mhurhangee/patent-ind-claim-en huggingface dataset:
A plastic molded body having a surface comprising a non-fluororesin and a rough surface formed on the surface, wherein a fluorine atom is incorporated into the molecular chain of a non-fluororesin forming the rough surface, and further wherein: (i) the rough surface has a primary irregular surface and a secondary irregular surface which is finer than the primary irregular surface and formed within the primary irregular surface, and the fluorine atom is incorporated into the molecular chain of a non-fluororesin forming the secondary irregular surface; and (ii) a much finer tertiary irregular surface is formed within the secondary irregular surface, and the fluorine atom is incorporated into the molecular chain of a non-fluororesin forming the tertiary irregular surface. (i) the rough surface has a primary irregular surface and a secondary irregular surface which is finer than the primary irregular surface and formed within the primary irregular surface, and the fluorine atom is incorporated into the molecular chain of a non-fluororesin forming the secondary irregular surface; and (ii) a much finer tertiary irregular surface is formed within the secondary irregular surface, and the fluorine atom is incorporated into the molecular chain of a non-fluororesin forming the tertiary irregular surface.
A carton (90; 190; 290; 390) for packaging one or more articles (B), the carton (90; 190; 290; 390) comprising: a top portion formed in part by a top wall panel (16; 116; 216; 316; 416) and a first upper end closure panel (34a; 134a; 234a; 334a; 434a) hinged to the top wall panel (16; 116; 216; 316; 416) along a first end edge thereof; a first side wall hinged to a first edge of the top wall panel by first fold line ; a second side wall hinged to a second edge of top wall panel by second fold line , second edge opposes first edge; a carrying handle (H) defined in the top portion; a first gusset panel (32a; 132a; 232a; 332a; 432a) hinged to the first upper end closure panel (34a; 134a; 234a; 334a; 434a) along a first side edge; a first anchor panel (28a; 128a; 228a; 328a; 428a) hinged to the first gusset panel (32a; 132a; 232a; 332a; 432a) and to the first side wall (14; 114; 214; 314; 414), the first anchor panel being folded into a face to face relationship with the first side wall (14; 114; 214; 314; 414) so as to secure the first upper end closure panel (34a; 134a; 234a; 334a; 434a) in a closed condition; and a first handle reinforcing structure (12; 112; 212; 312; 412) disposed at least in part about the carrying handle (H), wherein the first handle reinforcing structure is coupled to the first anchor panel (28a; 128a; 228a; 328a) by two or more first connecting panels (24a, 26a; 124a, 126a; 224a, 226a; 324a, 326a; 424a, 426a). a top portion formed in part by a top wall panel (16; 116; 216; 316; 416) and a first upper end closure panel (34a; 134a; 234a; 334a; 434a) hinged to the top wall panel (16; 116; 216; 316; 416) along a first end edge thereof; a first side wall hinged to a first edge of the top wall panel by first fold line ; a second side wall hinged to a second edge of top wall panel by second fold line , second edge opposes first edge; a carrying handle (H) defined in the top portion; a first gusset panel (32a; 132a; 232a; 332a; 432a) hinged to the first upper end closure panel (34a; 134a; 234a; 334a; 434a) along a first side edge; a first anchor panel (28a; 128a; 228a; 328a; 428a) hinged to the first gusset panel (32a; 132a; 232a; 332a; 432a) and to the first side wall (14; 114; 214; 314; 414), the first anchor panel being folded into a face to face relationship with the first side wall (14; 114; 214; 314; 414) so as to secure the first upper end closure panel (34a; 134a; 234a; 334a; 434a) in a closed condition; and a first handle reinforcing structure (12; 112; 212; 312; 412) disposed at least in part about the carrying handle (H),
Vehicle imaging device, comprising: • an image sensor configured for capturing an image, • a lens in communication with the image sensor and configured for guiding a light beam into the image sensor , • a first printed circuit board in connection with the image sensor , • a connector in connection with the first printed circuit board to receive data from the first printed circuit board , • a housing comprising a first part and a second part , being both parts in electrical contact between them, the housing comprising an inner cavity enclosing at least the first printed circuit board and the connector , characterised in that it comprises a fixing element (2.1, 2.2) joined to the first printed circuit board and adapted to fix the connector to the first printed circuit board , the housing further enclosing the fixing element (2.1, 2.2), the fixing element (2.1, 2.2) comprising a projection , the projection and the fixing element (2.1, 2.2) being a single component the projection being located such that it contacts the inner cavity of the housing and wherein the first printed circuit board is electrically connected to the fixing element (2.1, 2.2), the fixing element (2.1, 2.2) being electrically connected to the inner cavity of the housing through the projection and the housing being electrically connected to the first printed circuit board . • an image sensor configured for capturing an image, • a lens in communication with the image sensor and configured for guiding a light beam into the image sensor , • a first printed circuit board in connection with the image sensor , • a connector in connection with the first printed circuit board to receive data from the first printed circuit board , • a housing comprising a first part and a second part , being both parts in electrical contact between them, the housing comprising an inner cavity enclosing at least the first printed circuit board and the connector , characterised in that it comprises a fixing element (2.1, 2.2) joined to the first printed circuit board and adapted to fix the connector to the first printed circuit board , the housing further enclosing the fixing element (2.1, 2.2), the fixing element (2.1, 2.2) comprising a projection , the projection and the fixing element (2.1, 2.2) being a single component the projection being located such that it contacts the inner cavity of the housing and wherein the first printed circuit board is electrically connected to the fixing element (2.1, 2.2), the fixing element (2.1, 2.2) being electrically connected to the inner cavity of the housing through the projection and the housing being electrically connected to the first printed circuit board .
A transmitter device for a communication system , the transmitter device being configured to obtain an information message ( m ) for transmission; select a subset of columns of a projection matrix ( F ) based on the information message ( m ); and superpose the selected subset of columns of the projection matrix ( F ) so as to obtain a signal for transmission ( z ) comprising M number of transmission symbols, characterized in that the projection matrix ( F ) is a concatenation of a plurality of submatrices ( F = [ F 1 F 2 ... F C ]), wherein each sub-matrix ( F c ) has M number of rows, and wherein two columns in the same sub-matrix are orthogonal, and wherein two columns belonging to different submatrices ([ F 1 F 2 ... F C ]) have a correlation that is equal to or less than 1 / M . obtain an information message ( m ) for transmission; select a subset of columns of a projection matrix ( F ) based on the information message ( m ); and superpose the selected subset of columns of the projection matrix ( F ) so as to obtain a signal for transmission ( z ) comprising M number of transmission symbols, characterized in that the projection matrix ( F ) is a concatenation of a plurality of submatrices ( F = [ F 1 F 2 ... F C ]), wherein each sub-matrix ( F c ) has M number of rows, and wherein two columns in the same sub-matrix are orthogonal, and wherein two columns belonging to different submatrices ([ F 1 F 2 ... F C ]) have a correlation that is equal to or less than 1 / M .
A method for creating a cephalometric image of at least part of a human skull in an extra-oral dental imaging system, said system comprising: - an X-ray source for irradiating an object to be imaged; - an imaging device suitable for producing multiple frames during at least part of an exposure of said object ; - a manipulator for displacing the imaging device along an exposure profile between multiple frames during said at least part of the exposure of said object, the manipulator permitting the movement of the X-ray source and the imaging device by means of a selective translation and selective rotation, wherein said method comprises the following steps: - setting (S2) said imaging device with an active area having a long dimension m and a short dimension n , wherein the aspect ratio m:n is strictly inferior to 1.5; - synchronously displacing (S4) the X-ray source and the imaging device along said exposure profile, said exposure profile comprising at least one substantially linear section wherein said X-ray source and said imaging device are translated while rotating in the same direction; and - registering (S5) said multiple frames produced by the imaging device during the exposure of said object to be imaged. - an X-ray source for irradiating an object to be imaged; - an imaging device suitable for producing multiple frames during at least part of an exposure of said object ; - a manipulator for displacing the imaging device along an exposure profile between multiple frames during said at least part of the exposure of said object, the manipulator permitting the movement of the X-ray source and the imaging device by means of a selective translation and selective rotation, - setting (S2) said imaging device with an active area having a long dimension m and a short dimension n , wherein the aspect ratio m:n is strictly inferior to 1.5; - synchronously displacing (S4) the X-ray source and the imaging device along said exposure profile, said exposure profile comprising at least one substantially linear section wherein said X-ray source and said imaging device are translated while rotating in the same direction; and - registering (S5) said multiple frames produced by the imaging device during the exposure of said object to be imaged.
A torque limiting assembly comprising: an input shaft ; an output shaft ; a drive bush ; a motion converter mechanism ; a casing ; and at least one engagement member for engaging the casing; wherein the input shaft is coupled to the drive bush , and the drive bush is coupled to the output shaft by the motion converter mechanism such that, in a low torque mode, rotation of the input shaft drives rotation of the drive bush , motion converter mechanism and output shaft ; wherein the output shaft and the motion converter mechanism are coupled such that, in a high torque mode, rotation of the motion converter mechanism relative to the output shaft about an axis of rotation urges the motion converter mechanism in a direction along the axis of rotation, wherein the motion converter mechanism and drive bush are coupled such that when the motion converter mechanism is urged along said axis of rotation the motion converter mechanism rotates the drive bush relative to the input shaft ; and wherein the engagement member is coupled to both the drive bush and the input shaft such that when the drive bush is rotated relative to the input shaft , the engagement member is moved or urged to engage the casing so as to prevent or inhibit rotation of the input shaft relative to the casing ; characterised in that the axis of rotation is an axis of rotation of both the input and output shafts . an input shaft ; an output shaft ; a drive bush ; a motion converter mechanism ; a casing ; and at least one engagement member for engaging the casing; wherein the input shaft is coupled to the drive bush , and the drive bush is coupled to the output shaft by the motion converter mechanism such that, in a low torque mode, rotation of the input shaft drives rotation of the drive bush , motion converter mechanism and output shaft ; wherein the output shaft and the motion converter mechanism are coupled such that, in a high torque mode, rotation of the motion converter mechanism relative to the output shaft about an axis of rotation urges the motion converter mechanism in a direction along the axis of rotation, wherein the motion converter mechanism and drive bush are coupled such that when the motion converter mechanism is urged along said axis of rotation the motion converter mechanism rotates the drive bush relative to the input shaft ; and wherein the engagement member is coupled to both the drive bush and the input shaft such that when the drive bush is rotated relative to the input shaft , the engagement member is moved or urged to engage the casing so as to prevent or inhibit rotation of the input shaft relative to the casing ; characterised in that the axis of rotation is an axis of rotation of both the input and output shafts .
Device for draining liquids for an aircraft engine , comprising a collector designed to collect liquids drained from the engine, characterised in that said device comprises means for pumping the liquids held in the collector and for discharging said liquids, and monitoring means designed to indicate when the liquids have been collected by the collector in an anomalous manner, said monitoring means being designed to be activated when the flow rate of collected liquids is greater than the delivery of the pumping means , wherein the monitoring means comprise an electrical alarm designed to emit a signal intended for the cockpit of the aircraft.
Process for preparing ethylene glycol from a carbohydrate source, wherein hydrogen, the carbohydrate source, a liquid diluent and a catalyst system are introduced as reactants into a reaction zone; wherein the catalyst system comprises a tungsten compound and ruthenium as hydrogenolysis metal and further at least one promoter metal, selected from transition and post-transition metals; wherein the carbohydrate source is reacted with hydrogen in the presence of the catalyst system to yield a product mixture comprising ethylene glycol and butylene glycol; wherein the carbohydrate source is selected from the group consisting of starch, glucose, sucrose, glucose-oligomers, and combinations thereof, and wherein the weight ratio between ruthenium and the promoter metal or promoter metals is in the range of 10:1 to 70:1, wherein the catalyst system comprises a tungsten compound and ruthenium as hydrogenolysis metal and further at least one promoter metal, selected from Ga, In, TI, Sn, Pb, Bi, Po, Cu, Fe, Ni, Co, Pt, Pd, Rh and/or Ir, and wherein ruthenium and the at least one promoter metal are present in the form of a catalyst supported on a carrier, and wherein the carrier is selected from the group consisting of activated carbon, silica, alumina, silica-alumina, zirconia, titania, niobia, zinc oxide, silica-zirconia, zeolitic aluminosilicates, titanosilicates, magnesia, silicon carbide, clays and combinations thereof.
A dock connector comprising: a dock connector support structure to mate with a corresponding structure of a mating connector of an electronic device ; at least one magnet to magnetically attach the dock connector support structure to the corresponding structure of the mating connector; a first pair of signal contacts , a second pair of signal contacts , and a further contact supported by the dock connector support structure, wherein each signal contact of the first pair and second pair of signal contacts is configured to communicatively connect with a corresponding contact of the mating connector, wherein the first pair of signal contacts are configured to communicate a first differential signal, wherein the second pair of signal contacts are configured to communicate a second differential signal, and wherein the further contact is selected from among a high-power contact to supply power in excess of five watts, and a wireless element contact to connect to a wireless communication element, wherein the first pair of signal contacts is part of a first Universal Serial Bus, USB, interface, and the second pair of signal contacts is part of a second USB interface; and a dock sense contact to electrically connect to a mating sense contact of the mating connector, wherein connection of the dock sense contact and the mating sense contact is to provide an indication of connection of the dock connector and the mating connector. a dock connector support structure to mate with a corresponding structure of a mating connector of an electronic device ; at least one magnet to magnetically attach the dock connector support structure to the corresponding structure of the mating connector; a first pair of signal contacts , a second pair of signal contacts , and a further contact supported by the dock connector support structure, wherein each signal contact of the first pair and second pair of signal contacts is configured to communicatively connect with a corresponding contact of the mating connector, wherein the first pair of signal contacts are configured to communicate a first differential signal, wherein the second pair of signal contacts are configured to communicate a second differential signal, and wherein the further contact is selected from among a high-power contact to supply power in excess of five watts, and a wireless element contact to connect to a wireless communication element, wherein the first pair of signal contacts is part of a first Universal Serial Bus, USB, interface, and the second pair of signal contacts is part of a second USB interface; and a dock sense contact to electrically connect to a mating sense contact of the mating connector, wherein connection of the dock sense contact and the mating sense contact is to provide an indication of connection of the dock connector and the mating connector.
A substrate spacing member which is configured to be disposed between two substrates on which electronic components are mounted at least on one of the two substrates such that the electronic components thereon are configured to be between the two substrates , and to keep a distance between the two substrates constant, the substrate spacing member comprising: spacer portions which are configured to be disposed between the two substrates in contact with both edge portions thereof, to keep a distance between the two substrates constant; a frame body portion that connects the spacer portions together; a branch portion which extends toward a predetermined position between the electronic components between the two substrates , from the frame body portion or the spacer portion ; and a branch holding portion which is provided at the branch portion and holds an electrode , the electrode configured to electrically connect the two substrates and to be positioned and held by the branch holding portion at the predetermined position, wherein each of the spacer portions includes a spacer member which has conductive properties and includes a through hole into which a screw is able to be inserted, and a spacer member holding portion which is formed of an insulating body and holds the spacer member . spacer portions which are configured to be disposed between the two substrates in contact with both edge portions thereof, to keep a distance between the two substrates constant; a frame body portion that connects the spacer portions together; a branch portion which extends toward a predetermined position between the electronic components between the two substrates , from the frame body portion or the spacer portion ; and a branch holding portion which is provided at the branch portion and holds an electrode , the electrode configured to electrically connect the two substrates and to be positioned and held by the branch holding portion at the predetermined position, wherein each of the spacer portions includes a spacer member which has conductive properties and includes a through hole into which a screw is able to be inserted, and a spacer member holding portion which is formed of an insulating body and holds the spacer member .
A computer-implemented method for calculating an authenticity score for a user account, the method comprising: calculating, by an electronic processor of a computer system, a user score in response to at least a portion of profile data associated with at least one social network , professional network and/or other web-based or online environment of a first user account, wherein the calculation comprises comparing at least a portion of the data of the first user account to at least one fake profile model associated with at least one social network , professional network and/or other web-based or online environment; calculating, by the processor, a connections score in response to at least one connection formed between the first user account and at least a second user account through the social network , professional network or other web-based or online environment; calculating, by the processor, an affinity score in response to an overlap between at least a portion of the profile data of the first user account and at least a portion of profile data associated with at least a second user account; combining, by the processor, the calculated user score, the calculated connections score, and the calculated affinity score to yield an authenticity score for at least the first user account; and comparing, by the processor, the calculated authenticity score against an average score range for at least one cluster of other entities with similar affinity scores, wherein the comparison is used to improve the fake profile model. calculating, by an electronic processor of a computer system, a user score in response to at least a portion of profile data associated with at least one social network , professional network and/or other web-based or online environment of a first user account, wherein the calculation comprises comparing at least a portion of the data of the first user account to at least one fake profile model associated with at least one social network , professional network and/or other web-based or online environment; calculating, by the processor, a connections score in response to at least one connection formed between the first user account and at least a second user account through the social network , professional network or other web-based or online environment; calculating, by the processor, an affinity score in response to an overlap between at least a portion of the profile data of the first user account and at least a portion of profile data associated with at least a second user account; combining, by the processor, the calculated user score, the calculated connections score, and the calculated affinity score to yield an authenticity score for at least the first user account; and comparing, by the processor, the calculated authenticity score against an average score range for at least one cluster of other entities with similar affinity scores, wherein the comparison is used to improve the fake profile model.