mhurhangee/patent-ind-claim-en huggingface dataset:
A ring-traveler device with no liquid lubrication for a ring type spinning machine comprising: a ring ; and a traveler slidable along the ring ; characterized in that a plurality of first recesses being circular dimples and a plurality of second recesses being micro-cracks are formed in at least one of a sliding surface of the ring and a sliding surface of the traveler , wherein each circular dimple has a diameter between 10 and 100 μm and is formed by an opening edge and an inner surface , wherein a width of each micro-crack is smaller than the diameter of each circular dimple , and wherein at least one of the micro-cracks extends across at least one of the opening edges and the inner surfaces of the circular dimples . a ring ; and a traveler slidable along the ring ; characterized in that a plurality of first recesses being circular dimples and a plurality of second recesses being micro-cracks are formed in at least one of a sliding surface of the ring and a sliding surface of the traveler , wherein each circular dimple has a diameter between 10 and 100 μm and is formed by an opening edge and an inner surface , wherein a width of each micro-crack is smaller than the diameter of each circular dimple , and wherein at least one of the micro-cracks extends across at least one of the opening edges and the inner surfaces of the circular dimples .
A timepiece mobile for a semi-instantaneous jump mechanism , said mobile including a stop member , an elastic return means , and a drive wheel which includes, around a pivot axis (D), a hub for guiding said stop member , which stop member is movable with respect to said drive wheel and includes at least one disengageable stop finger movable between a wound position wherein the radial extension of said stop finger is maximum with respect to said axis (D), and an unwound position wherein the radial extension of said stop finger is minimal with respect to said axis (D), said stop finger being subjected to the action of said elastic return means which tends to move it away from said axis (D), characterised in that said stop member includes a first housing the walls of which are arranged to bearingly cooperate, during the winding of said elastic return means , with a contact surface that said elastic return means includes, to limit the value of said winding and to limit the deformation of said elastic return means to its elastic range only.
A method of forming a plurality of surface mounted devices the method comprising: providing a plurality of base housings ; coupling, to each of the plurality of base housings a respective electronic component , said electronic component including a fusible element extending between a set of terminals; providing a carrier tape including a plurality of covers coupled to first and second edges by a set of connectors ; forming a plurality of surface mounted devices by coupling the carrier tape to the plurality of base housings ; wherein the plurality of covers is directly secured to the plurality of base housings ; decoupling the set of connectors of the carrier tape from the first and second edges to extract each of the plurality of surface mounted devices from the carrier tape ; and coupling one or more of the electronic components to a printed circuit board. providing a plurality of base housings ; coupling, to each of the plurality of base housings a respective electronic component , said electronic component including a fusible element extending between a set of terminals; providing a carrier tape including a plurality of covers coupled to first and second edges by a set of connectors ; forming a plurality of surface mounted devices by coupling the carrier tape to the plurality of base housings ; wherein the plurality of covers is directly secured to the plurality of base housings ; decoupling the set of connectors of the carrier tape from the first and second edges to extract each of the plurality of surface mounted devices from the carrier tape ; and coupling one or more of the electronic components to a printed circuit board.
A method of obtaining data from acquired imagery and/or data related to at least one target tagged with an artificial physical tag by associating the artificial physical tag to the target, wherein the target is formed by motor vehicles of a motor vehicle fleet, which is distributed across an area, wherein the artificial physical tag is configured to provide a signature of interest for imaging technology to be acquired as imagery and/or data by imaging technology in a region of the electromagnetic spectrum, wherein a remote sensing device comprises an energy source that illuminates or provides energy to the artificial physical tag of the target, and when the energy has been scattered or reflected by the artificial physical tag, the remote sensing device collects and records the electromagnetic radiation of the signature, which is the scattered or reflected energy, that is, the imagery and/or data from the target is acquired, wherein the artificial physical tag is a marking paint, which has properties in the infrared wavelength range so that it has a specific spectral signature at certain wavelengths, whereby the signature of interest is provided, wherein provide a signature of interest for imaging technology comprises to provide a spectral signature to be recognized by automated or semi-automated processes, the method comprising: • generating, during the acquisition of the imagery and/or data related to the target, a virtual tag corresponding to the artificial physical tag or a portion of said tag; • processing, the acquired imagery and/or data related to the target, wherein the processing comprises; ∘ detecting the generated virtual tag or a portion of said tag in the acquired imagery and/or data; ∘ obtaining metadata based on the detection of the generated virtual tag and linking the metadata to the virtual tag, wherein the obtained metadata comprises geo-positioning of the target and time at which the imagery and/or data is acquired. • generating, during the acquisition of the imagery and/or data related to the target, a virtual tag corresponding to the artificial physical tag or a portion of said tag; • processing, the acquired imagery and/or data related to the target, wherein the processing comprises; ∘ detecting the generated virtual tag or a portion of said tag in the acquired imagery and/or data; ∘ obtaining metadata based on the detection of the generated virtual tag and linking the metadata to the virtual tag, wherein the obtained metadata comprises geo-positioning of the target and time at which the imagery and/or data is acquired. ∘ detecting the generated virtual tag or a portion of said tag in the acquired imagery and/or data; ∘ obtaining metadata based on the detection of the generated virtual tag and linking the metadata to the virtual tag, wherein the obtained metadata comprises geo-positioning of the target and time at which the imagery and/or data is acquired.
A chip for securing storage of information in a storage device , comprising: a processor ; a memory manager configured to access a first pointer ; and a first cipher engine configured to decrypt stored data from the storage device , wherein the first pointer includes a first area and a second area, wherein the first area includes an address indicating a storage location of the data in the storage device and the second area includes a memory safety tag , and wherein the first cipher engine is configured to decrypt the data output from the storage location based on a key and the memory safety tag in the second area of the first pointer, wherein the first cipher engine is configured to encrypt the data for storage at the storage location in the storage device in response to a write request to the processor , and the data is encrypted based on the key and the memory safety tag , characterized in that the first cipher engine is configured to: receive the memory safety tag from the memory manager and encrypt data received from the processor through the memory manager ; and decrypt data read from the storage device using a key from the processor in association with a corresponding memory safety tag received from the memory manager and output decrypted data to the processor through the memory manager . a processor ; a memory manager configured to access a first pointer ; and a first cipher engine configured to decrypt stored data from the storage device , wherein the first pointer includes a first area and a second area, wherein the first area includes an address indicating a storage location of the data in the storage device and the second area includes a memory safety tag , and wherein the first cipher engine is configured to decrypt the data output from the storage location based on a key and the memory safety tag in the second area of the first pointer, wherein the first cipher engine is configured to encrypt the data for storage at the storage location in the storage device in response to a write request to the processor , and the data is encrypted based on the key and the memory safety tag , characterized in that the first cipher engine is configured to: receive the memory safety tag from the memory manager and encrypt data received from the processor through the memory manager ; and decrypt data read from the storage device using a key from the processor in association with a corresponding memory safety tag received from the memory manager and output decrypted data to the processor through the memory manager . receive the memory safety tag from the memory manager and encrypt data received from the processor through the memory manager ; and decrypt data read from the storage device using a key from the processor in association with a corresponding memory safety tag received from the memory manager and output decrypted data to the processor through the memory manager .
A compound of formula (I): wherein: - G represents a group selected from: a) -C(O)NH-, b) --NHC(O)-, - X 1 , X 2 , X 3 and X 4 represent a N atom or C-R 5 group, - R 1 and R 2 are independently selected from the group consisting of: a) hydrogen atom, b) linear or branched C 1 -C 6 alkyl optionally substituted by 1, 2 or 3 substituents selected from -N(R 6 )R 7 , -OR 6 , halogen atom and C 3 -C 6 cycloalkyl, c) C 3 -C 6 cycloalkyl, - or R 1 and R 2 form together with the nitrogen atom to which they are attached a four to six-membered heterocyclic group, comprising additionally a second heteroatom selected from N and O; - R 3 represents a group selected from: a) cyano group, and b) halogen atom, - R 4 represents a group selected from: a) halogen atom, b) C 3 -C 4 cycloalkyl group, c) C 1 -C 3 alkoxy group, d) C 1 -C 3 haloalkyl group, e) cyano group, - R 5 represents a group selected from: a) hydrogen atom, b) C 1 -C 3 alkyl, c) halogen atom, - R 6 and R 7 represent independently a group selected from: a) C 1 -C 3 alkyl, b) hydrogen atom, with the proviso that at least one of the X 1 , X 2 , X 3 and X 4 represents a N atom, and pharmaceutically acceptable salts thereof. - G represents a group selected from: a) -C(O)NH-, b) --NHC(O)-, a) -C(O)NH-, b) --NHC(O)-, - X 1 , X 2 , X 3 and X 4 represent a N atom or C-R 5 group, - R 1 and R 2 are independently selected from the group consisting of: a) hydrogen atom, b) linear or branched C 1 -C 6 alkyl optionally substituted by 1, 2 or 3 substituents selected from -N(R 6 )R 7 , -OR 6 , halogen atom and C 3 -C 6 cycloalkyl, c) C 3 -C 6 cycloalkyl, a) hydrogen atom, b) linear or branched C 1 -C 6 alkyl optionally substituted by 1, 2 or 3 substituents selected from -N(R 6 )R 7 , -OR 6 , halogen atom and C 3 -C 6 cycloalkyl, c) C 3 -C 6 cycloalkyl, - or R 1 and R 2 form together with the nitrogen atom to which they are attached a four to six-membered heterocyclic group, comprising additionally a second heteroatom selected from N and O; - R 3 represents a group selected from: a) cyano group, and b) halogen atom, a) cyano group, and b) halogen atom, - R 4 represents a group selected from: a) halogen atom, b) C 3 -C 4 cycloalkyl group, c) C 1 -C 3 alkoxy group, d) C 1 -C 3 haloalkyl group, e) cyano group, a) halogen atom, b) C 3 -C 4 cycloalkyl group, c) C 1 -C 3 alkoxy group, d) C 1 -C 3 haloalkyl group, e) cyano group, - R 5 represents a group selected from: a) hydrogen atom, b) C 1 -C 3 alkyl, c) halogen atom, a) hydrogen atom, b) C 1 -C 3 alkyl, c) halogen atom, - R 6 and R 7 represent independently a group selected from: a) C 1 -C 3 alkyl, b) hydrogen atom, a) C 1 -C 3 alkyl, b) hydrogen atom,
A light emitting device comprising: a plurality of volume emitting LEDs (21-29) adapted for, in operation, emitting light to the front and to the side of the LED, a substrate on which said plurality of volume emitting LEDs is arranged, and an optical structure comprising a surface adapted for forming a light exit surface of the light emitting device, a first section arranged such as to extend over said plurality of volume emitting LEDs opposite to the substrate, and a second section comprising a plurality of light redirecting elements (61-68) adapted for redirecting light emitted by the plurality of volume emitting LEDs towards said surface of the optical structure by means of total internal reflection (TIR), wherein the plurality of light redirecting elements (61-68) extend between adjacent volume emitting LEDs of the plurality of volume emitting LEDs and terminate adjacent to the substrate , and wherein the plurality of light redirecting elements (61-68) comprise grooves (71-78) being adapted for redirecting light emitted by the plurality of volume emitting LEDs towards said surface of the optical structure by means of total internal reflection (TIR). a plurality of volume emitting LEDs (21-29) adapted for, in operation, emitting light to the front and to the side of the LED, a substrate on which said plurality of volume emitting LEDs is arranged, and an optical structure comprising a surface adapted for forming a light exit surface of the light emitting device, a first section arranged such as to extend over said plurality of volume emitting LEDs opposite to the substrate, and a second section comprising a plurality of light redirecting elements (61-68) adapted for redirecting light emitted by the plurality of volume emitting LEDs towards said surface of the optical structure by means of total internal reflection (TIR), wherein the plurality of light redirecting elements (61-68) extend between adjacent volume emitting LEDs of the plurality of volume emitting LEDs and terminate adjacent to the substrate , and wherein the plurality of light redirecting elements (61-68) comprise grooves (71-78) being adapted for redirecting light emitted by the plurality of volume emitting LEDs towards said surface of the optical structure by means of total internal reflection (TIR).
A method of decoding a video bitstream, the method comprising: decoding a header of the video bitstream to determine the number of columns for dividing a frame consisting of horizontally arranged precincts, the precincts being divided by the columns and each of the precincts being a unit for quantization; decoding a header for a current precinct to determine a location of a subpacket in the video bitstream, the subpacket corresponding to a part of the current precinct; decoding the subpacket of the current precinct based on the determined location, to derive coefficient bits for the current precinct; and decoding video data from the derived coefficient bits for the current precinct, by performing inverse wavelet transform for the derived coefficient bits, the inverse wavelet transform including a filter operation, wherein a width of the current precinct in the frame is a multiple of 128 samples. decoding a header of the video bitstream to determine the number of columns for dividing a frame consisting of horizontally arranged precincts, the precincts being divided by the columns and each of the precincts being a unit for quantization; decoding a header for a current precinct to determine a location of a subpacket in the video bitstream, the subpacket corresponding to a part of the current precinct; decoding the subpacket of the current precinct based on the determined location, to derive coefficient bits for the current precinct; and decoding video data from the derived coefficient bits for the current precinct, by performing inverse wavelet transform for the derived coefficient bits, the inverse wavelet transform including a filter operation, wherein a width of the current precinct in the frame is a multiple of 128 samples.
A composite image heat transfer for use on merchandising articles, including sports jerseys or other apparel for a specific sport, comprising: a heat transfer; a scannable mark embedded within the heat transfer; wherein the heat transfer would be applied to a clothing article, and wherein the scannable mark would be a digital water mark, bar code, or QR code, and characterized in that the scannable mark is printed with an ultraviolet-curable ink. a heat transfer; a scannable mark embedded within the heat transfer; wherein the heat transfer would be applied to a clothing article, and wherein the scannable mark would be a digital water mark, bar code, or QR code, and characterized in that the scannable mark is printed with an ultraviolet-curable ink.
A motor comprising: a shaft ; a rotor coupled to the shaft ; and a stator disposed outside the rotor , wherein the rotor comprises a first can , a rotor core at least partially disposed in the first can , a plurality of magnets coupled to the rotor core , and a second can in which another part of the rotor core is disposed, wherein the plurality of magnets are arranged to be spaced apart in a circumferential direction due to a plurality of separation spaces (S), wherein the first can comprises a first plate portion , a first protruding portion formed by bending an edge of the first plate portion , and a plurality of first protrusions disposed in at least two different separation spaces (S) of the plurality of separation spaces (S) and spaced apart, wherein the second can comprises a second plate portion , a second protruding portion formed by bending an edge of the second plate portion , and a plurality of second protrusions disposed in at least two different separation spaces (S) of the plurality of separation spaces (S) and spaced apart, and wherein the first protrusions and the second protrusions are arranged diagonally, characterized in that the separation space (S) is formed to extend from a top surface to a bottom surface of the rotor core , and that the first protrusion and the second protrusion are arranged in a region more adjacent to a center of the separation space (S) in the axial direction than to both ends of the separation space (S). a shaft ; a rotor coupled to the shaft ; and a stator disposed outside the rotor , wherein the rotor comprises a first can , a rotor core at least partially disposed in the first can , a plurality of magnets coupled to the rotor core , and a second can in which another part of the rotor core is disposed, wherein the plurality of magnets are arranged to be spaced apart in a circumferential direction due to a plurality of separation spaces (S), wherein the first can comprises a first plate portion , a first protruding portion formed by bending an edge of the first plate portion , and a plurality of first protrusions disposed in at least two different separation spaces (S) of the plurality of separation spaces (S) and spaced apart, wherein the second can comprises a second plate portion , a second protruding portion formed by bending an edge of the second plate portion , and a plurality of second protrusions disposed in at least two different separation spaces (S) of the plurality of separation spaces (S) and spaced apart, and wherein the first protrusions and the second protrusions are arranged diagonally, characterized in that the separation space (S) is formed to extend from a top surface to a bottom surface of the rotor core , and that the first protrusion and the second protrusion are arranged in a region more adjacent to a center of the separation space (S) in the axial direction than to both ends of the separation space (S).
An elevator system comprising: an elevator car (103;203;303) within an elevator shaft ; a plurality of landing doors (202a,202b;302;502;602) located at respective landings within the elevator shaft ; a landing door gib (220;320;520;620) located on one of the landing doors (202a,202b; 302;502;602) and subject to inspection, the landing door gib (220;320;520;620) having an indicator element (224a,224b;324;524a,524b;624a,624b) thereon; and an inspection system comprising a detector (214;314) located on an exterior of the elevator car (103;203;303) and is arranged to detect the presence of the indicator element (224a,224b;324;524a,524b;624a,624b) in an inspection region ; characterized in that the detector (214;314) captures images of the indicator element (224a,224b;324;524a,524b;624a,624b) for inspection. an elevator car (103;203;303) within an elevator shaft ; a plurality of landing doors (202a,202b;302;502;602) located at respective landings within the elevator shaft ; a landing door gib (220;320;520;620) located on one of the landing doors (202a,202b; 302;502;602) and subject to inspection, the landing door gib (220;320;520;620) having an indicator element (224a,224b;324;524a,524b;624a,624b) thereon; and an inspection system comprising a detector (214;314) located on an exterior of the elevator car (103;203;303) and is arranged to detect the presence of the indicator element (224a,224b;324;524a,524b;624a,624b) in an inspection region ; characterized in that the detector (214;314) captures images of the indicator element (224a,224b;324;524a,524b;624a,624b) for inspection.
Stopper made of cork, in particular agglomerated cork, and formed in one piece for covering a container , provided with a wide neck that has a rolled rim, said stopper having - a distal or head portion , having a distal surface , an inner proximal surface , and a side surface , and - a proximal or body portion having a proximal surface and a side surface , the maximum distance (d) between the axis of the proximal portion and the side surface of the proximal portion being strictly less than the minimum distance (D) between the axis of the distal portion and the side surface of the distal portion , characterized in that the generatrix of the truncated cone forming the proximal portion , corresponding to the side surface , forms an acute angle α with the base of the distal portion , the base of the distal portion corresponding to the proximal surface 23, said angle α having a value of from 81 degrees to 85 degrees. - a distal or head portion , having a distal surface , an inner proximal surface , and a side surface , and - a proximal or body portion having a proximal surface and a side surface ,