermal or mucosal delivery into said polymer solution; and (iv) evaporating the acetone from said polymer solution containing ambient-temperature stable biopharmaceuticals.
A quantum dot light emitting device comprising: a substrate; a first electrode disposed on the substrate; a second electrode disposed substantially opposite to the first electrode; a first charge transport layer comprising a hole transport layer, disposed between the first electrode and the second electrode; a quantum dot light emitting layer disposed between the hole transport layer and one of the first electrode and the second electrode; and characterised by at least one quantum dot including layer disposed between the quantum dot light emitting layer and the first charge transport layer, wherein the energy level of the valence band of the quantum dot including layer is between the energy level of the valence band of the quantum dot light emitting layer and the highest occupied molecular energy band level of the hole transport layer. a substrate; a first electrode disposed on the substrate; a second electrode disposed substantially opposite to the first electrode; a first charge transport layer comprising a hole transport layer, disposed between the first electrode and the second electrode; a quantum dot light emitting layer disposed between the hole transport layer and one of the first electrode and the second electrode; and characterised by at least one quantum dot including layer disposed between the quantum dot light emitting layer and the first charge transport layer, wherein the energy level of the valence band of the quantum dot including layer is between the energy level of the valence band of the quantum dot light emitting layer and the highest occupied molecular energy band level of the hole transport layer.
Device for wing tip, wind turbine blade tip or hydraulic turbine blade tip allowing for the reduction or even the cancelling out of marginal swirls called vortex, the said device being capable of being fixed to the tip of the said wing or blade at the interface and the said device including a hollow cylindrical tube having one or several helical slots made in the said hollow cylindrical tube to allow for the total evacuation of residual fluid to the outside, characterized in that the said device furthermore has a curve of its leading edge which guarantees the Coanda effect and which ends at a point situated approximately in the middle of the said device and coinciding with an ovoid entrance of the said hollow cylindrical tube.
A powder container, removably attachable to an image forming apparatus, the powder container comprising: a container opening in a first end; a conveyor, arranged inside the powder container, to convey the powder from a second end of the powder container to the first end along a longitudinal direction of the powder container; and a nozzle receiver including a nozzle receiving opening to receive a powder conveying nozzle of the image forming apparatus, wherein the nozzle receiver includes a shutter to open and close the nozzle receiving opening; a supporting portion to support the shutter so as to move; a supporting portion opening, arranged adjacent to the supporting portion, to communicate with a powder receiving opening of the powder conveying nozzle inserted in the nozzle receiver, characterized in that the supporting portion is rotatable and is configured to, when the supporting portion rotates, cross the powder receiving opening. a container opening in a first end; a conveyor, arranged inside the powder container, to convey the powder from a second end of the powder container to the first end along a longitudinal direction of the powder container; and a nozzle receiver including a nozzle receiving opening to receive a powder conveying nozzle of the image forming apparatus, wherein the nozzle receiver includes a shutter to open and close the nozzle receiving opening; a supporting portion to support the shutter so as to move; a supporting portion opening, arranged adjacent to the supporting portion, to communicate with a powder receiving opening of the powder conveying nozzle inserted in the nozzle receiver, characterized in that the supporting portion is rotatable and is configured to, when the supporting portion rotates, cross the powder receiving opening.