mhurhangee/ep-ind-claims huggingface dataset:
A high-thermal-sensitivity ablation catheter tip, the tip comprising: an electrically-conductive housing comprising a conductive shell; a thermally-insulative tip insert, wherein the conductive shell surrounds at least a portion of the tip insert; and a flexible electronic circuit (290; 330; 340; 350) distributed around the tip insert, and including a plurality of thermal sensors in thermal communication with the conductive shell and configured to provide temperature feedback, wherein the plurality of thermal sensors are distributed across at least one of a length and width of the flexible electronic circuit (290; 330; 340; 350), and a wired or wireless communication pathway at least partially disposed on the flexible electronic circuit (290; 330; 340; 350), communicatively connected to the plurality of thermal sensors, and configured to report the temperature feedback to an ablation control system, wherein the plurality of thermal sensors are configured in two circumferential rings around the tip insert, where the first circumferential ring is longitudinally offset relative to the second circumferential ring, and characterized in that the thermal sensors are mounted inside an inner surface of the conductive shell. an electrically-conductive housing comprising a conductive shell; a thermally-insulative tip insert, wherein the conductive shell surrounds at least a portion of the tip insert; and a flexible electronic circuit (290; 330; 340; 350) distributed around the tip insert, and including a plurality of thermal sensors in thermal communication with the conductive shell and configured to provide temperature feedback, wherein the plurality of thermal sensors are distributed across at least one of a length and width of the flexible electronic circuit (290; 330; 340; 350), and a wired or wireless communication pathway at least partially disposed on the flexible electronic circuit (290; 330; 340; 350), communicatively connected to the plurality of thermal sensors, and configured to report the temperature feedback to an ablation control system, a plurality of thermal sensors in thermal communication with the conductive shell and configured to provide temperature feedback, wherein the plurality of thermal sensors are distributed across at least one of a length and width of the flexible electronic circuit (290; 330; 340; 350), and a wired or wireless communication pathway at least partially disposed on the flexible electronic circuit (290; 330; 340; 350), communicatively connected to the plurality of thermal sensors, and configured to report the temperature feedback to an ablation control system, wherein the plurality of thermal sensors are configured in two circumferential rings around the tip insert, where the first circumferential ring is longitudinally offset relative to the second circumferential ring, and characterized in that the thermal sensors are mounted inside an inner surface of the conductive shell.
A method of making thermoplastic film, comprising extruding a thermoplastic extrudate in the form of a web in its molten state, locating a chill roller operating at a peripheral velocity (V 1) and at a temperature (T 1) to receive and cool said web thereby forming a film, locating a second roller operating at a peripheral velocity (V 2) greater than said V 1 to receive said film at a temperature (T 2), spacing said second roller from said chill roller to provide a roll gap of no more than one inch (25.4 mm) between said chill roller and said second roller for stretching said film, uniformly stretching said film in said roll gap at a stretch temperature between said T 1 and T 2 at a speed between said V 1 and V 2 to form stretched thermoplastic film having a substantially uniform gauge.
A packing ring having at least three ring segments each having a first segment end and a second segment end in the circumferential direction, wherein a first tangential contact surface of the first segment end of a ring segment abuts a second tangential contact surface of the second segment end of a ring segment adjoining it in the circumferential direction to create a radial seal of the packing ring and a first axial contact surface, facing toward a first axial ring end of the packing ring, of the first segment end of a ring segment abuts a second axial contact surface, facing toward a second axial ring end of the packing ring, of the second segment end of a ring segment adjoining it in the circumferential direction to create an axial seal of the packing ring, characterized in that at least one relief opening is provided on at least one ring segment, which extends from a radially inside inner circumferential surface of the ring segment to a radially outside outer circumferential surface and/or to the second axial ring end of the ring segment, wherein at least a portion of the at least one relief opening adjoining the radially inside inner circumferential surface of the ring segment is inclined or curved in the direction of the first axial ring end.
Method for operating a brake system for motor vehicles, comprising: • a master brake cylinder which can be actuated by means of a brake pedal and which is separably (14a, 14b) connected to at least one brake circuit (I, II) with at least one hydraulically actuable wheel brake, wherein a first variable (P THZ) which characterizes a pressure in the master brake cylinder and a second variable (S Pedal) which characterizes an actuation travel of the brake pedal are measured at least from time to time, • a hydraulically actuable pedal travel simulator which is or can be connected to the master brake cylinder and which is designed so as to be capable of being switched on and off by means of a simulator release valve, • an electrically controllable pressure supply device which is separably (27a, 27b) connected to the brake circuit (I, II) and which is formed, in particular, by a cylinder-piston arrangement whose piston can be actuated by an electromechanical actuator, and • an electronic open-loop and closed-loop control unit for activating the electrically controllable pressure supply device and valves (20, 14a, 14b, 27a, 27b, 28a-d, 29a-d) of the brake system, wherein, when the brake pedal is actuated, in a first operating mode (Z A) the brake circuit (I, II) is provided with a pressure (P Setp) of the pressure supply device, and in a second operating mode (Z P) it is provided with the pressure (P THZ) of the master brake cylinder, characterized in that in the case of a changeover from the second operating mode (Z P) into the first operating mode (Z A) during actuation of the brake pedal the actuation travel (S Pedal) of the brake pedal is adjusted under electronic open-loop or closed-loop control. • a master brake cylinder which can be actuated by means of a brake pedal and which is separably (14a, 14b) connected to at least one brake circuit (I, II) with at least one hydraulically actuable wheel brake, wherein a first variable (P THZ) which characterizes a pressure in the master brake cylinder and a second variable (S Pedal) which characterizes an actuation travel of the brake pedal are measured at least from time to time, • a hydraulically actuable pedal travel simulator which is or can be connected to the master brake cylinder and which is designed so as to be capable of being switched on and off by means of a simulator release valve, • an electrically controllable pressure supply device which is separably (27a, 27b) connected to the brake circuit (I, II) and which is formed, in particular, by a cylinder-piston arrangement whose piston can be actuated by an electromechanical actuator, and • an electronic open-loop and closed-loop control unit for activating the electrically controllable pressure supply device and valves (20, 14a, 14b, 27a, 27b, 28a-d, 29a-d) of the brake system,
A device for covering a loading space comprising a fabric that can be moved between a folded position and at least two deployed positions, guided by a drive element along two guide rails, the drive element carrying, at the ends of same, pads that slide within a continuous straight groove of said rails, characterized in that said rails have, at an intermediate position along the course of the rails, a switch and a V-shaped groove that join on the continuous straight groove, capable of allowing the stopping and/or the sliding of the pads into an intermediate position.
Method for producing a vehicle tyre with a tyre carcass, tyre beads with cores, a tyre breaker belt and a tread rubber, comprising the following steps: a) completing a tyre carcass on a carcass drum, wherein no tyre building parts in the form of sidewalls are fitted on the carcass drum, b) arranging sidewalls on a shaping drum, c) moving the tyre carcass over the sidewalls arranged on the shaping drum, wherein the sidewalls have with respect to the tyre bead of the tyre carcass an inner sidewall component projecting on the inner side and an outer sidewall component projecting on the outer side, d) carrying out a core clamping with combined core-clamping segments of the shaping drum, wherein the combined core-clamping segment comprises a core-clamping segment that can expand in the radial direction and a tuck lifter that can expand, wherein the sidewalls lying on the shaping drum, with the coaxially positioned tyre carcass, are connected to the tyre carcass in the region of the tyre bead by way of a core clamping in the radial direction, e) turning up the inner sidewall component with a tuck lifter of the combined core-clamping segment in the radial direction, wherein the tuck lifter expands in the radial direction and the inner sidewall component is thereby connected to the inner side of the tyre carcass, f) continuing or initiating a process of shaping the tyre carcass with the joined-on sidewalls, wherein the outer sidewall components are turned up laterally against the tyre carcass by a turning-up means, g) completing the tyre blank by a conventional method of production. a) completing a tyre carcass on a carcass drum, wherein no tyre building parts in the form of sidewalls are fitted on the carcass drum, b) arranging sidewalls on a shaping drum, c) moving the tyre carcass over the sidewalls arranged on the shaping drum, wherein the sidewalls have with respect to the tyre bead of the tyre carcass an inner sidewall component projecting on the inner side and an outer sidewall component projecting on the outer side, d) carrying out a core clamping with combined core-clamping segments of the shaping drum, wherein the combined core-clamping segment comprises a core-clamping segment that can expand in the radial direction and a tuck lifter that can expand, wherein the sidewalls lying on the shaping drum, with the coaxially positioned tyre carcass, are connected to the tyre carcass in the region of the tyre bead by way of a core clamping in the radial direction, e) turning up the inner sidewall component with a tuck lifter of the combined core-clamping segment in the radial direction, wherein the tuck lifter expands in the radial direction and the inner sidewall component is thereby connected to the inner side of the tyre carcass, f) continuing or initiating a process of shaping the tyre carcass with the joined-on sidewalls, wherein the outer sidewall components are turned up laterally against the tyre carcass by a turning-up means, g) completing the tyre blank by a conventional method of production.
A gelling agent comprising N-acyl acidic amino acid dialkylamide represented by the formula: wherein R 1 and R 2 are each independently a straight chain or branched chain alkyl group having 1 - 7 carbon atoms, R 3 is a straight chain or branched chain alkyl group having 3 - 15 carbon atoms, and n is 1 or 2, and having a DL form ratio (D form/L form (weight/weight)) of 5/95 - 20/80 or 80/20 - 95/5.
A dispenser for dispensing sheet material, comprising: a body having four side walls (32, 34, 36, 38), a base and an opening in a top of said body, said base comprising end walls (33, 35) extending substantially perpendicular to said base and parallel to said side walls (32, 34, 36, 38) so that said dispenser is partially double walled; a platform that supports the sheet material, said platform being movable; means for guiding said platform within said body; characterized in that: a lid is connected at said top of said body and covering said opening, said lid having a slot therein for dispensing a sheet material therethrough; and said platform is movable from a first position adjacent said lid to a second position spaced apart from said lid. a body having four side walls (32, 34, 36, 38), a base and an opening in a top of said body, said base comprising end walls (33, 35) extending substantially perpendicular to said base and parallel to said side walls (32, 34, 36, 38) so that said dispenser is partially double walled; a platform that supports the sheet material, said platform being movable; means for guiding said platform within said body; characterized in that: a lid is connected at said top of said body and covering said opening, said lid having a slot therein for dispensing a sheet material therethrough; and said platform is movable from a first position adjacent said lid to a second position spaced apart from said lid. a lid is connected at said top of said body and covering said opening, said lid having a slot therein for dispensing a sheet material therethrough; and said platform is movable from a first position adjacent said lid to a second position spaced apart from said lid.
A method of preparing a sizing boost additive, comprising the steps of I) combining a lignin oil and an aqueous solution of gelatinized cationic polysaccharide, and optionally water, to obtain a lignin/polysaccharide blend, wherein the lignin oil is obtained by base catalyzed depolymerization of lignin; and the gelatinized cationic polysaccharide is prepared by cooking dry cationic polysaccharide in water until completely gelatinized; and wherein the lignin oil and the cationic polysaccharide are included in the lignin/polysaccharide blend so that a weight ratio of lignin oil:polysaccharide in the blend is 1:0.5-2, preferably 1:0.9-1.1, where the weight of the polysaccharide is the weight of dry polysaccharide added in preparation of the aqueous solution of gelatinized cationic polysaccharide; and the combined weight of lignin and polysaccharide is 1-10 wt-% based on the total weight of the resulting blend; followed by II) mixing the lignin/polysaccharide blend at a temperature of 40 -100°C, preferably 90-95°C, until the blend has changed color from grey-white to brown. I) combining a lignin oil and an aqueous solution of gelatinized cationic polysaccharide, and optionally water, to obtain a lignin/polysaccharide blend, wherein the lignin oil is obtained by base catalyzed depolymerization of lignin; and the gelatinized cationic polysaccharide is prepared by cooking dry cationic polysaccharide in water until completely gelatinized; and wherein the lignin oil and the cationic polysaccharide are included in the lignin/polysaccharide blend so that a weight ratio of lignin oil:polysaccharide in the blend is 1:0.5-2, preferably 1:0.9-1.1, where the weight of the polysaccharide is the weight of dry polysaccharide added in preparation of the aqueous solution of gelatinized cationic polysaccharide; and the combined weight of lignin and polysaccharide is 1-10 wt-% based on the total weight of the resulting blend; followed by the lignin oil is obtained by base catalyzed depolymerization of lignin; and the gelatinized cationic polysaccharide is prepared by cooking dry cationic polysaccharide in water until completely gelatinized; and wherein the lignin oil and the cationic polysaccharide are included in the lignin/polysaccharide blend so that a weight ratio of lignin oil:polysaccharide in the blend is 1:0.5-2, preferably 1:0.9-1.1, where the weight of the polysaccharide is the weight of dry polysaccharide added in preparation of the aqueous solution of gelatinized cationic polysaccharide; and the combined weight of lignin and polysaccharide is 1-10 wt-% based on the total weight of the resulting blend; followed by II) mixing the lignin/polysaccharide blend at a temperature of 40 -100°C, preferably 90-95°C, until the blend has changed color from grey-white to brown.
Mould container part, comprising: - one or more mould containers, each having a mould cavity bounded by a base and at least a first and a second side wall on opposite sides of the mould cavity; and - a sealing strip extending outward from the first side wall, wherein said sealing strip is arranged in an intermediate part, characterized in that - the sealing strip comprises an anchoring part and a compression part extending outward from the anchoring part; - wherein the anchoring part of the sealing strip comprises on a side remote from the compression part a thickened portion of cylindrical cross-section and is received in a corresponding accommodation of the mould container part; and - wherein a narrowed portion is provided between the thickened portion of the anchoring part and the compression part; and - said mould container part further comprising a counter-intermediate part which has a shape which is complementary to the shape of the compression part, and wherein the intermediate part and counter-intermediate part are configured to be, during use, intermediate the first wall of the mould container part and the second side wall of an adjacent mould container part. - one or more mould containers, each having a mould cavity bounded by a base and at least a first and a second side wall on opposite sides of the mould cavity; and - a sealing strip extending outward from the first side wall, wherein said sealing strip is arranged in an intermediate part, characterized in that - the sealing strip comprises an anchoring part and a compression part extending outward from the anchoring part; - wherein the anchoring part of the sealing strip comprises on a side remote from the compression part a thickened portion of cylindrical cross-section and is received in a corresponding accommodation of the mould container part; and - wherein a narrowed portion is provided between the thickened portion of the anchoring part and the compression part; and - said mould container part further comprising a counter-intermediate part which has a shape which is complementary to the shape of the compression part, and wherein the intermediate part and counter-intermediate part are configured to be, during use, intermediate the first wall of the mould container part and the second side wall of an adjacent mould container part.
A method for encoding a sequence of pictures of a video stream of multiple pictures to be performed in an encoder, the method comprises: - deciding whether all the pictures in said sequence are divided in the same way by tiles using a tile structure, - sending information of the tile structure which the current pictures is divided in and - sending information that the same tile structure is used for all pictures throughout the sequence of the video stream when the same tile structure is used for all pictures throughout the sequence of the video stream. - deciding whether all the pictures in said sequence are divided in the same way by tiles using a tile structure, - sending information of the tile structure which the current pictures is divided in and - sending information that the same tile structure is used for all pictures throughout the sequence of the video stream when the same tile structure is used for all pictures throughout the sequence of the video stream.
A method of wireless communication at a user equipment, UE, the method comprising: receiving a configuration for a first set of multiple configurable bandwidth sizes for receiving unicast services, wherein the configuration includes a master information block, MIB, that indicates one bandwidth size of the first set of multiple configurable bandwidth sizes for receiving unicast services and that indicates a system information block, SIB; receiving the SIB; determining a multicast broadcast, MB, bandwidth size for receiving an MB service, the MB bandwidth size being different than each bandwidth size in the set of multiple configurable bandwidth sizes for receiving unicast services, wherein determining the MB bandwidth size is further based on one or more information elements in the SIB that indicate the MB bandwidth size as being different than the one bandwidth size, wherein the SIB configures a multicast-broadcast single-frequency network, MBSFN, area, of a number of different MBSFN areas, for the MB service, wherein the number of different MBSFN areas have different bandwidth sizes; and receiving the MB service over an MB bandwidth of the MB bandwidth size. receiving a configuration for a first set of multiple configurable bandwidth sizes for receiving unicast services, wherein the configuration includes a master information block, MIB, that indicates one bandwidth size of the first set of multiple configurable bandwidth sizes for receiving unicast services and that indicates a system information block, SIB; receiving the SIB; determining a multicast broadcast, MB, bandwidth size for receiving an MB service, the MB bandwidth size being different than each bandwidth size in the set of multiple configurable bandwidth sizes for receiving unicast services, wherein determining the MB bandwidth size is further based on one or more information elements in the SIB that indicate the MB bandwidth size as being different than the one bandwidth size, wherein the SIB configures a multicast-broadcast single-frequency network, MBSFN, area, of a number of different MBSFN areas, for the MB service, wherein the number of different MBSFN areas have different bandwidth sizes; and receiving the MB service over an MB bandwidth of the MB bandwidth size.
A base for a produce box for storing produce, including: (a) a series of side wall sections (14a, 14b, 14c, 14d) coupled together to form a parallelogram; (b) a bottom end section coupled to the wall sections (14a, 14b, 14c, 14d); (c) pairs of major score vents (28a, 28b) located centrally on respective top and bottom scores of each side wall section (14a, 14c) of a first opposed pair of said side wall sections (14a, 14b, 14c, 14d); and (d) two pairs of spaced apart minor score vents (42a, 42b) respectively located on top and bottom scores of each side wall section (14b, 14d) of a second opposed pair of side wall sections (14a, 14b, 14c, 14d), said base being characterized in that pairs of face vents (24a, 24b) are located in spaced apart lateral sections of respective ones of said side wall sections (14a, 14b, 14c, 14d), and in that the pairs of face vents (24a, 24b) of the base are located centrally between the top and bottom scores, and in that the face vents (24a, 24b) of the base are located close to corners of the base. (a) a series of side wall sections (14a, 14b, 14c, 14d) coupled together to form a parallelogram; (b) a bottom end section coupled to the wall sections (14a, 14b, 14c, 14d); (c) pairs of major score vents (28a, 28b) located centrally on respective top and bottom scores of each side wall section (14a, 14c) of a first opposed pair of said side wall sections (14a, 14b, 14c, 14d); and (d) two pairs of spaced apart minor score vents (42a, 42b) respectively located on top and bottom scores of each side wall section (14b, 14d) of a second opposed pair of side wall sections (14a, 14b, 14c, 14d), said base being characterized in that