mhurhangee/ep-ind-claims huggingface dataset:
A driver circuit for controlling and powering a smoke generating canister, said driver circuit comprising a power output connected to said smoke generating canister for activation thereof, wherein said driver circuit comprises a charging unit providing after a charging process sufficient power for igniting and driving said smoke generating canister, a switching unit connected to said charging unit and to a first pole of said smoke generating canister for releasing power from said charging unit to said smoke generating canister, and a connecting unit connected to a second pole of said smoke generating canister for allowing power to flow through said smoke generating canister, wherein activation of both said connecting unit and said switching unit during an overlapping time period is required for activation of said smoke generating canister. a charging unit providing after a charging process sufficient power for igniting and driving said smoke generating canister, a switching unit connected to said charging unit and to a first pole of said smoke generating canister for releasing power from said charging unit to said smoke generating canister, and a connecting unit connected to a second pole of said smoke generating canister for allowing power to flow through said smoke generating canister, wherein activation of both said connecting unit and said switching unit during an overlapping time period is required for activation of said smoke generating canister.
An enzyme-specific retainable fluorescent compound represented by Formula I' below or a salt thereof wherein, A representing a monovalent group which is cleaved by an enzyme to generate a quinone methide; R 1 representing a hydrogen atom or one to four same or different substituents bonded to the benzene ring selected from the group consisting of alkyl, alkoxy, halogen, amino, mono- or di-substituted amino, substituted silyl and acyl; R 3, R 4, R 5, and R 6 each independently representing -CFR 10 R 11 or -CF 2 R 12, or a hydrogen atom, a hydroxyl group, an alkyl group, or a halogen atom; R 2 and R 7 each independently representing a hydrogen atom, a hydroxyl group, an alkyl group, or a halogen atom; R 8 and R 9 each independently representing a hydrogen atom or an alkyl group; R 10, R 11, and R 12 each independently representing a hydrogen atom, an alkyl group, or an alkenyl group; X representing an oxygen atom, Se, CR 13 R 14, or SiR 15 R 16; R 13, R 14, R 15, and R 16 each independently representing a hydrogen atom or an alkyl group; Y representing a C 1-3 alkylene group; and at least one of R 3, R 4, R 5, and R 6 representing -CFR 10 R 11 or -CF 2 R 12.
A multi-function air data probe (100, 310), comprising: a probe stem (102, 312) having an outer surface that extends between a first end and an opposite second end, the probe stem (102, 312) having a first cross-sectional diameter; a probe head (104, 314) having an outer surface that extends between a proximal end and a distal end, wherein the proximal end of the probe head (104, 314) is coupled to the first end of the probe stem (102, 312), wherein the probe head (104, 314) has a second cross-sectional diameter that is larger than the first cross-sectional diameter of the probe stem (102, 312); and a plurality of multi-hole ports located in the probe head (104, 314) with multiple sensor holes for each of the multi-hole ports, the multi-hole ports extending into and through the probe stem (102, 312); wherein the outer surface of the probe head (104, 314) includes an array of sensor holes that communicate with the multi-hole ports in the probe head (104, 314), wherein the array of sensor holes is arranged in a set of sensor hole rows (130-1 to 130-5); wherein the multi-hole ports each include respective sensor manifold tubes that respectively communicate with one of the sensor hole rows (130-1 to 130-5) through respective sets of multiple port tubes; and wherein the air data probe (100, 310) is configured to make measurements used to determine one or more of angle of attack values, total pressure values, and static pressure values. a probe stem (102, 312) having an outer surface that extends between a first end and an opposite second end, the probe stem (102, 312) having a first cross-sectional diameter; a probe head (104, 314) having an outer surface that extends between a proximal end and a distal end, wherein the proximal end of the probe head (104, 314) is coupled to the first end of the probe stem (102, 312), wherein the probe head (104, 314) has a second cross-sectional diameter that is larger than the first cross-sectional diameter of the probe stem (102, 312); and a plurality of multi-hole ports located in the probe head (104, 314) with multiple sensor holes for each of the multi-hole ports, the multi-hole ports extending into and through the probe stem (102, 312); wherein the outer surface of the probe head (104, 314) includes an array of sensor holes that communicate with the multi-hole ports in the probe head (104, 314), wherein the array of sensor holes is arranged in a set of sensor hole rows (130-1 to 130-5); wherein the multi-hole ports each include respective sensor manifold tubes that respectively communicate with one of the sensor hole rows (130-1 to 130-5) through respective sets of multiple port tubes; and wherein the air data probe (100, 310) is configured to make measurements used to determine one or more of angle of attack values, total pressure values, and static pressure values.
A method for operating a machine, the machine comprising moveable axes (42a-42n) and an apparatus for emitting an energy beam, the method comprising: - providing a computing device or system; - providing, by the computing device or system, a program for operating the axes (42a-42n) of the machine based on a Computer-Aided Design, CAD, file, the program comprising a plurality of controller instructions (150a-150n) for operating the axes (42a-42n); and - providing the program to a controller of the machine; the method being characterized in that it further comprises: - adding, by the computing device or system, a plurality of apparatus instructions (160a-160m) to the program, each apparatus instruction (160a-160m) indicating an energy beam radiation configuration of a plurality of energy beam radiation configurations for the apparatus; and - each time the controller runs a line of the program that has an apparatus instruction (160a-160m), the computing device or system operates the apparatus according to the apparatus instruction (160a-160m); wherein each apparatus instruction (160a-160m) added to the program is a comment (161a-161m) for the controller; and wherein each configuration of the plurality of configurations comprises a scanning pattern, one or more scanning speeds, and one or more of: a size of the spot of the energy beam, a power of the energy beam, and a power distribution within the energy beam. - providing a computing device or system; - providing, by the computing device or system, a program for operating the axes (42a-42n) of the machine based on a Computer-Aided Design, CAD, file, the program comprising a plurality of controller instructions (150a-150n) for operating the axes (42a-42n); and - providing the program to a controller of the machine; the method being characterized in that it further comprises: - adding, by the computing device or system, a plurality of apparatus instructions (160a-160m) to the program, each apparatus instruction (160a-160m) indicating an energy beam radiation configuration of a plurality of energy beam radiation configurations for the apparatus; and - each time the controller runs a line of the program that has an apparatus instruction (160a-160m), the computing device or system operates the apparatus according to the apparatus instruction (160a-160m); - adding, by the computing device or system, a plurality of apparatus instructions (160a-160m) to the program, each apparatus instruction (160a-160m) indicating an energy beam radiation configuration of a plurality of energy beam radiation configurations for the apparatus; and - each time the controller runs a line of the program that has an apparatus instruction (160a-160m), the computing device or system operates the apparatus according to the apparatus instruction (160a-160m); wherein each apparatus instruction (160a-160m) added to the program is a comment (161a-161m) for the controller; and wherein each configuration of the plurality of configurations comprises a scanning pattern, one or more scanning speeds, and one or more of: a size of the spot of the energy beam, a power of the energy beam, and a power distribution within the energy beam.
Pack having an inner volume in which a coffee ingredient is stored and from which a coffee beverage is extracted when a fluid is introduced inside the pack, said inner volume being defined by sheets of material joined to one another at their edges, such that the inner volume presents a generally plane shape, said pack comprising an inlet chamber configured to accommodate an inflow of fluid that will flow through the coffee ingredient to extract a coffee beverage and at least one outlet duct for delivering the coffee beverage from said inner volume, the pack comprising a fitment assembly, where the inlet chamber and the outlet duct are comprised, the fitment assembly being arranged at the bottom of the pack and being at least partially positioned between two joined edges of the sheets of material, the pack further comprising a filtering element arranged transversely in the sheets of material configuring the container and fixed to the lateral edges of the sheets of material configuring said inner volume, being further configured for preventing the particles of the coffee ingredient from entering the outlet duct when fluid is introduced in the pack and the coffee beverage is extracted, thus preventing these particles from being delivered together with the coffee beverage, the pack also comprising a compartmental channel formed by sealing together the sheets of material under a specific shape, the inlet chamber and the outlet duct being positioned at the bottom of the pack, and compartmental channel delimiting an inner volume defining a primary chamber receiving the incoming flow of fluid injected into the fitment assembly and conveying this flow of fluid upwards into a secondary chamber, the compartmental channel delimiting an inner volume defining this secondary chamber where the coffee ingredient is arranged.
A heat pump system comprising: a compressor configured to compress a refrigerant; a heating heat exchanger configured to exchange heat between the refrigerant compressed by the compressor and a liquid heating medium; a decompression device configured to decompress the refrigerant; an evaporator configured to exchange heat between the refrigerant decompressed by the decompression device and outside air; a blower configured to blow air to the evaporator; and a control device (30, 32) configured to control operations of the compressor and the blower, characterised in that the control device (30, 32) is configured to perform a condensation removal operation for removing a condensation of the heating heat exchanger in which the blower is stopped and the compressor is operated after stopping an operation for heating the heating medium by driving the compressor and the blower. a compressor configured to compress a refrigerant; a heating heat exchanger configured to exchange heat between the refrigerant compressed by the compressor and a liquid heating medium; a decompression device configured to decompress the refrigerant; an evaporator configured to exchange heat between the refrigerant decompressed by the decompression device and outside air; a blower configured to blow air to the evaporator; and a control device (30, 32) configured to control operations of the compressor and the blower, characterised in that the control device (30, 32) is configured to perform a condensation removal operation for removing a condensation of the heating heat exchanger in which the blower is stopped and the compressor is operated after stopping an operation for heating the heating medium by driving the compressor and the blower.
A semiconductor device, comprising: a semiconductor body having a first surface, a second surface opposing the first surface and side faces, an active area, wherein the active area comprises a plurality of active transistor cells, each active transistor cell comprising a columnar trench comprising a field plate and a mesa, and an edge termination region laterally surrounding the active area, wherein the edge termination region comprises a plurality of inactive cells, each inactive cell comprising a columnar termination trench comprising a field plate and a termination mesa comprising a drift region of a first conductivity type, wherein the edge termination region comprises a transition region laterally surrounding the active region and an outer termination region laterally surrounding the transition region, both the transition region and the outer termination region comprising one or more termination mesas,, wherein in the transition region the one or more termination mesas comprise a body region of the second conductivity type arranged on the drift region and in the outer termination region the drift region of the one or more termination mesas extends to the first surface, wherein the edge termination region comprises a buried doped region of the second conductivity type that has a lateral extent such that it is positioned in the transition region and in the outer termination region. a semiconductor body having a first surface, a second surface opposing the first surface and side faces, an active area, wherein the active area comprises a plurality of active transistor cells, each active transistor cell comprising a columnar trench comprising a field plate and a mesa, and an edge termination region laterally surrounding the active area, an active area, wherein the active area comprises a plurality of active transistor cells, each active transistor cell comprising a columnar trench comprising a field plate and a mesa, and an edge termination region laterally surrounding the active area, wherein the edge termination region comprises a plurality of inactive cells, each inactive cell comprising a columnar termination trench comprising a field plate and a termination mesa comprising a drift region of a first conductivity type, wherein the edge termination region comprises a transition region laterally surrounding the active region and an outer termination region laterally surrounding the transition region, both the transition region and the outer termination region comprising one or more termination mesas,, wherein in the transition region the one or more termination mesas comprise a body region of the second conductivity type arranged on the drift region and in the outer termination region the drift region of the one or more termination mesas extends to the first surface, wherein the edge termination region comprises a buried doped region of the second conductivity type that has a lateral extent such that it is positioned in the transition region and in the outer termination region.
Control component for the secure acquisition of control commands for controlling at least one medical device, in particular a dialysis device, with: - an input interface for capturing at least one control command (sb); - an output interface for outputting a message (n) which comprises a request to activate at least one operating element; - a processor which is designed to implement a security algorithm in that the processor instructs the at least one operating element with an additional function for checking whether its activation has been detected; - at least one operating element which is controlled by the processor and consequently checks whether the activation has been detected, and wherein the at least one operating element is configured to send a confirmation signal (b) to the processor when the activation is detected; wherein the processor initiates the application of the at least one control command (sb) to the medical device only when it has received the confirmation signal (b) from the at least one operating element. - an input interface for capturing at least one control command (sb); - an output interface for outputting a message (n) which comprises a request to activate at least one operating element; - a processor which is designed to implement a security algorithm in that the processor instructs the at least one operating element with an additional function for checking whether its activation has been detected; - at least one operating element which is controlled by the processor and consequently checks whether the activation has been detected, and wherein the at least one operating element is configured to send a confirmation signal (b) to the processor when the activation is detected;
Electromagnetic adjusting device comprising: - a first armature arrangement which is able to be moved in the axial direction between a rest position and an adjusting position, said armature arrangement being connected to a first adjusting element, - a first pole core which is able to be brought into magnetic operative connection with the first armature arrangement, - an axially orientated, energisable coil unit to influence the magnetic operative connection between the first pole core and the first armature arrangement, and - a second armature arrangement which is connected to a second adjusting element and is able to be moved in the axial direction between a rest position and an adjusting position, wherein the first adjusting element is formed as a tappet, on which the first armature arrangement is arranged to be non-moveable and the second armature arrangement is arranged to be moveable, characterised in that - a second pole core is provided which is able to be brought into magnetic operative connection with the second armature arrangement, said pole core being orientated axially opposite the first pole core to influence the operative connection of said second pole core with the second armature arrangement via the coil unit, and - a permanent magnet unit is provided, the magnet axis of which is orientated radially and is fixed between the first pole core and the first armature arrangement as well as between the second pole core and the second armature arrangement for the generation of a magnetic operative connection. - a first armature arrangement which is able to be moved in the axial direction between a rest position and an adjusting position, said armature arrangement being connected to a first adjusting element, - a first pole core which is able to be brought into magnetic operative connection with the first armature arrangement, - an axially orientated, energisable coil unit to influence the magnetic operative connection between the first pole core and the first armature arrangement, and - a second armature arrangement which is connected to a second adjusting element and is able to be moved in the axial direction between a rest position and an adjusting position, - a second pole core is provided which is able to be brought into magnetic operative connection with the second armature arrangement, said pole core being orientated axially opposite the first pole core to influence the operative connection of said second pole core with the second armature arrangement via the coil unit, and - a permanent magnet unit is provided, the magnet axis of which is orientated radially and is fixed between the first pole core and the first armature arrangement as well as between the second pole core and the second armature arrangement for the generation of a magnetic operative connection.
An oxygen breathing device for providing oxygen to passenger or crew of an aircraft, the device comprising: - an oxygen source, wherein oxygen is stored, in chemically bound form or compressed form, - an oxygen guiding device (43, 44a-c, 45a-c) for guiding oxygen from the oxygen source to a person, - a control unit for controlling pressure and/or flow rate of the oxygen flowing through the guiding device, characterized by an energy conversion and supply device which is adapted to - convert energy stored or produced within the oxygen breathing device into an energy required by the control unit, and - provide said energy required by the control unit to the control unit. - an oxygen source, wherein oxygen is stored, in chemically bound form or compressed form, - an oxygen guiding device (43, 44a-c, 45a-c) for guiding oxygen from the oxygen source to a person, - a control unit for controlling pressure and/or flow rate of the oxygen flowing through the guiding device, - convert energy stored or produced within the oxygen breathing device into an energy required by the control unit, and - provide said energy required by the control unit to the control unit.
A vehicle door with a trim panel portion connected thereto, wherein at least one holding device (9, 10) for an object (20, 21) is disposed on the inner surface (5.1) whereby the trim panel portion is pivotable between a closed position adjacent an inner panel and an open position, in which the holding device (9, 10) is accessible, wherein a storage space for said object (20, 21) to be held by the holding device (9, 10) is provided in both positions characterized in that said trim panel portion, is connected to an inner panel of the vehicle door and having an inner surface (5.1) facing the inner panel, and, is pivotable about a vertical pivot axis.
A framed soap produced by cooling and solidifying high-temperature molten soap containing a fatty acid salt or an N-acyl acidic amino acid salt, prepared with the counter ion of which sodium is essential and an organic amine and potassium are optional, in a cylindrical cooling frame, wherein 10 volume % or more of air bubbles having a number average particle diameter of 65 μm or smaller are uniformly entrained, wherein the fatty acid soap part is 25 to 40 mass % of the framed soap, and wherein isostearic acid is 2 to 10 mass % and stearic acid is 10 to 25 mass % of the fatty acid soap part.
A semiconductor device comprising: - a substrate comprising an insulating layer, wherein the electrically insulating layer comprises a recess, and - a first conductive wire, wherein the first conductive wire comprises a first conductive sub-layer provided completely within the recess, and comprising a second conductive sub-layer provided on the first conductive sub-layer forming a shunt for the first conductive sub-layer, wherein the first conductive sub-layer comprises tungsten and the second conductive sub-layer comprises aluminum, wherein the first conductive sub-layer and the second conductive sub-layer are planar, and wherein the second conductive sub-layer has the same pattern as the first conductive sub-layer within the recess. - a substrate comprising an insulating layer, wherein the electrically insulating layer comprises a recess, and - a first conductive wire,
A wringing device comprising a cylindrical main body and a plate which carries a wringing grid, the main body comprising: - at least one attachment arm for attaching to the edge of a bucket, - a first opening allowing the insertion of a cleaning device, - a second opening opposite the first opening which allows the cleaning device to access the wringing grid, and - means for receiving the plate, the wringing grid projecting from the second opening of the main body, characterized in that the main body comprises receiving and moving means extending longitudinally from the second opening of the main body, on the one hand, the wringing grid is engaged with the receiving and moving means in order to form a wringing housing, on the other hand, the wringing grid is mounted movably relative to the receiving and moving means which make it possible to guide the wringing grid in translation and elastic deformation in order to enlarge the wringing housing during wringing. - at least one attachment arm for attaching to the edge of a bucket, - a first opening allowing the insertion of a cleaning device, - a second opening opposite the first opening which allows the cleaning device to access the wringing grid, and - means for receiving the plate,