mhurhangee/patent-ind-claim-en huggingface dataset:
A gas turbine engine comprising: an engine casing structure ; and a part retained relative to the engine casing structure by a pair of channel-cooled hooks (71, 73, 75; 171, 173, 175) defining a gap (D) therebetween, wherein the part is one of a vane or a blade outer air seal (BOAS) and the channel-cooled hooks (71, 73, 75; 171, 173, 175) each include at least a portion of a hook cooling channel ; characterised by the gas turbine engine further comprising a dam for sealing the gap (D), wherein the dam comprises a feather seal (11; 400) extending between the pair of hooks (71, 73, 75; 171, 173, 175). an engine casing structure ; and a part retained relative to the engine casing structure by a pair of channel-cooled hooks (71, 73, 75; 171, 173, 175) defining a gap (D) therebetween, wherein the part is one of a vane or a blade outer air seal (BOAS) and the channel-cooled hooks (71, 73, 75; 171, 173, 175) each include at least a portion of a hook cooling channel ; characterised by the gas turbine engine further comprising a dam for sealing the gap (D), wherein the dam comprises a feather seal (11; 400) extending between the pair of hooks (71, 73, 75; 171, 173, 175).
A method for controlling reactance in the primary conductor of an inductive power transfer, IPT, system, the method comprising: determining a variable reactance in the primary conductor (L1) caused by a pick-up circuit inductively coupled therewith; and controlling a first reactive element ( Ceq, Leq) associated with a resonant circuit of a compensation device inductively coupled with the primary conductor (L1), dependent on the sensed reactance, to reflect a controlled compensatory reactance ameliorating the reactance in the primary conductor (L1); characterised in that the method further comprises determining a magnitude or range of magnitude of the power drawn by the compensation device for a magnitude or range of magnitude of the reflected reactance achieved, and controlling the first reactive element (Ceq, Leq) to provide the controlled compensatory reactance for the least power drawn from the primary supply dependent on the magnitude or range of magnitude of the power drawn from the primary conductor (L1) by the compensation device. determining a variable reactance in the primary conductor (L1) caused by a pick-up circuit inductively coupled therewith; and controlling a first reactive element ( Ceq, Leq) associated with a resonant circuit of a compensation device inductively coupled with the primary conductor (L1), dependent on the sensed reactance, to reflect a controlled compensatory reactance ameliorating the reactance in the primary conductor (L1); characterised in that the method further comprises determining a magnitude or range of magnitude of the power drawn by the compensation device for a magnitude or range of magnitude of the reflected reactance achieved, and controlling the first reactive element (Ceq, Leq) to provide the controlled compensatory reactance for the least power drawn from the primary supply dependent on the magnitude or range of magnitude of the power drawn from the primary conductor (L1) by the compensation device.
A method for manufacturing microgranules of thermoplastic based on polycarbonate (PC), polyamides (PA), polymethyl methacrylate (PMMA), polyethylene terephthalate (PET), cycloolefin polymer (COP) or cycloolefin copolymer (COC) for rotational molding, comprising the following steps: - melting of the plastic, - continuous extrusion of the plastic through a micro-perforated plate, - pelletizing of the extruded plastic under water as the plastic emerges from the micro-perforated plate, - drying of the pelletized plastic by centrifugation, characterized in that - the process temperature of the water in which the plastic is pelletized is at least 90 °C, at least in the area of the micro-perforated plate, and - a surfactant is added to the water to prevent agglomeration of grains of the microgranules. - melting of the plastic, - continuous extrusion of the plastic through a micro-perforated plate, - pelletizing of the extruded plastic under water as the plastic emerges from the micro-perforated plate, - drying of the pelletized plastic by centrifugation, characterized in that - the process temperature of the water in which the plastic is pelletized is at least 90 °C, at least in the area of the micro-perforated plate, and - a surfactant is added to the water to prevent agglomeration of grains of the microgranules.
A method for manufacturing a denture comprising a denture base and at least two artificial teeth (2; 202; 300; 400) arranged in the denture base (1; 200), wherein the method comprises the steps of: - obtaining the denture base (1; 200), - manufacturing the at least two artificial teeth (2; 202; 300; 400) with a common placement support (3; 203; 304, 305, 306; 401) connected to the at least two artificial teeth (2; 202; 300; 400) for keeping the at least two artificial teeth (2; 202; 300; 400) in a desired relative arrangement and where the common placement support (3; 203; 304, 305, 306; 401) and the at least two artificial teeth (2; 202; 300; 400) are manufactured as one unit, - arranging the at least two artificial teeth (2; 202; 300; 400) on the denture base (1; 200) with the common placement support (3; 203; 304, 305, 306; 401) connected to the at least two artificial teeth (2; 202; 300; 400), - attaching the at least two artificial teeth (2; 202; 300; 400) on the denture base (1; 200), and characterized in that the method further comprises, - removing the common placement support (3; 203; 304, 305, 306; 401). - obtaining the denture base (1; 200), - manufacturing the at least two artificial teeth (2; 202; 300; 400) with a common placement support (3; 203; 304, 305, 306; 401) connected to the at least two artificial teeth (2; 202; 300; 400) for keeping the at least two artificial teeth (2; 202; 300; 400) in a desired relative arrangement and where the common placement support (3; 203; 304, 305, 306; 401) and the at least two artificial teeth (2; 202; 300; 400) are manufactured as one unit, - arranging the at least two artificial teeth (2; 202; 300; 400) on the denture base (1; 200) with the common placement support (3; 203; 304, 305, 306; 401) connected to the at least two artificial teeth (2; 202; 300; 400), - attaching the at least two artificial teeth (2; 202; 300; 400) on the denture base (1; 200), and characterized in that the method further comprises, - removing the common placement support (3; 203; 304, 305, 306; 401).
An apparatus for use with a liquid delivery system, the liquid delivery system including a transparent cylinder for housing the liquid and a plunger movable along an axis of the cylinder for expelling the liquid through an outlet, the apparatus comprising: (a) a sliding cover configured for sliding engagement with the cylinder so as to be slidable along the cylinder parallel to the axis from a first position to a second position; (b) a set of sensors housed in said sliding cover so as to move together with said sliding cover, said set of sensors comprising at least a first sensor and a second sensor , said first sensor being a plunger sensor generating a signal, said plunger sensor being configured for non-contact sensing of at least part of the plunger as said sliding cover slides in engagement with the transparent cylinder such that variations in said first signal are indicative of the plunger passing a defined location along said sliding cover; and (c) a processing system associated with said set of sensors so as to receive outputs of said sensors, said processing system being configured to identify a variation in an output of said plunger sensor when said plunger sensor passes the plunger, said processing system being further configured to process said outputs to derive a location of the plunger along the cylinder, wherein said second sensor being configured for determining a position of said sliding cover relative to the cylinder when said plunger sensor reaches said plunger. (a) a sliding cover configured for sliding engagement with the cylinder so as to be slidable along the cylinder parallel to the axis from a first position to a second position; (b) a set of sensors housed in said sliding cover so as to move together with said sliding cover, said set of sensors comprising at least a first sensor and a second sensor , said first sensor being a plunger sensor generating a signal, said plunger sensor being configured for non-contact sensing of at least part of the plunger as said sliding cover slides in engagement with the transparent cylinder such that variations in said first signal are indicative of the plunger passing a defined location along said sliding cover; and (c) a processing system associated with said set of sensors so as to receive outputs of said sensors, said processing system being configured to identify a variation in an output of said plunger sensor when said plunger sensor passes the plunger, said processing system being further configured to process said outputs to derive a location of the plunger along the cylinder,
An automotive electronic control system ( ECS ) for a motor vehicle ( MV ) having one or more automotive electronic entry and engine ignition keys ( EK ); the automotive electronic control system ( ECS ) is configured to allow: - centralized door lock and unlock by means of an electronic key ( EK ) of the motor vehicle ( MV ); - keyless entry to the motor vehicle ( MV ) by an electronic key ( EK ) of the motor vehicle ( MV ); and - key or keyless ignition of a motor vehicle engine ( P ) by an electronic key ( EK ) of the motor vehicle ( MV ); wherein the keyless entry to the motor vehicle ( MV ) comprises centralized door lock and unlock responsive to operation of a remote control ( RC ) of an electronic key ( EK ) of the motor vehicle ( MV ); the automotive electronic control system ( ECS ) is characterized in that it is further configured to: - implement an automotive entry and engine ignition control ( KLF ) designed to allow keyless entry to the motor vehicle ( MV ) and key or keyless ignition of the motor vehicle engine ( P ) only by a rightful holder of an electronic key ( EK ) of the motor vehicle ( MV ); and - cause the automotive entry and engine ignition control ( KLF ) to be activable and deactivable only by a rightful holder of an electronic key ( EK ) of the motor vehicle ( MV ). - centralized door lock and unlock by means of an electronic key ( EK ) of the motor vehicle ( MV ); - keyless entry to the motor vehicle ( MV ) by an electronic key ( EK ) of the motor vehicle ( MV ); and - key or keyless ignition of a motor vehicle engine ( P ) by an electronic key ( EK ) of the motor vehicle ( MV ); wherein the keyless entry to the motor vehicle ( MV ) comprises centralized door lock and unlock responsive to operation of a remote control ( RC ) of an electronic key ( EK ) of the motor vehicle ( MV ); the automotive electronic control system ( ECS ) is characterized in that it is further configured to: - implement an automotive entry and engine ignition control ( KLF ) designed to allow keyless entry to the motor vehicle ( MV ) and key or keyless ignition of the motor vehicle engine ( P ) only by a rightful holder of an electronic key ( EK ) of the motor vehicle ( MV ); and - cause the automotive entry and engine ignition control ( KLF ) to be activable and deactivable only by a rightful holder of an electronic key ( EK ) of the motor vehicle ( MV ).
Electrically insulating tool cover assembly adapted to at least partly cover at least a front portion of a handheld power tool (PT), said cover assembly comprising - a first cover portion and a second cover portion adapted to, in use, together cover at least said front portion of said power tool, and - a releasable retaining element adapted to cooperate with a corresponding mating structure arranged at a respective first end of said first- and second cover portion, in order to hold said first and second cover portion together, wherein said first and second cover portion and said retaining element are made of an electrically insulating material, such that in use, an electrical insulation may be provided for at least a part of said front portion of said power tool, and characterized in that J said first end is a front end of said tool cover assembly adapted to, in use, be arranged at said front end of said power tool, wherein said retaining element comprises a cylindrical surface portion adapted to cooperate with a corresponding cylindrical surface portion formed by a first surface portion comprised by said first cover portion and a second surface portion comprised by said second cover portion together forming a first substantially circular end opening of the assembled cover, thereby holding said first and second cover portion together and wherein said cylindrical portion comprises a thread adapted to cooperate with a corresponding thread comprised by said corresponding surface portion . - a first cover portion and a second cover portion adapted to, in use, together cover at least said front portion of said power tool, and - a releasable retaining element adapted to cooperate with a corresponding mating structure arranged at a respective first end of said first- and second cover portion, in order to hold said first and second cover portion together, wherein said first and second cover portion and said retaining element are made of an electrically insulating material, such that in use, an electrical insulation may be provided for at least a part of said front portion of said power tool, and characterized in that J said first end is a front end of said tool cover assembly adapted to, in use, be arranged at said front end of said power tool, wherein said retaining element comprises a cylindrical surface portion adapted to cooperate with a corresponding cylindrical surface portion formed by a first surface portion comprised by said first cover portion and a second surface portion comprised by said second cover portion together forming a first substantially circular end opening of the assembled cover, thereby holding said first and second cover portion together and wherein said cylindrical portion comprises a thread adapted to cooperate with a corresponding thread comprised by said corresponding surface portion .
A suction head for an extraction cleaner comprising: a base forming a suction chamber and a suction outlet in fluid communication with the suction chamber ; and a piezoelectric element coupled to the base , the piezoelectric element comprising a first surface open to the suction chamber , a second surface facing an external environment away from the suction chamber , a thickness between the first surface and the second surface , and a through-via through the thickness open at both the first surface and the second surface . a base forming a suction chamber and a suction outlet in fluid communication with the suction chamber ; and a piezoelectric element coupled to the base , the piezoelectric element comprising a first surface open to the suction chamber , a second surface facing an external environment away from the suction chamber , a thickness between the first surface and the second surface , and a through-via through the thickness open at both the first surface and the second surface .
A method for unlocking an electronic device with fingerprints, characterized in that , the method comprises: detecting a first contact parameter between an object and a touch screen of the electronic device; (S201) in response to determining that the first contact parameter meets a first preset condition to awaken a fingerprint recognition function of the electronic device, detecting a second contact parameter between the object and the touch screen and simultaneously awakening the fingerprint recognition function, wherein the first contact parameter comprises at least one pressure value applied by the object on the touch screen and the second contact parameter comprises a contact position of the object with the touch screen; or the first contact parameter comprises a contact position of the object with the touch screen, and the second contact parameter comprises at least one pressure value applied by the object on the touch screen; (S202) in response to determining that the second contact parameter meets a second preset condition to perform the fingerprint recognition function, collecting fingerprint information of the object with a fingerprint sensor configured in the touch screen; and (S203) in response to determining that the fingerprint information matches pre-stored reference fingerprint information, unlocking the electronic device. detecting a first contact parameter between an object and a touch screen of the electronic device; (S201) in response to determining that the first contact parameter meets a first preset condition to awaken a fingerprint recognition function of the electronic device, detecting a second contact parameter between the object and the touch screen and simultaneously awakening the fingerprint recognition function, wherein the first contact parameter comprises at least one pressure value applied by the object on the touch screen and the second contact parameter comprises a contact position of the object with the touch screen; or the first contact parameter comprises a contact position of the object with the touch screen, and the second contact parameter comprises at least one pressure value applied by the object on the touch screen; (S202) in response to determining that the second contact parameter meets a second preset condition to perform the fingerprint recognition function, collecting fingerprint information of the object with a fingerprint sensor configured in the touch screen; and (S203) in response to determining that the fingerprint information matches pre-stored reference fingerprint information, unlocking the electronic device.
A method of brewing alcoholic beverage with Bacillus coagulans of strain Bacillus coagulans MTCC 5856, said method comprising steps of a) Malting, b) Mashing, c) Filtration, d) Kettle boiling, e) Hops addition, f) Cooling, g) Fermentation with yeast, h) Ageing and clarification, i) Secondary fermentation, j) Carbonation/No carbonation, k) Pasteurization and Packing. a) Malting, b) Mashing, c) Filtration, d) Kettle boiling, e) Hops addition, f) Cooling, g) Fermentation with yeast, h) Ageing and clarification, i) Secondary fermentation, j) Carbonation/No carbonation, k) Pasteurization and Packing.
A method for interactive segmentation by delineation of a region of interest of an object and correction of the delineated feature, comprising: displaying an image of the object as a background image on a display screen, the background image being an image or image slice created from CT volumetric image data generated by an imaging system; receiving, from an input device, a signal indicative of a free hand line being drawn over the background image, wherein the signal includes coordinates of points of the free hand line with respect to the display screen and the free hand line is independent of content represented in the background image; storing the signal in a storage device; determining a principal direction of the free hand line based on the stored signal; determining whether a previously received point of the free hand line lies beyond a most recently received point of the free hand line with respect to the principal direction; removing the previously received point from the storage device in response to the previously received point lying beyond the most recently received point with respect to the principal direction, thereby correcting the free hand line; generating a smooth stiff line based on the stored signal; and displaying the smooth stiff line over the background image. displaying an image of the object as a background image on a display screen, the background image being an image or image slice created from CT volumetric image data generated by an imaging system; receiving, from an input device, a signal indicative of a free hand line being drawn over the background image, wherein the signal includes coordinates of points of the free hand line with respect to the display screen and the free hand line is independent of content represented in the background image; storing the signal in a storage device; determining a principal direction of the free hand line based on the stored signal; determining whether a previously received point of the free hand line lies beyond a most recently received point of the free hand line with respect to the principal direction; removing the previously received point from the storage device in response to the previously received point lying beyond the most recently received point with respect to the principal direction, thereby correcting the free hand line; generating a smooth stiff line based on the stored signal; and displaying the smooth stiff line over the background image.
A magnetism detection device (1; 101), comprising: a transmission line set (2; 102) comprising a transmission line (20; 120A, 120B; 220; 320; 420; 520; 620; 720), the transmission line (20; 120A, 120B; 220; 320; 420; 520; 620; 720) comprising at least one first conductor (21; 221; 321; 421; 521; 621; 721), the at least one first conductor (21; 221; 321; 421; 521; 621; 721) being linear and comprising a magnetic material; and a detector (30; 130) configured to: input, from a first end of the transmission line set (2; 102), a pulse signal as a first incident wave; detect, at the first end, a first reflected wave of the first incident wave; input, from a second end opposite to the first end, a pulse signal as a second incident wave; detect, at the second end, a second reflected wave of the second incident wave; and detect a strength of a magnetic field applied to the transmission line set (2; 102) based on compositing of the first reflected wave and the second reflected wave. a transmission line set (2; 102) comprising a transmission line (20; 120A, 120B; 220; 320; 420; 520; 620; 720), the transmission line (20; 120A, 120B; 220; 320; 420; 520; 620; 720) comprising at least one first conductor (21; 221; 321; 421; 521; 621; 721), the at least one first conductor (21; 221; 321; 421; 521; 621; 721) being linear and comprising a magnetic material; and a detector (30; 130) configured to: input, from a first end of the transmission line set (2; 102), a pulse signal as a first incident wave; detect, at the first end, a first reflected wave of the first incident wave; input, from a second end opposite to the first end, a pulse signal as a second incident wave; detect, at the second end, a second reflected wave of the second incident wave; and detect a strength of a magnetic field applied to the transmission line set (2; 102) based on compositing of the first reflected wave and the second reflected wave. input, from a first end of the transmission line set (2; 102), a pulse signal as a first incident wave; detect, at the first end, a first reflected wave of the first incident wave; input, from a second end opposite to the first end, a pulse signal as a second incident wave; detect, at the second end, a second reflected wave of the second incident wave; and detect a strength of a magnetic field applied to the transmission line set (2; 102) based on compositing of the first reflected wave and the second reflected wave.