mhurhangee/ep-ind-claims huggingface dataset:
A refrigerant cycle apparatus comprising: at least a compressor, a radiator, decompression means capable of changing an open degree, a heat absorber, an internal heat exchanger that performs heat exchange between a refrigerant at an outlet of the radiator and the refrigerant at an outlet of the heat absorber, wherein first temperature detection means for detecting a refrigerant temperature between an outlet of the compressor and an inlet of the radiator and second temperature detection means for detecting the refrigerant temperature between an outlet of the radiator and a high-pressure side inlet of the internal heat exchanger are provided, characterized in that sixth temperature detection means for detecting the refrigerant temperature between a low-pressure side outlet of the internal heat exchanger and an inlet of the compressor is provided, superheat degree of a compressor suction part is calculated from a refrigerant saturation temperature at a detection point of the sixth temperature detection means and a detection temperature by the sixth temperature detection means, and the opening degree of the decompression means is controlled such that the superheat degree becomes the target value, and when the superheat degree becomes the target value, an opening degree of the decompression means is controlled such that a temperature difference (ΔT) between a detection temperature by the first temperature detection means and the detection temperature by the second temperature detection means becomes a target value. at least a compressor, a radiator, decompression means capable of changing an open degree, a heat absorber, an internal heat exchanger that performs heat exchange between a refrigerant at an outlet of the radiator and the refrigerant at an outlet of the heat absorber, wherein first temperature detection means for detecting a refrigerant temperature between an outlet of the compressor and an inlet of the radiator and second temperature detection means for detecting the refrigerant temperature between an outlet of the radiator and a high-pressure side inlet of the internal heat exchanger are provided, characterized in that sixth temperature detection means for detecting the refrigerant temperature between a low-pressure side outlet of the internal heat exchanger and an inlet of the compressor is provided, superheat degree of a compressor suction part is calculated from a refrigerant saturation temperature at a detection point of the sixth temperature detection means and a detection temperature by the sixth temperature detection means, and the opening degree of the decompression means is controlled such that the superheat degree becomes the target value, and when the superheat degree becomes the target value, an opening degree of the decompression means is controlled such that a temperature difference (ΔT) between a detection temperature by the first temperature detection means and the detection temperature by the second temperature detection means becomes a target value.
A light emitting apparatus comprising: a cover comprising a first cover and a second cover coupled to the first cover, wherein the cover is formed in tube shape and the second cover is transmissive; a light emitting module comprising a plurality of light emitting diodes in the cover, the light emitting module comprises a circuit board and the light emitting diodes arrayed in at least one line under the circuit board; a plurality of radiation pads disposed on an upper surface of the circuit board; and a plurality of cap parts comprising electrode terminals coupled at both ends of the cover, wherein the first cover is a heat sink cover comprising a plurality of heat sink pins on at least one of inner and outer circumference thereof, the radiation pads have respective upper portions that are in contact with an inner circumference of the first cover, the upper portions of the radiation pads are parallel with respect to each other and the first cover comprises supports, and each support protruding inward in a lateral edge of the first cover for supporting the light emitting module. a cover comprising a first cover and a second cover coupled to the first cover, wherein the cover is formed in tube shape and the second cover is transmissive; a light emitting module comprising a plurality of light emitting diodes in the cover, the light emitting module comprises a circuit board and the light emitting diodes arrayed in at least one line under the circuit board; a plurality of radiation pads disposed on an upper surface of the circuit board; and a plurality of cap parts comprising electrode terminals coupled at both ends of the cover, wherein the first cover is a heat sink cover comprising a plurality of heat sink pins on at least one of inner and outer circumference thereof, the radiation pads have respective upper portions that are in contact with an inner circumference of the first cover, the upper portions of the radiation pads are parallel with respect to each other and the first cover comprises supports, and each support protruding inward in a lateral edge of the first cover for supporting the light emitting module.
A method of performing a network scan to establish a WWAN connection, comprising: requesting transmission by a WLAN transceiver be disabled during WWAN scan interval; permitting transmission by both a WPAN transceiver and a WWAN transceiver during the WWAN scan interval; and characterized by: selectively adjusting a beginning of a time slot allocated to the WPAN transceiver in the WWAN scan interval based on preambles of frames from the WWAN transceiver. requesting transmission by a WLAN transceiver be disabled during WWAN scan interval; permitting transmission by both a WPAN transceiver and a WWAN transceiver during the WWAN scan interval; and characterized by: selectively adjusting a beginning of a time slot allocated to the WPAN transceiver in the WWAN scan interval based on preambles of frames from the WWAN transceiver.
A process to synthesize (3,4-Dichloro-phenyl)-( -3-propyl-pyrrolidin-3-yl)-methanone hydrochloride of formula I or a hydrate thereof, comprising reaction of a compound of formula IV with a compound of formula VI, with R 1 = H or C 1-4 -alkyl, to yield a compound of formula VIII, and a) resolving the compound of formula VIII into its enantiomers followed by the deprotection of a compound of formula IX-1 to a compound of formula I, or b) deprotecting the compound of formula VIII to a compound of formula X followed by a chiral resolution to obtain a compound of formula I a) resolving the compound of formula VIII into its enantiomers followed by the deprotection of a compound of formula IX-1 to a compound of formula I, or b) deprotecting the compound of formula VIII to a compound of formula X followed by a chiral resolution to obtain a compound of formula I
A layered semiconductor structure with a width in a lateral direction, having an operating area covering part of the width of the semiconductor structure, the semiconductor structure comprising: a semiconductor substrate with majority charge carriers of a first polarity; and a first dielectric layer with inducing net charge of the first polarity on the semiconductor substrate; an induced junction being induced in the semiconductor substrate by an electric field generated in the semiconductor substrate by the inducing net charge; the semiconductor structure being configured to confine the electric field generated in the semiconductor substrate in the operating area, characterised in that the first dielectric layer extends outside the operating area, and the semiconductor structure further comprises, outside the operating area, a second dielectric layer with compensating net charge of a second polarity opposite to the first polarity, the compensating net charge at least partially compensating the electric field generated in the semiconductor substrate by the inducing net charge. a semiconductor substrate with majority charge carriers of a first polarity; and a first dielectric layer with inducing net charge of the first polarity on the semiconductor substrate;
An automated driving system, comprising: an automation control module for controlling one or more driving functions of a vehicle; a safety control module for determining one or more operating conditions relevant to the safety performance of the vehicle, characterised in that the automation control module is configured to automatically change the speed of the vehicle to a reduced speed based on the one or more operating conditions determined by the safety control module, wherein the one or more operating conditions comprise a processor overheating scenario, wherein the processor overheating scenario leads to the automation control module exceeding an operating temperature threshold, thereby allowing the automated driving system to reduce the vehicle's speed to avoid overheating. an automation control module for controlling one or more driving functions of a vehicle; a safety control module for determining one or more operating conditions relevant to the safety performance of the vehicle, characterised in that the automation control module is configured to automatically change the speed of the vehicle to a reduced speed based on the one or more operating conditions determined by the safety control module, wherein the one or more operating conditions comprise a processor overheating scenario, wherein the processor overheating scenario leads to the automation control module exceeding an operating temperature threshold, thereby allowing the automated driving system to reduce the vehicle's speed to avoid overheating.
An apparatus for indirect vapor deposition of a sublimated source material as a thin film on a photovoltaic module substrate, said apparatus comprising: a deposition head configured for sublimating a source material supplied thereto; a transfer device disposed below said deposition head onto which the sublimated source material plates; a substrate conveyor configured to convey substrates in a conveyance path through said apparatus; said transfer device movable to a position opposite to an upper surface of the substrates; and a heat source configured adjacent to said transfer device; wherein source material initially plated onto said transfer device is sublimated and transferred to the upper surface of substrates conveyed by said substrate conveyor, and wherein said transfer device comprises a transport conveyor disposed below said deposition head and movable in an endless loop between an upper leg and a lower leg, said transport conveyor comprising an upper surface onto which the sublimated source material plates as said transport conveyor moves in said upper leg, said substrate conveyor disposed below said lower leg, and said heat source configured adjacent said lower leg. a deposition head configured for sublimating a source material supplied thereto; a transfer device disposed below said deposition head onto which the sublimated source material plates; a substrate conveyor configured to convey substrates in a conveyance path through said apparatus; said transfer device movable to a position opposite to an upper surface of the substrates; and a heat source configured adjacent to said transfer device; wherein source material initially plated onto said transfer device is sublimated and transferred to the upper surface of substrates conveyed by said substrate conveyor, and wherein said transfer device comprises a transport conveyor disposed below said deposition head and movable in an endless loop between an upper leg and a lower leg, said transport conveyor comprising an upper surface onto which the sublimated source material plates as said transport conveyor moves in said upper leg, said substrate conveyor disposed below said lower leg, and said heat source configured adjacent said lower leg.
An expandable threaded connection between first and second tubular members (44, 26) comprising: an inner seal portion formed by an inner seal pin portion of a pin member sealingly engaged with an inner seal box portion of a box member; a threaded portion formed by a threaded pin portion of the pin member engaged with a threaded box portion of the box member; an outer seal portion formed by an outer seal pin portion of the pin member sealingly engaged with an outer seal box portion of the box member;wherein an inner diameter of the inner seal pin portion is greater than an inner diameter of the outer seal pin portion; and wherein an outer diameter of the inner seal box portion is greater than an outer diameter of the outer seal box portion. an inner seal portion formed by an inner seal pin portion of a pin member sealingly engaged with an inner seal box portion of a box member; a threaded portion formed by a threaded pin portion of the pin member engaged with a threaded box portion of the box member; an outer seal portion formed by an outer seal pin portion of the pin member sealingly engaged with an outer seal box portion of the box member;wherein an inner diameter of the inner seal pin portion is greater than an inner diameter of the outer seal pin portion; and wherein an outer diameter of the inner seal box portion is greater than an outer diameter of the outer seal box portion.
A nose cone assembly for a gas turbine engine comprising: a nose cone having a discharge member communicating the air out of the nose cone; and a plurality of heat exchangers disposed forward of the discharge member in an interior space of the nose cone; the nose cone assembly is characterised by a plurality of apertures communicating air to the interior space of the nose cone, wherein the plurality of apertures are disposed adjacent the plurality of heat exchangers; and in that the discharge member discharges the air at a discharge location forward of a fan of the gas turbine engine when the nose cone assembly is mounted to the gas turbine engine. a nose cone having a discharge member communicating the air out of the nose cone; and a plurality of heat exchangers disposed forward of the discharge member in an interior space of the nose cone; the nose cone assembly is characterised by a plurality of apertures communicating air to the interior space of the nose cone, wherein the plurality of apertures are disposed adjacent the plurality of heat exchangers; and in that the discharge member discharges the air at a discharge location forward of a fan of the gas turbine engine when the nose cone assembly is mounted to the gas turbine engine.
A preparation method of a light-emitting device comprising: forming a composite transition layer between a cathode and a quantum dot light-emitting layer, the composite transition layer including: a first transition layer arranged on one side close to the cathode, the first transition layer including a metal halide, a second transition layer arranged on a surface of the first transition layer away from the cathode and including a hydrogen halide, and a third transition layer arranged on a surface of the second transition layer away from the first transition layer and including an ester compound; and forming an anode on a surface of the quantum dot light-emitting layer away from the cathode. forming a composite transition layer between a cathode and a quantum dot light-emitting layer, the composite transition layer including: a first transition layer arranged on one side close to the cathode, the first transition layer including a metal halide, a second transition layer arranged on a surface of the first transition layer away from the cathode and including a hydrogen halide, and a third transition layer arranged on a surface of the second transition layer away from the first transition layer and including an ester compound; and forming an anode on a surface of the quantum dot light-emitting layer away from the cathode.
A method comprising: receiving a dot product instruction, the dot product instruction indicating a first source packed data (210, 411) including at least four data elements of a fixed size, indicating a second source packed (211,411) data including at least sixteen data elements of a variable size of either only 2-bits or only 4-bits, wherein the dot product instruction has a field to specify the size of the data elements of the second source packed data, wherein the size of the data elements of the second source packed data are no more than one quarter a size of the data elements of the first source packed data, and indicating a destination storage location; and storing a result packed data (212, 412, 512A/B, 712) in the destination storage location in response to the dot product instruction, the result packed data including at least four data elements (R0, R1, R2, R3) that each include either a dot product result or a saturation value if the dot product result exceeds a maximum value that can be stored in the associated data elements available number of bits, each of the dot product results including a sum of products of the at least four data elements of the first source packed data with corresponding data elements in a different non-overlapping subset of at least four data elements of the second source packed data. receiving a dot product instruction, the dot product instruction indicating a first source packed data (210, 411) including at least four data elements of a fixed size, indicating a second source packed (211,411) data including at least sixteen data elements of a variable size of either only 2-bits or only 4-bits, wherein the dot product instruction has a field to specify the size of the data elements of the second source packed data, wherein the size of the data elements of the second source packed data are no more than one quarter a size of the data elements of the first source packed data, and indicating a destination storage location; and storing a result packed data (212, 412, 512A/B, 712) in the destination storage location in response to the dot product instruction, the result packed data including at least four data elements (R0, R1, R2, R3) that each include either a dot product result or a saturation value if the dot product result exceeds a maximum value that can be stored in the associated data elements available number of bits, each of the dot product results including a sum of products of the at least four data elements of the first source packed data with corresponding data elements in a different non-overlapping subset of at least four data elements of the second source packed data.
Method for determining the tilting moment towards the front about the front axle of an industrial truck having a lifting frame, which can be tilted, for raising a load, wherein the lifting frame is rotatably mounted at lifting frame mounting points and is guided with variable spacing in relation to a vehicle body at tilt supporting points, wherein a resulting torque of the forces is determined about a tilting line as the rotation axis of the front axle, comprising the steps of: - determining a vehicle weight torque from the lever arm (I St) of a vehicle centre of gravity of the vehicle body without lifting frame and without load and also from the weight force (F St,z) of the vehicle centre of gravity, - determining a tilt supporting torque from holding forces (F zyl) at the tilt supporting points, from the direction of the holding forces (F zyl) and from the lever arm (I zyl) of the front axle perpendicular to these holding forces (F zyl), - determining a lifting frame mounting torque from an active lever arm (I A) of the lifting frame mounting points in relation to the front axle and from the supporting force which is introduced at the lifting frame mounting points. - determining a vehicle weight torque from the lever arm (I St) of a vehicle centre of gravity of the vehicle body without lifting frame and without load and also from the weight force (F St,z) of the vehicle centre of gravity, - determining a tilt supporting torque from holding forces (F zyl) at the tilt supporting points, from the direction of the holding forces (F zyl) and from the lever arm (I zyl) of the front axle perpendicular to these holding forces (F zyl), - determining a lifting frame mounting torque from an active lever arm (I A) of the lifting frame mounting points in relation to the front axle and from the supporting force which is introduced at the lifting frame mounting points.
A method of encoding a pixel of an input video sequence the method comprising: encoding a second color component value and a third color component value comprising chroma values in a representation of the pixel in a first color space; obtaining a first color component value comprising a representation of luminance of the pixel in a second color space, wherein the second color space is different from the first color space; determining a first color component value comprising a luma value in a representation of the pixel in the first color space based on reducing an error computed based on a difference between the first color component value in the second color space and a test color component value in the second color space, wherein the test color component value represents a test luminance value of the pixel in the second color space derived based on a test color component value obtained for the pixel in the first color space and color component values obtained for the pixel by decoding the encoded second color component value and the encoded third color component value for the pixel; and encoding the first color component value of the pixel in the first color space. encoding a second color component value and a third color component value comprising chroma values in a representation of the pixel in a first color space; obtaining a first color component value comprising a representation of luminance of the pixel in a second color space, wherein the second color space is different from the first color space; determining a first color component value comprising a luma value in a representation of the pixel in the first color space based on reducing an error computed based on a difference between the first color component value in the second color space and a test color component value in the second color space, wherein the test color component value represents a test luminance value of the pixel in the second color space derived based on a test color component value obtained for the pixel in the first color space and color component values obtained for the pixel by decoding the encoded second color component value and the encoded third color component value for the pixel; and encoding the first color component value of the pixel in the first color space.
An ostomy appliance for attachment to the stoma body comprising an adhesive wafer and a collecting pouch attachable to the adhesive wafer, the wafer comprises a backing layer and a skin-facing adhesive layer, wherein the adhesive skin-facing surface of the wafer is provided with a release liner covering the skin-facing surface of the adhesive layer, the release liner comprising at least a first part and a second part, wherein both the first and the second part of the release liner is in contact with the adhesive characterised in that the first and the second part are interconnected inseparably along a predefined folding line.