mhurhangee/patent-ind-claim-en huggingface dataset:
A prosthesis configured to atraumatically engage intralumenal tissue when deployed within a body cavity, the prosthesis comprising: a self-expanding, expandable frame comprising a proximal end and a distal end and having a longitudinal axis extending between the proximal end and the distal end, the frame configured to radially expand and contract for deployment within the body cavity, wherein when the frame is in an expanded configuration, the frame has a bulbous shape with a larger cross-sectional dimension in a middle portion of the frame, a smaller cross-sectional dimension in a proximal portion of the frame, and a smaller cross-sectional dimension in a distal portion of the frame, wherein the middle portion is between the proximal and distal portions; a plurality of generally distally extending anchors extending from the proximal portion of the frame and configured so that when the frame is in an expanded configuration, each distally extending anchor has an end positioned radially outward from the middle portion of the frame, wherein the ends of the distally extending anchors extend distally and parallel or substantially parallel to the longitudinal axis of the frame; and a plurality of distal anchors each connected to the frame at a base, wherein when the frame is in the expanded configuration, each of the plurality of distal anchors extends from the base generally distally before extending generally proximally and radially outwardly from the frame, characterised in that the ends of the distal anchors are positioned radially outward of the ends of the plurality of generally distally extending anchors. a self-expanding, expandable frame comprising a proximal end and a distal end and having a longitudinal axis extending between the proximal end and the distal end, the frame configured to radially expand and contract for deployment within the body cavity, wherein when the frame is in an expanded configuration, the frame has a bulbous shape with a larger cross-sectional dimension in a middle portion of the frame, a smaller cross-sectional dimension in a proximal portion of the frame, and a smaller cross-sectional dimension in a distal portion of the frame, wherein the middle portion is between the proximal and distal portions; a plurality of generally distally extending anchors extending from the proximal portion of the frame and configured so that when the frame is in an expanded configuration, each distally extending anchor has an end positioned radially outward from the middle portion of the frame, wherein the ends of the distally extending anchors extend distally and parallel or substantially parallel to the longitudinal axis of the frame; and a plurality of distal anchors each connected to the frame at a base, wherein when the frame is in the expanded configuration, each of the plurality of distal anchors extends from the base generally distally before extending generally proximally and radially outwardly from the frame, characterised in that the ends of the distal anchors are positioned radially outward of the ends of the plurality of generally distally extending anchors.
Method for recording a service in a local area network, said service consisting of a set of actions to be performed on at least one terminal of the network that is able to provide part of the service, said method including the following steps: • Initial procurement (E0) of a unique identifier of said at least one terminal corresponding to a contactless tag; • Discovering (E2) the capabilities of the terminals of the network; • Acquiring (E3) the capabilities of the discovered terminals; • Constructing (E4) the service in the form of a sequence of actions on at least one discovered terminal, by way of user interface means; • Associating (E5) the service with said unique identifier (UI); • Recording (E6) the service and the associated unique identifier. • Initial procurement (E0) of a unique identifier of said at least one terminal corresponding to a contactless tag; • Discovering (E2) the capabilities of the terminals of the network; • Acquiring (E3) the capabilities of the discovered terminals; • Constructing (E4) the service in the form of a sequence of actions on at least one discovered terminal, by way of user interface means; • Associating (E5) the service with said unique identifier (UI); • Recording (E6) the service and the associated unique identifier.
A compound of formula (IIB) or an N-oxide thereof, or a pharmaceutically acceptable salt or solvate thereof, or a co-crystal thereof: wherein E represents -CH 2 -; Q represents -CH 2 -; Z represents hydrogen or methyl; V represents C-R 22 or N; R 12 represents hydrogen, fluoro, chloro, trifluoromethyl, methyl or ethoxycarbonylethyl; R 15 represents hydrogen, halogen, C 1-6 alkyl, trifluoromethyl, C 1-6 alkoxy, difluoromethoxy or trifluoromethoxy; R 16 represents hydrogen, halogen, cyano, C 1-6 alkyl, trifluoromethyl, difluoromethoxy or amino; R 21 represents hydroxy(C 1-6 )alkyl; R 22 represents hydrogen, halogen or C 1-6 alkyl; and R 23 represents hydrogen, C 1-6 alkyl, trifluoromethyl or C 1-6 alkoxy. E represents -CH 2 -; Q represents -CH 2 -; Z represents hydrogen or methyl; V represents C-R 22 or N; R 12 represents hydrogen, fluoro, chloro, trifluoromethyl, methyl or ethoxycarbonylethyl; R 15 represents hydrogen, halogen, C 1-6 alkyl, trifluoromethyl, C 1-6 alkoxy, difluoromethoxy or trifluoromethoxy; R 16 represents hydrogen, halogen, cyano, C 1-6 alkyl, trifluoromethyl, difluoromethoxy or amino; R 21 represents hydroxy(C 1-6 )alkyl; R 22 represents hydrogen, halogen or C 1-6 alkyl; and R 23 represents hydrogen, C 1-6 alkyl, trifluoromethyl or C 1-6 alkoxy.
An optical range calculation apparatus comprising: a light source configured to emit light in accordance with an indirect time of flight measurement technique; a photonic mixer cell configured to generate and store a plurality of electrical output signals respectively corresponding to a plurality of predetermined phase offset values applied in accordance with the indirect time of flight measurement technique; a signal processing circuit configured to process the plurality of electrical output signals in accordance with the indirect time of flight measurement technique in order to calculate a measurement vector and a measured phase angle from the measurement vector; the signal processing circuit is configured to calculate a phase angle correction value and to apply the calculated phase angle correction value to correct the measured phase angle; and the signal processing circuit is configured to calculate a range using the corrected measured phase angle; the apparatus characterised in that the signal processing circuit is configured to calculate the phase angle correction value using a priori knowledge of a model of a waveform of the light emitted by the light source as reference illumination data, the model being configured by a measured slope time in respect of the light emitted by the light source. a light source configured to emit light in accordance with an indirect time of flight measurement technique; a photonic mixer cell configured to generate and store a plurality of electrical output signals respectively corresponding to a plurality of predetermined phase offset values applied in accordance with the indirect time of flight measurement technique; a signal processing circuit configured to process the plurality of electrical output signals in accordance with the indirect time of flight measurement technique in order to calculate a measurement vector and a measured phase angle from the measurement vector; the signal processing circuit is configured to calculate a phase angle correction value and to apply the calculated phase angle correction value to correct the measured phase angle; and the signal processing circuit is configured to calculate a range using the corrected measured phase angle; the apparatus characterised in that the signal processing circuit is configured to calculate the phase angle correction value using a priori knowledge of a model of a waveform of the light emitted by the light source as reference illumination data, the model being configured by a measured slope time in respect of the light emitted by the light source.
Process for producing a metal mould provided with at least one structured surface bearing a pattern or ornamental motif obtained by applying, to the surface of an initial mould , a first protective layer that reproduces said pattern or ornamental motif and subsequently treating the surface thus prepared with a corrosive substance suitable to create corroded portions , distinct from the uncorroded portions coinciding with said protective layer , characterised in that it also provides applying, directly onto the aforesaid uncorroded portions of the surface of the mould , a second protective layer and subsequent treating the said surface thus obtained with a matting substance, suitable to form a structured surface having corroded portions with a different degree of gloss to that of the aforesaid uncorroded portions , wherein said protective layer is removed from said surface of the mould after said corrosive substance has been applied and said protective layer is removed from said surface of the mould after said matting substance has been applied.
A method for constructing an optimized collection of digital electrocardiogram (ECG) sequences for quantitative stratification of sudden cardiac death (SCD) risk, the method comprising: receiving ECG measurements taken from a first group of individuals who have no history of heart disease and no history of SCD; receiving ECG measurements taken from a second group of individuals who have a history of any type of heart disease but no history of SCD; receiving ECG measurements taken from a third group of individuals who have a history of SCD; identifying, by a processor , an ECG sequence from ECG measurements relatively unique to members of the third group of individuals; and wherein the identifying comprises isolating, and optimally grouping with a processor, ECG sequences indicative of SCD risk, characterised in that the isolating comprises, in a processor, determining quality of alignment of ECG sequences, first derivatives of the ECG sequences and second derivatives of the ECG sequences from multiple individuals of the groups. receiving ECG measurements taken from a first group of individuals who have no history of heart disease and no history of SCD; receiving ECG measurements taken from a second group of individuals who have a history of any type of heart disease but no history of SCD; receiving ECG measurements taken from a third group of individuals who have a history of SCD; identifying, by a processor , an ECG sequence from ECG measurements relatively unique to members of the third group of individuals; and wherein the identifying comprises isolating, and optimally grouping with a processor, ECG sequences indicative of SCD risk, characterised in that the isolating comprises, in a processor, determining quality of alignment of ECG sequences, first derivatives of the ECG sequences and second derivatives of the ECG sequences from multiple individuals of the groups.
A baling device to form bales of crop material, comprising: - a frame , - an intake device having an inlet and an outlet , wherein the intake device is arranged on the frame to take in crop material via the Inlet, - a bale forming device arranged on the frame for forming a bale from said crop material, and - a pre-baling device arranged between the intake device and the bale forming device to form, when desired, a pre-bale (PB), wherein the pre-baling device comprises a lower conveyor belt and an upper conveyor belt , between which a pre-bale (PB) can be formed, wherein at least one of the lower and upper conveyor belt is movable to and from the other of the lower and upper conveyor belt , wherein each of the lower conveyor belt and the upper conveyor belt have a first end arranged next to the intake device and a second end arranged next to the bale forming device , wherein each of the lower conveyor belt and the upper conveyor belt comprises an endless belt and a first roller and a second roller , wherein the first roller is arranged at the first end of the conveyor belt and the second roller is arranged at the second end of the conveyor belt, wherein said pre-baling device can at least be arranged in a baling position in which crop material is transferred from the outlet of the intake device to the bale forming device , and a pre-baling position in which crop material is received in the pre-baling device to form a pre-bale (PB), wherein in the baling position the lower conveyor belt and the upper conveyor belt are driven in the same direction to directly transfer crop material from the outlet of the intake device to the bale forming device , and wherein in the pre-baling position the lower conveyor belt and the upper conveyor belt are driven in opposite directions characterized in that in the pre-baling position the second ends of the lower and upper conveyor belts are closer to each other than the first ends, in that when in the baling position the second roller of the upper conveyor belt is in an upper position, and in that when in the pre-baling position the second roller of the upper conveyor belt is closer to the second roller of the lower conveyor belt than when in the upper position. - a frame , - an intake device having an inlet and an outlet , wherein the intake device is arranged on the frame to take in crop material via the Inlet, - a bale forming device arranged on the frame for forming a bale from said crop material, and - a pre-baling device arranged between the intake device and the bale forming device to form, when desired, a pre-bale (PB),
Subassembly for a metal-ion electrochemical accumulator (A1), comprising: - an electrically conductive part of a bushing intended to form a terminal of the accumulator, the part internally comprising a passage, intended to emerge out of one of its ends of the accumulator; - a mandrel of longitudinal axis (X) and of winding of the electrochemical cell of the accumulator, the mandrel being electrically conductive and internally comprising a passage intended to emerge out of the accumulator at the other of its ends; - an electrical insulation element between the electrically conductive terminal part and the electrically conductive winding mandrel , the insulation part comprising a passage emerging both in the passage of the terminal part and the passage of the winding mandrel, the passages being intended to convey a coolant of the accumulator. - an electrically conductive part of a bushing intended to form a terminal of the accumulator, the part internally comprising a passage, intended to emerge out of one of its ends of the accumulator; - a mandrel of longitudinal axis (X) and of winding of the electrochemical cell of the accumulator, the mandrel being electrically conductive and internally comprising a passage intended to emerge out of the accumulator at the other of its ends; - an electrical insulation element between the electrically conductive terminal part and the electrically conductive winding mandrel , the insulation part comprising a passage emerging both in the passage of the terminal part and the passage of the winding mandrel, the passages being intended to convey a coolant of the accumulator.
A nonaqueous electrolyte energy storage device comprising a negative electrode including graphite and graphitizable carbon, wherein a ratio of a mass of the graphitizable carbon to a total mass of the graphite and the graphitizable carbon is less than 26% by mass, wherein a median diameter of the graphitizable carbon is smaller than a median diameter of the graphite, and wherein a ratio (graphitizable carbon/graphite) of the median diameter of the graphitizable carbon to the median diameter of the graphite is 0.28 or less. wherein a ratio of a mass of the graphitizable carbon to a total mass of the graphite and the graphitizable carbon is less than 26% by mass, wherein a median diameter of the graphitizable carbon is smaller than a median diameter of the graphite, and wherein a ratio (graphitizable carbon/graphite) of the median diameter of the graphitizable carbon to the median diameter of the graphite is 0.28 or less.
A replaceable consumable component of a thermal processing torch configured to communicate with a radio-frequency identification (RFID) reader located inside of the thermal processing torch, the replaceable consumable component comprising: a body; and a readable data storage device (202, 1202a-g), comprising a radio-frequency identification (RFID) tag, coupled to the body or integrated within the body, wherein the readable data storage device contains an operation instruction for the thermal processing torch comprising one of a cutting program, electrical current or gas ramping profile, firmware update, set up value of system, cut cycle or life data, gas flow rate, pierce delay time, timing parameter, set point, error condition, threshold or coordination of multiple parameters, wherein the readable data storage device is configured to be readable by the RFID reader, characterised in that the operation instruction is configured to produce, when used in operation, an altered performance characteristic of the thermal processing torch relative to an original performance characteristic that would be possible using a substantially similar replaceable consumable component that is not configured to transfer data to the RFID reader. a body; and a readable data storage device (202, 1202a-g), comprising a radio-frequency identification (RFID) tag, coupled to the body or integrated within the body, wherein the readable data storage device contains an operation instruction for the thermal processing torch comprising one of a cutting program, electrical current or gas ramping profile, firmware update, set up value of system, cut cycle or life data, gas flow rate, pierce delay time, timing parameter, set point, error condition, threshold or coordination of multiple parameters, wherein the readable data storage device is configured to be readable by the RFID reader, characterised in that the operation instruction is configured to produce, when used in operation, an altered performance characteristic of the thermal processing torch relative to an original performance characteristic that would be possible using a substantially similar replaceable consumable component that is not configured to transfer data to the RFID reader.
A method for producing a packaging laminate in which an externally arranged sealing layer comprising a polyethylene content of at least 80 vol% is bonded with a substrate layer comprising a polyethylene content of at least 60 vol%, preferably at least 70 vol%, and particularly preferably at least 80 vol%, and with a thermal stabilization layer , wherein the thermal stabilization layer is arranged externally opposite the sealing layer , and the substrate layer is arranged between the sealing layer and the thermal stabilization layer , characterized in that the thermal stabilization layer is produced from ethylene-vinyl alcohol copolymer, and the thickness of the thermal stabilization layer constitutes up to 10%, preferably up to 5%, of the total thickness of the packaging laminate , but no more than 10 μm.
A composition, comprising: a) one or more polyethylene; b) one or more polypropylene; c) one or more polyolefin elastomer; and d) a crystalline block composite comprising three components: i) a crystalline ethylene based polymer, ii) a crystalline propylene based polymer, and iii) a block copolymer having a crystalline ethylene based block and a crystalline propylene block, wherein the composition of component i) is the same as the crystalline ethylene based block of the block copolymer and the composition of component ii) is the same as the crystalline propylene block of the block copolymer; wherein the one or more polyolefin elastomer includes an olefin block copolymer having an ethylene/a-olefin copolymer. a) one or more polyethylene; b) one or more polypropylene; c) one or more polyolefin elastomer; and d) a crystalline block composite comprising three components: i) a crystalline ethylene based polymer, ii) a crystalline propylene based polymer, and iii) a block copolymer having a crystalline ethylene based block and a crystalline propylene block, wherein the composition of component i) is the same as the crystalline ethylene based block of the block copolymer and the composition of component ii) is the same as the crystalline propylene block of the block copolymer; i) a crystalline ethylene based polymer, ii) a crystalline propylene based polymer, and iii) a block copolymer having a crystalline ethylene based block and a crystalline propylene block,
An electromechanical shear for vertical cutting comprising cutting means, the cutting means comprising at least a first knife and at least a second knife , the first knife being attached to a guillotine and following the vertical movement of the guillotine , the shear further comprising - an electric servomotor for driving a gear reducer , - the gear reducer driving at least one shaft bearing one or more spools , - each spool being connected to the guillotine by a respective motion transmission means , characterized in that the shear further comprises a pulley system cooperating with each motion transmission means . - an electric servomotor for driving a gear reducer , - the gear reducer driving at least one shaft bearing one or more spools , - each spool being connected to the guillotine by a respective motion transmission means ,
A method for operating a combined cycle power plant (CCPP) , the method comprising: operating the CCPP at an ambient condition and a load condition ; generating a power plant model of the CCPP for operating at the ambient condition and the load condition ; modeling a fuel consumption using a baseline control profile and the power plant model of the CCPP at the ambient condition and the load condition ; creating a variant control profile for the CCPP ; determining, using the power plant model , whether the variant control profile meets a quality threshold for the CCPP , the quality threshold including at least a fuel efficiency of the CCPP ; modifying the variant control profile in response to the variant control profile not meeting the quality threshold ; and adjusting the CCPP to use the variant control profile in response to the variant control profile meeting the quality threshold , wherein the variant control profile adjusts a turbine section inlet temperature schedule or an exhaust temperature schedule for the CCPP . operating the CCPP at an ambient condition and a load condition ; generating a power plant model of the CCPP for operating at the ambient condition and the load condition ; modeling a fuel consumption using a baseline control profile and the power plant model of the CCPP at the ambient condition and the load condition ; creating a variant control profile for the CCPP ; determining, using the power plant model , whether the variant control profile meets a quality threshold for the CCPP , the quality threshold including at least a fuel efficiency of the CCPP ; modifying the variant control profile in response to the variant control profile not meeting the quality threshold ; and adjusting the CCPP to use the variant control profile in response to the variant control profile meeting the quality threshold , wherein the variant control profile adjusts a turbine section inlet temperature schedule or an exhaust temperature schedule for the CCPP .