mhurhangee/patent-ind-claim-en huggingface dataset:
A controller-circuit for operating an automated vehicle, said controller-circuit comprising: an output configured to communicate with an externally visible or externally audible output-device that is configured to convey a message from a host-vehicle to a pedestrian external to the host-vehicle , the message indicating that the pedestrian is to proceed in front of the host-vehicle ; an input configured to communicate with a perception-device that is configured to detect, using a camera, a microphone, or an input device, a reaction to the message by the pedestrian ; a processor in communication with the output-device and the perception-device , said processor configured to operate the output-device in accordance with a first-interaction-mode to convey the message , determine whether the reaction indicates that the pedestrian has not moved in front of the host-vehicle for more than a delay-threshold , and, in response to determining that the reaction indicates that the pedestrian has not moved in front of the host-vehicle for more than the delay-threshold , operate the output-device in accordance with a second-interaction-mode to convey the message a second time, said second-interaction-mode characterized as different from the first-interaction-mode . an output configured to communicate with an externally visible or externally audible output-device that is configured to convey a message from a host-vehicle to a pedestrian external to the host-vehicle , the message indicating that the pedestrian is to proceed in front of the host-vehicle ; an input configured to communicate with a perception-device that is configured to detect, using a camera, a microphone, or an input device, a reaction to the message by the pedestrian ; a processor in communication with the output-device and the perception-device , said processor configured to operate the output-device in accordance with a first-interaction-mode to convey the message , determine whether the reaction indicates that the pedestrian has not moved in front of the host-vehicle for more than a delay-threshold , and, in response to determining that the reaction indicates that the pedestrian has not moved in front of the host-vehicle for more than the delay-threshold , operate the output-device in accordance with a second-interaction-mode to convey the message a second time, said second-interaction-mode characterized as different from the first-interaction-mode .
A method of a first device handling radio link failure, comprising: performing or establishing sidelink unicast communication with a second device ; performing or establishing sidelink unicast communication with a third device ; detecting a radio link failure associated with the second device ; and performing a Sidelink Medium Access Control, in the following also referred to as MAC, reset associated with the second device in response to the radio link failure, and not performing a Sidelink MAC reset associated with the third device . performing or establishing sidelink unicast communication with a second device ; performing or establishing sidelink unicast communication with a third device ; detecting a radio link failure associated with the second device ; and performing a Sidelink Medium Access Control, in the following also referred to as MAC, reset associated with the second device in response to the radio link failure, and not performing a Sidelink MAC reset associated with the third device .
Active ingredient combinations of one or more cosmetically or dermatologically relevant fragrances selected from the group comprising coumarin (CAS No.: 91-64-5), iraldeine alpha iff (CAS No.: 127-41-3), farnesol (CAS No.: 4602-84-0), Lilial (CAS No.: 80-54-6), orange oil bitter (CAS No.: 8028-48-6), florosa (CAS No.: 63500-71-0), hexyl salicylate (CAS No.: 6259-76-3), phenylethyl alcohol (CAS No.: 60-12-8), benzyl benzoate M (CAS No.: 120-51-4), hydroxycitronellal (CAS No.: 107-75-5), Macrolide Supra (CAS No.: 106-02-5), Phenoxanol (CAS No.: 55066-48-3), Geraniol Supra (CAS No.: 106-24-1), dihydromyrcenol (CAS No.: 18479-58-8), cinnamaldehyde (CAS No.: 104-55-2), Lyral (CAS No.: 31906-04-4), isoeugenol (CAS No.: 97-54-1), anise alcohol (CAS No.: 105-13-5), terpineol pure (CAS No.: 98-55-5), bergamot oil (CAS No.: 8007-75-8), hedione (CAS No.: 24851-98-7), vanillin (CAS No.: 121-33-5), thymol (CAS No.: 89-83-8), linalyl acetate (CAS No.: 115-95-7), linalool aroma (CAS No.: 78-70-6), hexenol cis-3 (CAS No.: 928-96-1), tetrahydromuguol (CAS No.: 78-69-3), limonene D pure (CAS No.: 5989-27-5), benzyl salicylate (CAS No.: 118-58-1), benzyl cinnamate (CAS No.: 103-41-3), Iso E Super (CAS No.: 54464-57-2), citronellol 950 (CAS No.: 106-22-9), benzyl alcohol DD (CAS No.: 100-51-6), ethyl vanillin (CAS No.: 121-32-4), eugenol (CAS No.: 97-53-0), methyl heptyne carbonate (CAS No.: 111-12-6), citral 95 (CAS No.: 5392-40-5), alpha-hexylcinnamaldehyde (CAS No.: 101-86-0), benzyl acetate (CAS No.: 140-11-4), ethyl linalool (CAS No.: 10339-55-6), iraldeine gamma coeur 262654 (CAS No.: 79-68-5), amylcinnamaldehyde (CAS No.: 122-40-7), alpha-isomethylionone (CAS No.: 127-51-5), methyl benzoate (CAS No.: 93-58-3), alpha-methylionone (CAS No.: 7779-30-8), 2-tert-pentylcyclohexyl acetate (CAS NO.: 67874-72-0), 7-acetyl-1,1,3,4,4,6-hexamethyltetralin (CAS No.: 1506-02-1), adipic acid diester, amyl salicylate (CAS No.: 2050-08-0), amylcinnamyl alcohol (CAS No.: 101-85-9), amyl C butylphenylmethylpropionalcinnamal, benzoin (CAS No.: 119-53-9, 5928-66-5, 5928-67-6), bitter orange oil (CAS No.: 8008-57-9), sweet orange oil (CAS No.: 8028-48-6), cardamom oil (CAS No.: 800-66-6), cedrol (CAS No.: 77-53-2), cinnamyl alcohol (CAS No.: 104-51-1), citronellyl methylcrotonate (CAS No.: 20770-40-5), lemon oil (CAS No.: 84929-31-7), diethyl succinate (CAS No.: 123-25-1), Evernia furfuracea extract (CAS No.: 90028-67-4), Evernia prunastri extract (CAS No.: 90028-68-5), guaiac wood oil (CAS No.: 9000-29-7), hexyl cinnamal (CAS No.: 101-86-0), lavender oil (CAS No.: 800-28-0), limonene oil (CAS No.: 8008-26-2), mandarin oil (CAS No.: 8016-85-1), menthyl PCA (CAS No.: 64519-44-4/ 68127-22-0), methylheptenone (CAS No.: 402-02-9), nutmeg oil (CAS No.: 8008-45-5), rosemary oil (8000-25-7), tonka bean oil (CAS No.: 8046-22-8) and triethyl citrate (CAS No.: 77-93-0) and an alkylamidothiazole having the following structure:
Gas valve unit for controlling a gas throughput routed to a gas burner of a gas appliance, especially of a gas cooker, wherein the gas valve unit has a valve housing and an actuation shaft for setting an opening cross-section of the gas valve unit and an additional stop valve , wherein a movement of the actuation shaft can be transmitted to the stop valve by means of a linearly displaceable connection element , and wherein the connection element has a plastic bend embodied as an overpressure protection, characterised in that the plastic bend has a first radius if a pressure force engaging on the plastic bend is less than or equal to a specific threshold value, and has a second radius if the pressure force engaging on the plastic bend is greater than the prespecified threshold value.
A circuit assembly for cooling a quantum electric device through photon-assisted single-electron tunneling from a normal-metal to a superconductor, the circuit assembly comprising a quantum electric device to be cooled, characterized in that the circuit assembly further comprises: at least one normal-metal-insulator-superconductor, NIS, tunnel junction electrically connected to the quantum electric device , at least one superconductive lead electrically connected to the at least one normal-metal-insulator-superconductor, NIS, tunnel junction for supplying a drive voltage V QCR for said at least one normal-metal-insulator-superconductor NIS, tunnel junction , wherein the energy difference h ω 0 /(2π) between two energy states of the quantum electric device is in the range of h (0.3-300 GHz), where h is the Planck constant; and wherein the effective capacitance C of the quantum electric device is given by C = π / (ρ R K ω 0 ), wherein R K is the von Klitzing constant, and ρ is the zero-temperature probability of a photon capture event in the course of a single-electron tunneling event which lies in the range of 0.00001-0.1. at least one normal-metal-insulator-superconductor, NIS, tunnel junction electrically connected to the quantum electric device , at least one superconductive lead electrically connected to the at least one normal-metal-insulator-superconductor, NIS, tunnel junction for supplying a drive voltage V QCR for said at least one normal-metal-insulator-superconductor NIS, tunnel junction , wherein the energy difference h ω 0 /(2π) between two energy states of the quantum electric device is in the range of h (0.3-300 GHz), where h is the Planck constant; and wherein the effective capacitance C of the quantum electric device is given by C = π / (ρ R K ω 0 ), wherein R K is the von Klitzing constant, and ρ is the zero-temperature probability of a photon capture event in the course of a single-electron tunneling event which lies in the range of 0.00001-0.1.
Thin-film treatment apparatus for treating viscous material, comprising a housing having a heatable and/or coolable housing shell , which encloses a rotationally symmetric treatment chamber extending in an axial direction, an inlet port , arranged in an inlet region of the housing , for feeding the material to be treated into the treatment chamber , an outlet port , arranged in an outlet region of the housing , for discharging the material from the treatment chamber , and a coaxially extending, drivable rotor shaft , arranged in the treatment chamber , for producing a material film on the inner surface of the housing shell and for conveying the material in the direction away from the inlet region towards the outlet region , wherein the rotor shaft comprises a central rotor shaft body and rotor blades arranged on the circumference thereof, the radially outermost end of said rotor blades being spaced apart from the inner surface of the housing shell, characterized in that the treatment chamber contains more than two temperature sensors for measuring the temperature of the material film, which are arranged distributed over the length of the treatment chamber, and at least a part of the temperature sensors is arranged on the rotor shaft such that a temperature-sensing portion of the temperature sensor is arranged in the region of the radially outermost end of the rotor shaft , on the bow side of a rotor blade (50; 500). a housing having a heatable and/or coolable housing shell , which encloses a rotationally symmetric treatment chamber extending in an axial direction, an inlet port , arranged in an inlet region of the housing , for feeding the material to be treated into the treatment chamber , a coaxially extending, drivable rotor shaft , arranged in the treatment chamber , for producing a material film on the inner surface of the housing shell and for conveying the material in the direction away from the inlet region towards the outlet region , wherein the rotor shaft comprises a central rotor shaft body and rotor blades arranged on the circumference thereof, the radially outermost end of said rotor blades being spaced apart from the inner surface of the housing shell, characterized in that the treatment chamber contains more than two temperature sensors for measuring the temperature of the material film, which are arranged distributed over the length of the treatment chamber, and at least a part of the temperature sensors is arranged on the rotor shaft such that a temperature-sensing portion of the temperature sensor is arranged in the region of the radially outermost end of the rotor shaft , on the bow side of a rotor blade (50; 500).
An apparatus for generating a digital value, the apparatus comprising: a generator configured to generate an unpredictable digital value; and a storage unit connected to the generator , wherein the storage unit is configured, using a one-time programmable "OTP" device or a multi-time or many-time programmable "MTP" device to store the generated digital value, and to freeze the generated digital value by preventing rewriting of the storage unit . a generator configured to generate an unpredictable digital value; and a storage unit connected to the generator , wherein the storage unit is configured, using a one-time programmable "OTP" device or a multi-time or many-time programmable "MTP" device to store the generated digital value, and to freeze the generated digital value by preventing rewriting of the storage unit .
A flexible electronic system , comprising: - a flexible electronic substrate having a first contact pad and a second contact pad opposed to the first contact pad , wherein the first contact pad is electrically coupled to an energy source and the second contact pad is electrically coupled to at least one component; - a base substrate having an adhesive layer, wherein the base substrate is positioned on a lower surface of the flexible electronic substrate ; characterised by - an activator disposed in the flexible electronic substrate , wherein the activator comprises a spring loaded film or sheet of non-conductive material having a first end mounted on a support structure and a second end positioned at a distance away from the support , the activator being configured to electrically isolate the first contact pad and the second contact pad from one another; - a flexible protective cover disposed over the flexible electronic substrate , wherein the second contact pad is coupled to an inner wall of the protective cover by a loaded spring ; wherein, when the flexible electronic system is deformed by bending or folding, the activator unloads and mechanically disengages from the first contact pad and the second contact pad , the contact pads make contact thereby closing an electrical circuit and activating the energy source. - a flexible electronic substrate having a first contact pad and a second contact pad opposed to the first contact pad , wherein the first contact pad is electrically coupled to an energy source and the second contact pad is electrically coupled to at least one component; - a base substrate having an adhesive layer, wherein the base substrate is positioned on a lower surface of the flexible electronic substrate ; characterised by - an activator disposed in the flexible electronic substrate , wherein the activator comprises a spring loaded film or sheet of non-conductive material having a first end mounted on a support structure and a second end positioned at a distance away from the support , the activator being configured to electrically isolate the first contact pad and the second contact pad from one another; - a flexible protective cover disposed over the flexible electronic substrate , wherein the second contact pad is coupled to an inner wall of the protective cover by a loaded spring ;
A load cell support structure for a scale (300, 400; 500) comprising: - a base support member (304; 404; 504) for mounting at least one load cell (312; 512); - a load bearing member (302; 402; 502) movable with respect to said base support member (304; 404; 504) and having an upper surface for receiving a load; - a load cell engaging member adapted to operatively engage at least one load cell (312; 512) in a direction of a load applied to said upper surface of said load bearing member (302; 402; 502); - a load transfer member integrally formed with said load bearing member (302; 402; 502) and operatively coupled to said load cell engaging member so as to transfer a load from said upper surface to at least one load cell (312; 512) via said load cell engaging member ; - at least one biasing member (306; 406; 506) ; - at least one pivot member (316; 416; 516) operatively engaging said load transfer member and said load cell engaging member , so as to allow pivotal movement of said load transfer member with respect to said load cell engaging member about said pivot member (316; 416; 516) and in at least one plane parallel to the direction of a load applied to said upper surface, wherein the at least one biasing member (306; 406; 506) is adapted to urge said load transfer member towards said load cell engaging member with a predetermined biasing force and in a direction opposing a load applied to said upper surface of said load bearing member (302; 402; 502), wherein the load cell support structure comprises one biasing member and one pivot member , or a plurality of biasing members (306; 406) and a plurality of pivot members (316; 416). - a base support member (304; 404; 504) for mounting at least one load cell (312; 512); - a load bearing member (302; 402; 502) movable with respect to said base support member (304; 404; 504) and having an upper surface for receiving a load; - a load cell engaging member adapted to operatively engage at least one load cell (312; 512) in a direction of a load applied to said upper surface of said load bearing member (302; 402; 502); - a load transfer member integrally formed with said load bearing member (302; 402; 502) and operatively coupled to said load cell engaging member so as to transfer a load from said upper surface to at least one load cell (312; 512) via said load cell engaging member ; - at least one biasing member (306; 406; 506) ; - at least one pivot member (316; 416; 516) operatively engaging said load transfer member and said load cell engaging member , so as to allow pivotal movement of said load transfer member with respect to said load cell engaging member about said pivot member (316; 416; 516) and in at least one plane parallel to the direction of a load applied to said upper surface,
A vent assembly comprising: a vent body having an inner surface defining a cavity , wherein the vent body defines a first end and a second end and the vent body defines a central axis (a 1 ) extending from the first end to the second end ; a first retainer extending from the inner surface across the cavity towards the first end of the vent body , wherein the first retainer defines a first retainer opening extending to a first radial distance (R 1 ) from the central axis (ai); wherein the first retainer forms a frictional fit with the vent body ; a second retainer extending from the inner surface across the cavity towards the second end of the vent body , wherein the second retainer defines a second retainer opening extending to a second radial distance (R 2 ) from the central axis (ai), wherein the second radial distance (R 2 ) is greater than the first radial distance; wherein the second retainer forms a frictional fit with the vent body ; coalescing filter media disposed in the cavity between the first retainer and the second retainer ; wherein the coalescing filter media , the cavity , the first retainer , and the second retainer cumulatively define an airflow pathway and wherein the vent body has an insertion portion defining the second end of the vent body ; and a membrane , wherein the first retainer is disposed across the cavity between the coalescing filter media and the membrane ; wherein the second retainer opening of the second retainer is radially closer to the inner surface than the first retainer opening of the first retainer . a vent body having an inner surface defining a cavity , wherein the vent body defines a first end and a second end and the vent body defines a central axis (a 1 ) extending from the first end to the second end ; a first retainer extending from the inner surface across the cavity towards the first end of the vent body , wherein the first retainer defines a first retainer opening extending to a first radial distance (R 1 ) from the central axis (ai); wherein the first retainer forms a frictional fit with the vent body ; a second retainer extending from the inner surface across the cavity towards the second end of the vent body , wherein the second retainer defines a second retainer opening extending to a second radial distance (R 2 ) from the central axis (ai), wherein the second radial distance (R 2 ) is greater than the first radial distance; wherein the second retainer forms a frictional fit with the vent body ; coalescing filter media disposed in the cavity between the first retainer and the second retainer ; wherein the coalescing filter media , the cavity , the first retainer , and the second retainer cumulatively define an airflow pathway and wherein the vent body has an insertion portion defining the second end of the vent body ; and a membrane , wherein the first retainer is disposed across the cavity between the coalescing filter media and the membrane ; wherein the second retainer opening of the second retainer is radially closer to the inner surface than the first retainer opening of the first retainer .
Trench cutter for producing vertical trenches in the ground, which is connectable to a carrier apparatus , comprising a frame , a motor unit and a drive unit releasably connectable with the frame , wherein the drive unit comprises a carrier structure , at least one gear mechanism arranged on the carrier structure as well as at least one cutting tool for crushing ground material which is connected to the gear mechanism and drivable by the motor unit , characterized in that the motor unit is releasably connectable to the drive unit , and that the frame and the drive unit respectively comprise guide means , which are configured in such a way that the drive unit , in particular in case of released connection with the motor unit , can be pushed laterally into and out of the frame .
A process for treating effluent gas containing polycyclic aromatic hydrocarbons comprising a step of spray scrubbing with a mineral oil in order to trap said hydrocarbons, characterized in that the mineral oil comprises a mixture of aromatic mineral oil and naphthenic mineral oil, in that the mineral oil mixture comprises at least 20% by volume of aromatic mineral oil relative to the total volume of the mixture and in that the oil mixture has a viscosity less than or equal to 150 mm 2 /s at 0°C measured according to the ASTM D445 standard with an Ubbelohde viscometer with capillaries having a diameter of 0.88 mm.
Damping device comprising a damping means in the form of an elongate body, the damping device further comprising a mounting body in which the damping means is accommodated; the mounting body having an end for attaching the mounting body to the body of a tool holder, the mounting body having at its other end an end piece for mounting a tool, this device being characterized in that the mounting body is provided with at least one supply duct that opens at its front end into the end piece for mounting a tool, the mounting body being arranged in such a way that the supply duct , at its other end, communicates with a circular lubricant distribution channel provided on the front face of the tool holder when the mounting body is mounted on the body of the tool holder.