mhurhangee/patent-ind-claim-en huggingface dataset:
An inspection and repair system comprising: a crawler operable for traversing for inspection through an air gap between a stator and a rotor of a rotating electrical machine ; and for finding defects on the stator and the rotor of the electrical machine ; one or more sensors (S, C) coupled with the crawler , the one or more sensors (S, C) operable for sensing information associated with the electrical machine ; a transmitter for transmitting information from the one or more sensors (S, C) to at least one of a visual display and a retrievable memory storage ; the inspection and repair system further comprises a control system configured to transmit a haptic feedback to signal an occurrence of one of a plurality of predefined events based upon the information sensed by the one or more sensors (S, C), wherein the predefined events include sensing a defect in the electrical machine , wherein the control system is configured to generate an electronic result map of an inspected space within the electrical machine to define discrete regions with information about defects and/or foreign objects located therein, each of the discrete regions including a status indicator selected, based on sensed inspection data obtained by the crawler as a defined criteria, from a plurality of different status indicators. a crawler operable for traversing for inspection through an air gap between a stator and a rotor of a rotating electrical machine ; and for finding defects on the stator and the rotor of the electrical machine ; one or more sensors (S, C) coupled with the crawler , the one or more sensors (S, C) operable for sensing information associated with the electrical machine ; a transmitter for transmitting information from the one or more sensors (S, C) to at least one of a visual display and a retrievable memory storage ; the inspection and repair system further comprises a control system configured to transmit a haptic feedback to signal an occurrence of one of a plurality of predefined events based upon the information sensed by the one or more sensors (S, C), wherein the predefined events include sensing a defect in the electrical machine , wherein the control system is configured to generate an electronic result map of an inspected space within the electrical machine to define discrete regions with information about defects and/or foreign objects located therein, each of the discrete regions including a status indicator selected, based on sensed inspection data obtained by the crawler as a defined criteria, from a plurality of different status indicators.
3D-Code for the visible wavelength range, the 3D-code comprising: a carrier , and at least a first and a second QR code ; said QR codes being two-dimensional n x m matrix codes, where n is the number of rows and m is the number of columns of the matrix, where the carrier being a flat carrier whose surface disposed parallel to the XY plane in a Cartesian coordinate system, said second QR code having n x m fields applied directly to said carrier and said first QR code having n x m fields applied in an overlapping manner on the fields of said second QR code ; where n ≥ 1 and m ≥ 2, said fields of said first QR code and said fields of said second QR code forming stacks (S1, S2, S3, S4) in a direction +Z perpendicular to XY plane, characterized in that, said fields (11, 12, 13, 14; 21, 22, 23, 24) of said first QR code and of said second QR code being colored, transparent fields; and said fields being formed of at least two different colors, where the carrier being a transparent, colorless substrate. a carrier , and at least a first and a second QR code ; said QR codes being two-dimensional n x m matrix codes, where n is the number of rows and m is the number of columns of the matrix, where the carrier being a flat carrier whose surface disposed parallel to the XY plane in a Cartesian coordinate system, said second QR code having n x m fields applied directly to said carrier and said first QR code having n x m fields applied in an overlapping manner on the fields of said second QR code ; where n ≥ 1 and m ≥ 2, said fields of said first QR code and said fields of said second QR code forming stacks (S1, S2, S3, S4) in a direction +Z perpendicular to XY plane, characterized in that, said fields (11, 12, 13, 14; 21, 22, 23, 24) of said first QR code and of said second QR code being colored, transparent fields; and said fields being formed of at least two different colors, where the carrier being a transparent, colorless substrate.
A bolt for a firearm with a firing pin safety, wherein the bolt comprises a bolt carrier , a firing pin and a bolt body , in which the bolt body is located in a bolt body channel formed to the bolt carrier as a central opening in longitudinal direction of the bolt carrier , in which a cam pin is provided for turning movement of the bolt body , in which the firing pin is located in a firing pin channel formed to the bolt body as a central opening in longitudinal direction of the bolt body , and in which in the firing pin channel around the firing pin a spring is located for keeping the firing pin in back position and for slowing down movement of the firing pin , characterized in that the bolt comprises an automatic firing pin safety provided by a safety element located in between guides at two sides of the bolt carrier opposite each other, setting the position of the safety element by the turning movement of the bolt body and that the guides are configured to be movable in respect of the bolt body forward/backward by the turning movement of the bolt body provided by the cam pin and simultaneously configured to be moved by the bolt body such that the guides provide movement of the safety element sideways setting the position of the safety element . in which the bolt body is located in a bolt body channel formed to the bolt carrier as a central opening in longitudinal direction of the bolt carrier , in which a cam pin is provided for turning movement of the bolt body , in which the firing pin is located in a firing pin channel formed to the bolt body as a central opening in longitudinal direction of the bolt body , and in which in the firing pin channel around the firing pin a spring is located for keeping the firing pin in back position and for slowing down movement of the firing pin , characterized in that the bolt comprises an automatic firing pin safety provided by a safety element located in between guides at two sides of the bolt carrier opposite each other, setting the position of the safety element by the turning movement of the bolt body and that the guides are configured to be movable in respect of the bolt body forward/backward by the turning movement of the bolt body provided by the cam pin and simultaneously configured to be moved by the bolt body such that the guides provide movement of the safety element sideways setting the position of the safety element .
Method for stretching plastic films (9.1, 9.2), in which a plastic film (9.1, 9.2) is held on at least two opposite longitudinal sides by a multiplicity of holding means (6.1, 6.2) and in which the holding means (6.1, 6.2) are guided on both longitudinal sides of the plastic film (9.1, 9.2) along extension paths (5.1, 5.2), wherein a plurality of plastic films (9.1, 9.2) are held at a distance above one another by the holding means (6.1, 6.2) and are simultaneously stretched.
A control system for controlling an electric power steering system, the control system comprising: a first module that estimates a damping force based on an assist torque or force and a handwheel velocity ; and a second module that generates a control signal based on the estimated damping force , characterized in that the first module estimates the damping force DF based on the handwheel velocity V , a plurality of parameters C1, C2, C3, C4 (62-68), the assist torque or force AP , and an equation: DF = V C 1 + AP ∗ C 3 + V 2 C 2 ∗ sgn V − AP ∗ C 4 . a first module that estimates a damping force based on an assist torque or force and a handwheel velocity ; and a second module that generates a control signal based on the estimated damping force ,
A method of transporting an aerosol bolus from an aerosol generator comprising the steps of (a) introducing an upwardly directed burst of aerosol from the aerosol generator in the bottom part of a generally vertically oriented holding chamber having a shape adapted to accommodate the volume of bursted aerosol; (b) allowing the aerosol to settle and collect as a cloud by means of gravitation in said holding chamber; (c) introducing a layer of lighter clean air over said denser aerosol cloud; (d) settling of a denser aerosol as a cloud in the holding chamber so it reaches a stable boundary towards the lighter clean air above; and (e) receiving a downwardly directed aerosol stream in a downwardly directed outlet conduit located in a bottom part of the holding chamber. (a) introducing an upwardly directed burst of aerosol from the aerosol generator in the bottom part of a generally vertically oriented holding chamber having a shape adapted to accommodate the volume of bursted aerosol; (b) allowing the aerosol to settle and collect as a cloud by means of gravitation in said holding chamber; (c) introducing a layer of lighter clean air over said denser aerosol cloud; (d) settling of a denser aerosol as a cloud in the holding chamber so it reaches a stable boundary towards the lighter clean air above; and (e) receiving a downwardly directed aerosol stream in a downwardly directed outlet conduit located in a bottom part of the holding chamber.
A method of preparing a substrate for the labeling of articles comprising the steps of: applying a primer composition to the substrate, without lane priming; the primer composition comprising 60wt% to 95wt% aqueous polyurethane dispersion and 5.0wt% to 40wt% aqueous dispersion of a copolymer of one or more α-olefins and one or more acid-based monomers, preferably 65wt% to 85wt% aqueous polyurethane dispersion and 15wt% to 35wt% aqueous dispersion of a copolymer of one or more α-olefins and one or more acid-based monomers; wherein the α-olefin component of the copolymer of one or more α-olefins and one or more acid-based monomers is selected from ethylene; propylene; isobutylene; 1-butene; 1-pentene; 1-hexene; 4-methyl-1-pentene; 1-octene; and combinations thereof. applying a primer composition to the substrate, without lane priming; the primer composition comprising 60wt% to 95wt% aqueous polyurethane dispersion and 5.0wt% to 40wt% aqueous dispersion of a copolymer of one or more α-olefins and one or more acid-based monomers, preferably 65wt% to 85wt% aqueous polyurethane dispersion and 15wt% to 35wt% aqueous dispersion of a copolymer of one or more α-olefins and one or more acid-based monomers; wherein the α-olefin component of the copolymer of one or more α-olefins and one or more acid-based monomers is selected from ethylene; propylene; isobutylene; 1-butene; 1-pentene; 1-hexene; 4-methyl-1-pentene; 1-octene; and combinations thereof.
A hand-guided cyclone vacuum cleaner, comprising a separator unit for collecting suction material, which has a drive aggregate for generating a suction flow, a first filter stage , a second filter stage and a third filter stage ; wherein the drive aggregate is arranged downstream of the second filter stage and upstream of the third filter stage in a drive aggregate housing , wherein the suction flow generated during operation of the drive aggregate flows around the drive aggregate , characterised in that the second filter stage can be removed from the separator unit in a removal direction which is opposite to a further removal direction in which the third filter stage can be removed from the separator unit.
An environmental control system comprising: an air cycle machine comprising a fan ; a shell housing the fan ; and a nozzle arrangement (200;300;400) comprising: at least one nozzle (205;405) of the nozzle arrangement (200;300;400) configured to direct a medium to impinge on the fan of the air cycle machine ; an inlet valve configured to regulate a flow rate of the medium to the at least one nozzle (205;405); a flow passage arranged to supply the medium from the inlet valve to a circumferential plenum ; and the circumferential plenum arranged to supply the medium from the flow passage to the at least one nozzle (205;405); wherein the inlet valve is coupled to the flow passage , the flow passage is coupled to the circumferential plenum , and the circumferential plenum is coupled to the at least one nozzle (205;405). an air cycle machine comprising a fan ; a shell housing the fan ; and a nozzle arrangement (200;300;400) comprising: at least one nozzle (205;405) of the nozzle arrangement (200;300;400) configured to direct a medium to impinge on the fan of the air cycle machine ; an inlet valve configured to regulate a flow rate of the medium to the at least one nozzle (205;405); a flow passage arranged to supply the medium from the inlet valve to a circumferential plenum ; and the circumferential plenum arranged to supply the medium from the flow passage to the at least one nozzle (205;405); at least one nozzle (205;405) of the nozzle arrangement (200;300;400) configured to direct a medium to impinge on the fan of the air cycle machine ; an inlet valve configured to regulate a flow rate of the medium to the at least one nozzle (205;405); a flow passage arranged to supply the medium from the inlet valve to a circumferential plenum ; and the circumferential plenum arranged to supply the medium from the flow passage to the at least one nozzle (205;405); wherein the inlet valve is coupled to the flow passage , the flow passage is coupled to the circumferential plenum , and the circumferential plenum is coupled to the at least one nozzle (205;405).
A meter to monitor media, the meter comprising: an extractor to extract first metering data from media to be provided to a media presentation device via a transport stream, the first metering data identifying at least one of the media or a source of the media; a combiner to combine the first metering data, which is extracted from the media, with second metering data, which is obtained from a source that is independent of the media, to form combined metering data, the combined metering data not being decodable by a meter associated with the media presentation device; a transcoder to transcode the combined metering data to form transcoded metering data having a format decodable by the meter associated with the media presentation device; and an encoder to encode the transcoded metering data into a metadata channel associated with the transport stream including a file to be sent to the media presentation device prior to communication of the transport stream to the media presentation device to provide the transcoded metering data to the media presentation device. an extractor to extract first metering data from media to be provided to a media presentation device via a transport stream, the first metering data identifying at least one of the media or a source of the media; a combiner to combine the first metering data, which is extracted from the media, with second metering data, which is obtained from a source that is independent of the media, to form combined metering data, the combined metering data not being decodable by a meter associated with the media presentation device; a transcoder to transcode the combined metering data to form transcoded metering data having a format decodable by the meter associated with the media presentation device; and an encoder to encode the transcoded metering data into a metadata channel associated with the transport stream including a file to be sent to the media presentation device prior to communication of the transport stream to the media presentation device to provide the transcoded metering data to the media presentation device.
An inhaler comprising: a body in the form of a boot , a mouthpiece , and a cover for an upper section of the boot; and a compliance monitoring module comprising: a miniature pressure sensor, a sensor port of said sensor being configured to be pneumatically coupled to a flow channel of said inhaler through which a user can inhale; a transmitter; and a processor configured to: receive data from a sensing element of the pressure sensor; receive data from a mode sensor configured to detect when the inhaler changes from an inactive mode to an active mode; and compile a compliance report based on said data from said pressure sensor sensing element and said data from said mode sensor, said transmitter being configured to issue said compliance report, wherein the compliance monitoring module comprises an electronics unit under said cover , the electronics unit including said miniature pressure sensor. a body in the form of a boot , a mouthpiece , and a cover for an upper section of the boot; and a compliance monitoring module comprising: a miniature pressure sensor, a sensor port of said sensor being configured to be pneumatically coupled to a flow channel of said inhaler through which a user can inhale; a transmitter; and a processor configured to: receive data from a sensing element of the pressure sensor; receive data from a mode sensor configured to detect when the inhaler changes from an inactive mode to an active mode; and compile a compliance report based on said data from said pressure sensor sensing element and said data from said mode sensor, said transmitter being configured to issue said compliance report, wherein the compliance monitoring module comprises an electronics unit under said cover , the electronics unit including said miniature pressure sensor. a miniature pressure sensor, a sensor port of said sensor being configured to be pneumatically coupled to a flow channel of said inhaler through which a user can inhale; a transmitter; and a processor configured to: receive data from a sensing element of the pressure sensor; receive data from a mode sensor configured to detect when the inhaler changes from an inactive mode to an active mode; and compile a compliance report based on said data from said pressure sensor sensing element and said data from said mode sensor, said transmitter being configured to issue said compliance report, wherein the compliance monitoring module comprises an electronics unit under said cover , the electronics unit including said miniature pressure sensor. receive data from a sensing element of the pressure sensor; receive data from a mode sensor configured to detect when the inhaler changes from an inactive mode to an active mode; and compile a compliance report based on said data from said pressure sensor sensing element and said data from said mode sensor, said transmitter being configured to issue said compliance report, wherein the compliance monitoring module comprises an electronics unit under said cover , the electronics unit including said miniature pressure sensor.
Gulley , comprising a gulley pot , an outlet and a baffle , wherein the baffle is attached to the gulley pot such that the baffle is movable between a first stable position (I) with respect to the gulley pot in which position the baffle overlaps and covers the outlet and extends below an underside of the outlet and a second stable position (II) with respect to the gulley pot in which position the outlet is substantially uncovered by the baffle, wherein the baffle extends into the gulley pot with an outer surface having a positive slope and a height, characterised in that the outer surface comprises a roughened profile extending over substantially the height (H) and having a typical depth and lateral separation of features of 0.2 mm or more for collecting dirt and/or providing grip for animal paws, e.g. of frogs and toads.
A non-transitory machine readable medium containing processor instructions, where execution of the instructions by a processor causes the processor to perform a process comprising: receiving an encoded video bitstream comprising a plurality of frames, each frame comprising a plurality of independently encoded compression units within the frame, wherein the compression units are tiles within a High-Efficiency Video Coding (HEVC) standard and the video bitstream is encoded based on the HEVC standard; determining if tiles are enabled; determining the structure of NAL (Network Abstraction Layer) units within a frame and/or bitstream; determining the structure of tiles within a NAL unit by parsing a Picture Parameter Set (PPS) of the HEVC video bitstream to identify the structure of the tiles within the video bitstream; selecting a number of NAL units; selecting a number of tiles within each of the selected NAL units; determining locations of a plurality of tiles within the encoded video bitstream based on the structure provided by the PPS associated with a frame of video;encrypting at least a portion of each of the selected tiles within the frame, wherein portions of the tiles are encrypted based on the structure of the tiles; and generating an output bitstream comprising the plurality of tiles including the encrypted portions of the tiles. receiving an encoded video bitstream comprising a plurality of frames, each frame comprising a plurality of independently encoded compression units within the frame, wherein the compression units are tiles within a High-Efficiency Video Coding (HEVC) standard and the video bitstream is encoded based on the HEVC standard; determining if tiles are enabled; determining the structure of NAL (Network Abstraction Layer) units within a frame and/or bitstream; selecting a number of NAL units; selecting a number of tiles within each of the selected NAL units; determining locations of a plurality of tiles within the encoded video bitstream based on the structure provided by the PPS associated with a frame of video;encrypting at least a portion of each of the selected tiles within the frame, wherein portions of the tiles are encrypted based on the structure of the tiles; and generating an output bitstream comprising the plurality of tiles including the encrypted portions of the tiles.
Movable protective shield device (1.1) for a traversing rail along which at least one robot (R) with an application member (A) can be moved, the protective shield device (1.1) comprising at least one plate-shaped and/or flat and stiff or essentially rigid protective shield (2.1) for protecting the traversing rail from the application medium delivered by the application member (A), wherein the protective shield device (1.1) itself is without drive and is not designed for mounting on the at least one robot (R) so as to be fixed against displacement, but for free displaceability along the traversing rail .
A ceramic foam filter for use in filtering non-ferrous metals, comprising calcined alumina as a core material, silica as a binder, borate glass and boric oxide, wherein the filter has a chemical composition comprising calcined alumina in the range 75-95 wt%, silica in the range 3-15 wt%, borate glass in the range 3-15 wt% and no more than 5 wt% boric oxide.
Method for the thermal treatment of mineral raw materials, wherein as at least one mineral raw material a lithium ore, specifically a lithium aluminium silicate, is selected, wherein the method has the following steps: a) comminuting the mineral raw material in a comminuting device , b) granulating the product from step a) in a granulating device , c) thermal treatment of the product from step b) in a thermal treatment device, characterised in that after step b) 90% of all particles have a particle size of between 50 μm and 500 μm, wherein a mechanical fluidised bed reactor is used as a granulating device , wherein the lithium ore has a high degree of impurity caused by sodium, potassium and/or iron components of 0.5 >wt% with respect to Na 2 O, K 2 O, Fe 2 O 3 , wherein the thermal treatment in step c) is carried out at a temperature of at least 950°C. a) comminuting the mineral raw material in a comminuting device , b) granulating the product from step a) in a granulating device , c) thermal treatment of the product from step b) in a thermal treatment device,