mhurhangee/ep-ind-claims huggingface dataset:
A machine capable of moving on an inclined plane, comprising a first split body, a second split body and functional components (3, 4, 7), wherein the functional components (3, 4, 7) comprise a moving mechanism, a flexible connecting device (5, 8, 10) and operating tools, wherein the operating tools are installed on the first split body and/or the second split body, and configured to perform operations, the flexible connecting device (5, 8, 10) connects the first split body to the second split body and adjusts a distance between the first split body and the second split body, the moving mechanism is installed on the first split body and/or the second split body and configured to drive the first split body and/or the second split body to move on the inclined plane, the first split body contains a suspension mechanism, characterized in that the functional components (3, 4, 7) comprise a surface attachment device, and the surface attachment device is installed on the first split body and/or the second split body and configured to be attached to the inclined plane, and the suspension mechanism is configured to connect or disconnect to the inclined plane. the functional components (3, 4, 7) comprise a surface attachment device, and the surface attachment device is installed on the first split body and/or the second split body and configured to be attached to the inclined plane, and the suspension mechanism is configured to connect or disconnect to the inclined plane.
A process comprising: (i) providing a post-consumer recycled polypropylene (PCR-PP) having a melt flow rate (MFR I 2) equal to, or greater than, 7.0 g/10 min; (ii) adding a 4,4'-oxydibenzenesulfonyl azide (DPO-BSA) to the PCR-PP; (iii) melt blending the PCR-PP with the DPO-BSA; and (iv) forming a DPO-BSA coupled PCR-PP having a melt flow rate (MFR I 2) equal to, or less than, 5 g/10 min.; wherein the melt flow rate (MFR I 2) is measured according to ASTM D1238, at 230°C under a load of 2.16 kg. (i) providing a post-consumer recycled polypropylene (PCR-PP) having a melt flow rate (MFR I 2) equal to, or greater than, 7.0 g/10 min; (ii) adding a 4,4'-oxydibenzenesulfonyl azide (DPO-BSA) to the PCR-PP; (iii) melt blending the PCR-PP with the DPO-BSA; and (iv) forming a DPO-BSA coupled PCR-PP having a melt flow rate (MFR I 2) equal to, or less than, 5 g/10 min.;
Method for additive production of a workpiece through melting and depositing of at least one starting material in individual successive layers on a printing platform using a beam of energy, wherein the temperature of already finished layers is controlled during production, characterised in that - fluid channels, integrated into walls of the workpiece, are manufactured, said fluid channels leading into fluid inlet openings on a side wall or baseplate of the workpiece that is in contact with the printing platform, through modification of CAD data of the workpiece to be manufactured, before it is built up, such that the walls at least in certain areas and/or the baseplate have a channel system and fluid inlet openings; - wherein the fluid channels, during the additive production of the workpiece, have flowing through them a temperature-controlled heat transfer fluid, which flows in, via heat transfer fluid outlet openings introduced into the printing platform, from the printing platform, via the fluid inlet openings, into the baseplate and/or the walls of the workpiece. - fluid channels, integrated into walls of the workpiece, are manufactured, said fluid channels leading into fluid inlet openings on a side wall or baseplate of the workpiece that is in contact with the printing platform, through modification of CAD data of the workpiece to be manufactured, before it is built up, such that the walls at least in certain areas and/or the baseplate have a channel system and fluid inlet openings; - wherein the fluid channels, during the additive production of the workpiece, have flowing through them a temperature-controlled heat transfer fluid, which flows in, via heat transfer fluid outlet openings introduced into the printing platform, from the printing platform, via the fluid inlet openings, into the baseplate and/or the walls of the workpiece.
An encapsulation film for an organic electronic element, comprising: a light absorbing layer comprising a light absorbing region comprising an encapsulation resin which is a heat-curable resin or a photocurable resin and a light absorbing material, and having an L* value in a CIE LAB color space of 0 to 50, and a moisture barrier layer comprising a moisture reactive adsorbent; wherein the curable resin is a silane-modified epoxy resin; wherein the light absorbing material is comprised at 0.6 to 50 parts by weight with respect to 100 parts by weight of the encapsulation resin. a light absorbing layer comprising a light absorbing region comprising an encapsulation resin which is a heat-curable resin or a photocurable resin and a light absorbing material, and having an L* value in a CIE LAB color space of 0 to 50, and a moisture barrier layer comprising a moisture reactive adsorbent; wherein the curable resin is a silane-modified epoxy resin; wherein the light absorbing material is comprised at 0.6 to 50 parts by weight with respect to 100 parts by weight of the encapsulation resin.
An optical system, comprising: - a substrate having a micro-optical bench etched therein using a lithographic and deep etching technique; - an input optical fiber; characterized in that it further comprises: - a first optical element consisting of a micromirror having at least an aperture therein, said first optical element being metallized on at least one side and being monolithically integrated with the micro-optical bench and formed using the lithographic and deep etching technique, said first optical element being optically coupled to receive from the input fiber an incident beam having an optical axis in a plane of the substrate and to at least partially transmit the incident beam therethrough via the aperture; - a second optical element formed on an end face of said input optical fiber, said second optical element being a dielectric-coated micromirror or another micromirror having at least an aperture therein; - an optical cavity formed between said first optical element and said second optical element; - a translation device coupled to at least the first optical element causing a displacement of said first optical element with respect to the optical axis of the incident beam, the optical cavity response being determined at least in part by said displacement of the first optical element, said translation device being a Micro Electro-Mechanical Systems (MEMS) actuator. - a substrate having a micro-optical bench etched therein using a lithographic and deep etching technique; - an input optical fiber; - a first optical element consisting of a micromirror having at least an aperture therein, said first optical element being metallized on at least one side and being monolithically integrated with the micro-optical bench and formed using the lithographic and deep etching technique, said first optical element being optically coupled to receive from the input fiber an incident beam having an optical axis in a plane of the substrate and to at least partially transmit the incident beam therethrough via the aperture; - a second optical element formed on an end face of said input optical fiber, said second optical element being a dielectric-coated micromirror or another micromirror having at least an aperture therein; - an optical cavity formed between said first optical element and said second optical element; - a translation device coupled to at least the first optical element causing a displacement of said first optical element with respect to the optical axis of the incident beam, the optical cavity response being determined at least in part by said displacement of the first optical element, said translation device being a Micro Electro-Mechanical Systems (MEMS) actuator.
A method of processing data at a transmitting end in a wireless mobile communication system, the method comprising the steps of: receiving, at a Packet Data convergence protocol, PDCP, layer of the transmitting end, a first data block from an upper layer of the transmitting end; generating a second data block including the first data block at the PDCP layer of the transmitting end; discarding the first data block present in the PDCP layer if a certain period of time has passed; and characterized by indicating, from the PDCP layer of the transmitting end, a Radio Link Control, RLC, layer of the transmitting end to discard a corresponding RLC data block if the second data block has already been transferred from the PDCP layer of the transmitting end to the RLC layer of the transmitting end. receiving, at a Packet Data convergence protocol, PDCP, layer of the transmitting end, a first data block from an upper layer of the transmitting end; generating a second data block including the first data block at the PDCP layer of the transmitting end; discarding the first data block present in the PDCP layer if a certain period of time has passed; and characterized by indicating, from the PDCP layer of the transmitting end, a Radio Link Control, RLC, layer of the transmitting end to discard a corresponding RLC data block if the second data block has already been transferred from the PDCP layer of the transmitting end to the RLC layer of the transmitting end.
Method for controlling at least one washing device of at least one sensor arranged on an outer contour of a vehicle, wherein the method comprises the following method step: - detecting an executed vehicle wash of the outer contour of the vehicle, characterized in that the method comprises the following additional method step: - generating first control signals for actuating the at least one washing device of the at least one sensor, arranged on the outer contour of the vehicle, as a function of a detected executed vehicle wash. - detecting an executed vehicle wash of the outer contour of the vehicle, - generating first control signals for actuating the at least one washing device of the at least one sensor, arranged on the outer contour of the vehicle, as a function of a detected executed vehicle wash.
An adjustable child seat comprising a seat support portion adjustable between at least a first position and a second position, the seat support portion comprising a first seating surface, the adjustable child seat further comprising at least a first lamella comprising a second seating surface, wherein the first lamella is pivotally connected to the seat support portion, wherein the first lamella is adapted to be in a first position whereby the seat support portion is in a first height position, wherein the second seating surface is essentially non-parallel to the first seating surface, wherein the first lamella is adapted to be pivoted to a second position wherein the seat support portion is in a second height position, wherein the second seating surface is essentially parallel to the first seating surface, characterized in that the seat support portion is adjustable between the first position, the second position and a third position, the adjustable child seat is further comprising a second lamella comprising a third seating surface, wherein the second lamella is pivotally arranged to the first lamella, wherein the second lamella is adapted to be in a first position whereby the seat support portion is in the second position, and the third seating surface is essentially non-parallel to the first and second seating surfaces, and wherein the second lamella is adapted to be pivoted to a second position wherein the seat support portion is in a third height position, wherein the third seating surface is essentially parallel to the first and second seat surfaces.
An information transmission method, characterized by comprising: sending, by a mobile edge computing, MEC, system, a radio network capability exposure request to a radio access node at a radio access network side; and receiving, by the MEC system, radio network capability exposure response information returned by the radio access node; wherein the MEC system receives the radio network capability exposure response information returned by the radio access node through an Xm interface, wherein the Xm interface is configured to connect the radio access node and the MEC system; wherein in response to the MEC system receiving the radio network capability exposure response information returned by the radio access node, the method further comprises: receiving, by the MEC system, the radio network capability exposure response information returned by the radio access node through a radio network capability exposure network element, wherein the radio network capability exposure network element is configured to convert radio information in the received radio network capability exposure response information into an information format supported by the MEC system. sending, by a mobile edge computing, MEC, system, a radio network capability exposure request to a radio access node at a radio access network side; and receiving, by the MEC system, radio network capability exposure response information returned by the radio access node; wherein the MEC system receives the radio network capability exposure response information returned by the radio access node through an Xm interface, wherein the Xm interface is configured to connect the radio access node and the MEC system; wherein in response to the MEC system receiving the radio network capability exposure response information returned by the radio access node, the method further comprises: receiving, by the MEC system, the radio network capability exposure response information returned by the radio access node through a radio network capability exposure network element, wherein the radio network capability exposure network element is configured to convert radio information in the received radio network capability exposure response information into an information format supported by the MEC system. receiving, by the MEC system, the radio network capability exposure response information returned by the radio access node through a radio network capability exposure network element, wherein the radio network capability exposure network element is configured to convert radio information in the received radio network capability exposure response information into an information format supported by the MEC system.
A propulsor for an aircraft, comprising: a propulsive fan; an electric machine configured to drive the propulsive fan, the electric machine having a casing containing electrical and electromechanical components, a shaft which extends outside of the casing and which is connected to the propulsive fan characterised by further comprising a seal to seal the casing around the shaft and a depressurisation system configured to depressurise the casing below an external pressure to prevent electrical breakdown within gas in the casing of the electric machine. a propulsive fan; an electric machine configured to drive the propulsive fan, the electric machine having a casing containing electrical and electromechanical components, a shaft which extends outside of the casing and which is connected to the propulsive fan characterised by further comprising a seal to seal the casing around the shaft and a depressurisation system configured to depressurise the casing below an external pressure to prevent electrical breakdown within gas in the casing of the electric machine.
A refrigeration cycle apparatus in which refrigerant circulates in a first direction of circulation in an order of a first compressor, a first heat exchanger, a first expansion valve, and a second heat exchanger, the refrigeration cycle apparatus comprising: a first flow path switching unit connected between the first expansion valve and the second heat exchanger and connected between the second heat exchanger and the first compressor; and a controller configured to control the first flow path switching unit to switch a flow direction of the refrigerant flowing through the second heat exchanger between a first flow direction and a second flow direction opposite to the first flow direction, the first flow path switching unit including a first switch valve, the first switch valve having a motor controlled by the controller, a valve body rotated by the motor about a central axis extending longitudinally of the valve body, the rotational motion of the valve body being converted to a linear motion along the central axis by engagement of the valve body with a screw mechanism, and a plurality of valve ports (P41, P42, P43, P44), a communication state of which in the first switch valve being switched depending on a position of the valve body. a first flow path switching unit connected between the first expansion valve and the second heat exchanger and connected between the second heat exchanger and the first compressor; and a controller configured to control the first flow path switching unit to switch a flow direction of the refrigerant flowing through the second heat exchanger between a first flow direction and a second flow direction opposite to the first flow direction, the first flow path switching unit including a first switch valve, the first switch valve having a motor controlled by the controller, a valve body rotated by the motor about a central axis extending longitudinally of the valve body, the rotational motion of the valve body being converted to a linear motion along the central axis by engagement of the valve body with a screw mechanism, and a plurality of valve ports (P41, P42, P43, P44), a communication state of which in the first switch valve being switched depending on a position of the valve body. a motor controlled by the controller, a valve body rotated by the motor about a central axis extending longitudinally of the valve body, the rotational motion of the valve body being converted to a linear motion along the central axis by engagement of the valve body with a screw mechanism, and a plurality of valve ports (P41, P42, P43, P44), a communication state of which in the first switch valve being switched depending on a position of the valve body.
A method for detecting the presence of a target nucleic acid comprising: (a) contacting a sample with a first cleavable probe, said probe comprising, from 5' to 3', (i) a first sequence region comprising at least one non-natural nucleotide labeled with a first member of a reporter-quencher pair; (ii) a second sequence region; (iii) a sequence that is the reverse complement of the second sequence region; and (iv) a sequence comprising one or more ribonucleotide base that is complementary to a first region on a first strand of the target nucleic acid; (b) contacting the cleavable probe with an endoribonuclease, thereby cleaving probe that is hybridized with target nucleic acid to form a truncated cleavable probe; (c) allowing the truncated cleavable probe to hybridize to itself to form a hairpin probe; (d) extending the hairpin probe in the presence of a non-natural nucleotide labeled with a second member of a reporter-quencher pair that is capable of base-pairing with the at least one non-natural nucleotide of the first sequence region; and (e) detecting the target nucleic acid by detecting a change in signal from the label on the cleavable probe and the hairpin probe. (a) contacting a sample with a first cleavable probe, said probe comprising, from 5' to 3', (i) a first sequence region comprising at least one non-natural nucleotide labeled with a first member of a reporter-quencher pair; (ii) a second sequence region; (iii) a sequence that is the reverse complement of the second sequence region; and (iv) a sequence comprising one or more ribonucleotide base that is complementary to a first region on a first strand of the target nucleic acid; (b) contacting the cleavable probe with an endoribonuclease, thereby cleaving probe that is hybridized with target nucleic acid to form a truncated cleavable probe; (c) allowing the truncated cleavable probe to hybridize to itself to form a hairpin probe; (d) extending the hairpin probe in the presence of a non-natural nucleotide labeled with a second member of a reporter-quencher pair that is capable of base-pairing with the at least one non-natural nucleotide of the first sequence region; and (e) detecting the target nucleic acid by detecting a change in signal from the label on the cleavable probe and the hairpin probe.
A yarn winding machine comprising: a bobbin holding section adapted to rotatably hold a bobbin, a yarn information detecting section adapted to detect continuation or discontinuation of a spun yarn to be wound into the bobbin, a package driving section adapted to rotate the bobbin or a package formed on the bobbin, a control section adapted to control the package driving section in accordance with a detection signal from the yarn information detecting section, a catching section adapted to catch the yarn end of the spun yarn, wherein when the yarn information detecting section detects discontinuation of the spun yarn, the control section is adapted to control the package driving section to stop rotation of the package to stop a yarn end of the package at a prescribed position in proximity of the catching section, a rotational amount detecting section adapted to detect a rotational amount of the package, and a wound amount detecting section adapted to detect a wound amount of the package, wherein the control section is adapted to control the package driving section in accordance with the rotational amount and the wound amount of the package. a bobbin holding section adapted to rotatably hold a bobbin, a yarn information detecting section adapted to detect continuation or discontinuation of a spun yarn to be wound into the bobbin, a package driving section adapted to rotate the bobbin or a package formed on the bobbin, a control section adapted to control the package driving section in accordance with a detection signal from the yarn information detecting section, a catching section adapted to catch the yarn end of the spun yarn, wherein when the yarn information detecting section detects discontinuation of the spun yarn, the control section is adapted to control the package driving section to stop rotation of the package to stop a yarn end of the package at a prescribed position in proximity of the catching section, a rotational amount detecting section adapted to detect a rotational amount of the package, and a wound amount detecting section adapted to detect a wound amount of the package, wherein the control section is adapted to control the package driving section in accordance with the rotational amount and the wound amount of the package.
Braking apparatus system for a test pendulum arrangement for carrying out crash test dummy certifications, having a braking apparatus for decelerating a moving pendulum, on which a head-neck assembly of a crash test dummy can be arranged, in a lower braking area, characterized in that the braking apparatus has a plunger which can be axially actuated by means of a motor arrangement and is designed to come to rest with the pendulum in the defined lower braking area and to decelerate the pendulum by means of a braking force exerted using the plunger.