mhurhangee/ep-ind-claims huggingface dataset:
Method for operating a motor vehicle travelling driverlessly within a parking space, comprising the following steps: - determining, for a prescribed target trajectory to be taken by the motor vehicle within the parking space, up to which location on the target trajectory there is the possibility of safe driverless travel by the motor vehicle, and - the motor vehicle travelling driverlessly to the determined location on the basis of the prescribed target trajectory, - wherein safe driverless travel by the motor vehicle denotes driverless travel during which an accident will occur only with a predetermined accident probability, or a collision with an object will occur only with a predetermined collision probability, - wherein the location is determined on the basis of a detection range of an environment sensor system of the motor vehicle and/or on the basis of a detection range of an environment sensor system of the parking space, so that the location is within the applicable detection range, characterized in that - the environment sensor system(s) (303, 407) comprises or comprise multiple environment sensors (303, 407) having respective detection ranges, wherein the location is determined on the basis of the shortest detection range of the respective detection ranges, so that the location is within the shortest detection range. - determining, for a prescribed target trajectory to be taken by the motor vehicle within the parking space, up to which location on the target trajectory there is the possibility of safe driverless travel by the motor vehicle, and - the motor vehicle travelling driverlessly to the determined location on the basis of the prescribed target trajectory, - wherein safe driverless travel by the motor vehicle denotes driverless travel during which an accident will occur only with a predetermined accident probability, or a collision with an object will occur only with a predetermined collision probability, - wherein the location is determined on the basis of a detection range of an environment sensor system of the motor vehicle and/or on the basis of a detection range of an environment sensor system of the parking space, so that the location is within the applicable detection range, characterized in that - the environment sensor system(s) (303, 407) comprises or comprise multiple environment sensors (303, 407) having respective detection ranges, wherein the location is determined on the basis of the shortest detection range of the respective detection ranges, so that the location is within the shortest detection range.
Method of manufacturing an inlaid ceramic element for a timepiece comprising the following steps: a) forming a ceramic body; b) etching at least one recess in one face of the ceramic body, each at least one recess forming the pattern cavity for a decoration; c) changing the surface state of the bottom of said at least one recess in order to increase the contact surface thereof; d) depositing, by thermal spraying, a second ceramic material over said at least one recess in order to totally fill said at least one recess; e) flattening said second ceramic material so that said second ceramic material remains only in the hollow of said at least one recess. a) forming a ceramic body; b) etching at least one recess in one face of the ceramic body, each at least one recess forming the pattern cavity for a decoration; c) changing the surface state of the bottom of said at least one recess in order to increase the contact surface thereof; d) depositing, by thermal spraying, a second ceramic material over said at least one recess in order to totally fill said at least one recess; e) flattening said second ceramic material so that said second ceramic material remains only in the hollow of said at least one recess.
An air generation unit for an aircraft, comprising - an air supply means; and - a control unit; wherein the air supply means is configured to supply air to an air conditioning system of an aircraft's cabin and to a flow control system of the aircraft; and wherein the control unit is configured to provide, during cruise conditions of the aircraft, a larger amount of the air supplied by the air supply means to the air conditioning system than to the flow control system, and during take-off and/or landing conditions of the aircraft, a larger amount of the air supplied by the air supply means to the flow control system than to the air conditioning system. - an air supply means; and - a control unit;
Method for charging a rechargeable battery of an electric device in different charging steps applying different charging currents, said charging steps comprising at least: a first charging step applying a first constant charging current to the battery while the battery voltage is smaller than a first voltage threshold and/or while the battery temperature is smaller than a first temperature threshold, said first charging current being smaller than a second charging current; a second charging step applying said second constant charging current to the battery while the battery voltage is higher than said first battery voltage threshold and lower than a second battery voltage threshold and/or while the battery temperature is higher than said first temperature threshold and smaller than a second temperature threshold; a third charging step applying a constant charging current to the battery, characterized in that the second constant charging current is switched off at the end of the second charging step; and said third constant charging current is switched on during the third charging step every time when the battery voltage drops to a fourth voltage threshold and switched off when the battery voltage reaches a fifth voltage threshold, wherein said third charging step providing said repeated switching on and off the third constant charging current thereby producing current pulses ends if the length of a current pause (Toff) following said current pulse (Ton) equals or exceeds the length of p·(k-1)-times the preceding current pulse (Ton) with k being the ratio of constant charging current and the constant charging current and p being a defined factor. a first charging step applying a first constant charging current to the battery while the battery voltage is smaller than a first voltage threshold and/or while the battery temperature is smaller than a first temperature threshold, said first charging current being smaller than a second charging current; a second charging step applying said second constant charging current to the battery while the battery voltage is higher than said first battery voltage threshold and lower than a second battery voltage threshold and/or while the battery temperature is higher than said first temperature threshold and smaller than a second temperature threshold; a third charging step applying a constant charging current to the battery, characterized in that the second constant charging current is switched off at the end of the second charging step; and said third constant charging current is switched on during the third charging step every time when the battery voltage drops to a fourth voltage threshold and switched off when the battery voltage reaches a fifth voltage threshold, wherein said third charging step providing said repeated switching on and off the third constant charging current thereby producing current pulses ends if the length of a current pause (Toff) following said current pulse (Ton) equals or exceeds the length of p·(k-1)-times the preceding current pulse (Ton) with k being the ratio of constant charging current and the constant charging current and p being a defined factor.
An apparatus comprising: a connector (300, 600, 800, 1000) configured to be electrically coupled to electrical circuitry comprising a first short pin receiver, at least two second short pin receiver and one or more supply pin receivers, the connector comprising: multiple pins including a plurality of first pins (365, 375) and one or more second pins, the one or more second pins being longer than the first pins, the plurality of first pins including a first short pin and at least two second short pin; one or more third pins being longer than the one or more second pins; and a signal generator coupled to the first short pin; characterised in that: the apparatus further comprises a linkage coupling the at least two second pins; and the signal generator is configured to: detect, through the first short pin, disconnection of any of the second short pin from any of the short pin receiver while both (i) the first short pin remains connected to the first short pin receiver and (ii) the one or more second pins remain connected to the one or more supply pin receivers; and generate a signal in response to detecting the disconnection of any of the second short pin from any of the second short pin receiver; the plurality of first pins (365, 375) are configured to create an electrical path from the signal generator to ground, when the connector is coupled to electrical circuitry; the one or more second pins are configured to provide a supply voltage to the electrical circuitry; and the one or more third pins are configured to electrically couple the electrical circuitry to the ground. multiple pins including a plurality of first pins (365, 375) and one or more second pins, the one or more second pins being longer than the first pins, the plurality of first pins including a first short pin and at least two second short pin; one or more third pins being longer than the one or more second pins; and a signal generator coupled to the first short pin; detect, through the first short pin, disconnection of any of the second short pin from any of the short pin receiver while both (i) the first short pin remains connected to the first short pin receiver and (ii) the one or more second pins remain connected to the one or more supply pin receivers; and generate a signal in response to detecting the disconnection of any of the second short pin from any of the second short pin receiver; the plurality of first pins (365, 375) are configured to create an electrical path from the signal generator to ground, when the connector is coupled to electrical circuitry; the one or more second pins are configured to provide a supply voltage to the electrical circuitry; and the one or more third pins are configured to electrically couple the electrical circuitry to the ground.
A composition comprising an analgesic and an antihistamine; wherein the analgesic is ibuprofen or a pharmaceutically acceptable salt or isomer thereof, and the antihistamine is nizatidine or a salt thereof, wherein the analgesic is a single dosage from 0.1 mg to 800 mg and the antihistamine is a single dosage from 0.1 to 200 mg.
Method for the growth of cells to a three dimensional tissue, in which biomaterial is taken on a grid, the grid is put in the midst of a laminar flow of a nutrient and the grid is brought in the midst of a circle of bypasses, and in which the bypasses are closed or opened to control the flow to have a permanent laminar flow through the grid with its cells at the highest level without turbulences.
A compound of formula or a salt thereof, wherein A is B is C is selected from: R 1 is selected from methyl and chloro; R 2 is selected from chloro and fluoro; R 3 is selected from methyl and cyclopropyl; and R 4 is selected from H; (C 1 -C 4)alkyl optionally substituted by -OH or -O-(C 1 -C 4)alkyl; cyclopropyl; and or R 3 is and R 4 is selected from H; (C 1 -C 4)alkyl optionally substituted by -OH or -O-(C 1 -C 4)alkyl; and cyclopropyl; R 5 is H; R 6 is -O-(C 1 -C 4)alkyl; R 7 is selected from H and methoxy; and * indicates the point of attachment to the remainder of the molecule. A is B is C is selected from: R 1 is selected from methyl and chloro; R 2 is selected from chloro and fluoro; R 3 is selected from methyl and cyclopropyl; and R 4 is selected from H; (C 1 -C 4)alkyl optionally substituted by -OH or -O-(C 1 -C 4)alkyl; cyclopropyl; and or R 3 is and R 4 is selected from H; (C 1 -C 4)alkyl optionally substituted by -OH or -O-(C 1 -C 4)alkyl; and cyclopropyl; R 5 is H; R 6 is -O-(C 1 -C 4)alkyl; R 7 is selected from H and methoxy;
An electrical component delivery device for moving or threading an electrical component onto a wire comprising: a body; a wire channel disposed within the body, comprising a wire channel entry and a wire channel exit, and configured to receive a wire; and one or more fluid guides (1022A/1022B) disposed within the body, fluidically connected to the wire channel, and comprising a guide entry (1002A/1002B), a guide fluid channel (1004A/1004B), and a guide exit (1006A/1006B), wherein: the guide entry (1002A/1002B) is configured to receive a fluid from a fluid source (1028A/1028B), the guide exit (1006A/1006B) is configured to flow the fluid into the wire channel to move the component along the wire to a desired position, and the guide fluid channel (1004A/1004B) fluidically connects the guide entry (1002A/1002B) to the guide exit (1006A/1006B). a body; a wire channel disposed within the body, comprising a wire channel entry and a wire channel exit, and configured to receive a wire; and one or more fluid guides (1022A/1022B) disposed within the body, fluidically connected to the wire channel, and comprising a guide entry (1002A/1002B), a guide fluid channel (1004A/1004B), and a guide exit (1006A/1006B), wherein: the guide entry (1002A/1002B) is configured to receive a fluid from a fluid source (1028A/1028B), the guide exit (1006A/1006B) is configured to flow the fluid into the wire channel to move the component along the wire to a desired position, and the guide fluid channel (1004A/1004B) fluidically connects the guide entry (1002A/1002B) to the guide exit (1006A/1006B). the guide entry (1002A/1002B) is configured to receive a fluid from a fluid source (1028A/1028B), the guide exit (1006A/1006B) is configured to flow the fluid into the wire channel to move the component along the wire to a desired position, and the guide fluid channel (1004A/1004B) fluidically connects the guide entry (1002A/1002B) to the guide exit (1006A/1006B).
Use of a protective film in the construction sector to protect against the weather as a more long-term or permanent cover or coating in the construction industry to retain the value of construction materials that are exposed to outdoor weather conditions, wherein the protective film is impermeable to water in its liquid and solid form and consists substantially of stretched polyolefin homopolymers, copolymers or a polymer blend containing solid fillers and comprising a micropore structure that is permeable to gaseous water, wherein the solid fillers result in the micropore structure when the protective film is being stretched, wherein the protective film is permeable to water vapour and wherein the protective film contains dark pigments, selected from the group of carbon black, having a proportion of the protective film of at least 0.5 wt.% and at most 10 wt.% based on the total weight of the protective film, characterised in that the carbon blacks have an average particle diameter in the range of 20 to 100 nm and that additives are provided that are introduced into the protective film as primary antioxidants.
A biological growth plate scanner comprising: an optical diffuser element; and an illumination source (76A, 76B) oriented to direct light into the optical diffuser element, wherein the optical diffuser element directs the light toward a side of a biological growth plate, characterized in that the optical diffuser element defines a first major surface, a second major surface and two or more side surfaces, and the illumination source includes a plurality of illumination sources oriented to direct the light into the optical diffuser element via at least some of the side surfaces; that the optical diffuser element is movable to support and transport the biological growth plate to a first position for scanning of the biological growth plate; and that the optical diffuser element is movable relative to the illumination sources between a second position to receive the biological growth plate and the first position where the optical diffuser element is aligned with the illumination source. an optical diffuser element; and an illumination source (76A, 76B) oriented to direct light into the optical diffuser element, wherein the optical diffuser element directs the light toward a side of a biological growth plate, characterized in that the optical diffuser element defines a first major surface, a second major surface and two or more side surfaces, and the illumination source includes a plurality of illumination sources oriented to direct the light into the optical diffuser element via at least some of the side surfaces; that the optical diffuser element is movable to support and transport the biological growth plate to a first position for scanning of the biological growth plate; and that the optical diffuser element is movable relative to the illumination sources between a second position to receive the biological growth plate and the first position where the optical diffuser element is aligned with the illumination source.
A magazine for an electrically-powered fastening device, comprising: a pusher assembly (110, 226) adapted to have an engaged state and a retracted state, the pusher assembly (110, 226) having a pusher assembly knob (140, 221) and a pusher (112, 225), the pusher (112, 225) adapted to contact a fastener and to impart a force upon the fastener in a direction toward a nose end of the magazine when the pusher assembly (110, 226) is in the engaged state, a recess (171, 280) into which the pusher (112, 225) is reversibly retracted at least in part when the pusher assembly knob (140, 221) is moved to reversibly retract the pusher (112, 225) to achieve the retracted state, a detent (156, 230) adapted to reversibly maintain the pusher assembly (110, 226) in the retracted state, and the pusher assembly knob (140, 221) adapted to reversibly latch to the detent (156,230), characterized in that the detent (156, 230) has a spring latch (954, 230) to which the pusher assembly knob (140, 221) is reversibly latched when the pusher assembly (110, 226) is in the retracted state and in that the pusher assembly further comprises a pivot (148, 943) about which a member (144, 944) supporting the pusher assembly knob can be pivoted to release the pusher assembly knob from engagement with the detent to achieve an unlatched state from a latched state. a pusher assembly (110, 226) adapted to have an engaged state and a retracted state, the pusher assembly (110, 226) having a pusher assembly knob (140, 221) and a pusher (112, 225), the pusher (112, 225) adapted to contact a fastener and to impart a force upon the fastener in a direction toward a nose end of the magazine when the pusher assembly (110, 226) is in the engaged state, a recess (171, 280) into which the pusher (112, 225) is reversibly retracted at least in part when the pusher assembly knob (140, 221) is moved to reversibly retract the pusher (112, 225) to achieve the retracted state, a detent (156, 230) adapted to reversibly maintain the pusher assembly (110, 226) in the retracted state, and the pusher assembly knob (140, 221) adapted to reversibly latch to the detent (156,230), characterized in that the detent (156, 230) has a spring latch (954, 230) to which the pusher assembly knob (140, 221) is reversibly latched when the pusher assembly (110, 226) is in the retracted state and in that the pusher assembly further comprises a pivot (148, 943) about which a member (144, 944) supporting the pusher assembly knob can be pivoted to release the pusher assembly knob from engagement with the detent to achieve an unlatched state from a latched state.
An antenna system comprising: an electric circuit board (10, 100) on which an electronic component is mounted, the electric circuit board (10, 100) including an antenna formed on one of the surfaces of the electric circuit board (10, 100); a protection member (20, 200, 202) covering the one of the surfaces of the electric circuit board (10, 100); and a heat transfer part (30, 300) which is configured to transfer heat generated by the electronic component mounted on the electric circuit board (10, 100) to the protection member (20, 200, 202), wherein a sub resonator (420, 422) whose resonance frequency is equal to that of the antenna formed on the electric circuit board (10, 100) is provided on a surface (233, 243) of the protection member (20, 200), the heat transfer part (30, 300) includes a connection member (301, 302, 322a, 322b) by which the one surface of the electric circuit board (10, 100) and the sub resonator (420, 422) are thermally coupled to each other, wherein the heat transfer part (30, 300) is configured to transfer at least part of the heat generated by the electronic component to the sub resonator (420, 422) via the connection member, and then radiate it outside of the antenna system. an electric circuit board (10, 100) on which an electronic component is mounted, the electric circuit board (10, 100) including an antenna formed on one of the surfaces of the electric circuit board (10, 100); a protection member (20, 200, 202) covering the one of the surfaces of the electric circuit board (10, 100); and a heat transfer part (30, 300) which is configured to transfer heat generated by the electronic component mounted on the electric circuit board (10, 100) to the protection member (20, 200, 202), wherein a sub resonator (420, 422) whose resonance frequency is equal to that of the antenna formed on the electric circuit board (10, 100) is provided on a surface (233, 243) of the protection member (20, 200), the heat transfer part (30, 300) includes a connection member (301, 302, 322a, 322b) by which the one surface of the electric circuit board (10, 100) and the sub resonator (420, 422) are thermally coupled to each other, wherein the heat transfer part (30, 300) is configured to transfer at least part of the heat generated by the electronic component to the sub resonator (420, 422) via the connection member, and then radiate it outside of the antenna system.