mhurhangee/patent-ind-claim-en huggingface dataset:
A turbine nozzle comprising several angular nozzle sectors , each angular sector comprising two coaxial circular arc-shaped inner and outer platform sectors respectively, interconnected by several radial or substantially radial blades , each inner platform sector being secured to a radially inner foot , this nozzle comprising an annular shroud on which said angular nozzle sectors are fixed circumferentially end to end, this shroud comprising a cylindrical ring whose radially inner face carries an abradable material , characterized in that the radially inner foot of each inner platform sector comprises a tab , which extends radially inwards from said foot , and which extends circumferentially over part of the length of said foot, in that the radially outer face of said cylindrical ring carries an outer radial wing , provided with a plurality of L-shaped legs , whose one of the branches called "fixing" branches is secured to the outer radial wing and extends perpendicularly to a radius of the ring and parallel to the longitudinal axis X1-X'1 of said ring and whose other branch called "retaining" branch extends opposite this outer radial wing and at a short distance therefrom, so as to arrange therewith a slot for receiving said tab of each angular nozzle sector and in that this slot is open at one of its longitudinal ends to allow the engagement of said tab , so as to ensure the fixing by dog clutching of said shroud on each angular nozzle sector .
A honeycomb having cell walls comprising paper having an average specific tensile index of 60 (lbs/in)/opsy (310Nm/g) as measured according to the description or greater; the paper comprising 30 to 50 parts by weight aliphatic polyamide binder and 50 to 70 parts by weight poly(paraphenylene terephthalamide) fiber having a modulus of 600 grams per denier (550 grams per dtex) as measured according to the description or greater, based on the total amount of aliphatic polyamide binder and PPD-T fiber in the paper; and voids in the paper being filled with the aliphatic polyamide binder.
An aluminum-alloy-based powder comprising magnesium, zirconium and scandium for producing part blanks and finished parts by additive technologies, characterized in that the aluminum-alloy-based powder has a reduced scandium content and further comprises oxygen and calcium at the following ratio of components (wt.%): Magnesium 4.0-6.5, Zirconium 0.5-1.0, Scandium 0.2-0.6, Oxygen 0.001-0.2, Calcium 0.005-0.2, Al and inevitable impurities remainder.
Method for checking and/or monitoring the use of a tyre mounted on a vehicle , comprising the following steps: - acquisition, by a microphone arranged inside the tyre, of an acoustic response of said tyre obtained under the effect of a pulsed mechanical stress on said tyre when stopped, - processing of said acoustic response in the frequency domain by a computerized data processing unit, characterized in that said processing identifies, in the response in the frequency domain, two spectral spikes situated on either side of a reference frequency corresponding to the first cavity mode of the tyre and, as a function of the frequency deviation between the two duly identified spikes, determines information concerning at least one parameter of use of the tyre. - acquisition, by a microphone arranged inside the tyre, of an acoustic response of said tyre obtained under the effect of a pulsed mechanical stress on said tyre when stopped, - processing of said acoustic response in the frequency domain by a computerized data processing unit,
An epoxy resin composition comprising (A) an epoxy resin; (B) a polycarboxylic anhydride containing a structural unit represented by formula wherein A represents a cycloalkylene group or a group in which two or more cycloalkylene groups are bonded via a single bond or a divalent group, the cycloalkylene group or the two or more cycloalkylene groups being optionally substituted; R 1 to R 10 are identical or different and each represent a hydrogen atom or an optionally substituted C 1-10 alkyl group, and two groups of R 1 to R 10 may be taken together to form a divalent group; and (C) a phosphonium compound represented by formula wherein R 11 to R 14 are identical or different and each represent a C 1-18 alkyl group or an optionally substituted aryl group, and Z - represents an organic anion. (A) an epoxy resin; (B) a polycarboxylic anhydride containing a structural unit represented by formula wherein A represents a cycloalkylene group or a group in which two or more cycloalkylene groups are bonded via a single bond or a divalent group, the cycloalkylene group or the two or more cycloalkylene groups being optionally substituted; R 1 to R 10 are identical or different and each represent a hydrogen atom or an optionally substituted C 1-10 alkyl group, and two groups of R 1 to R 10 may be taken together to form a divalent group; and wherein A represents a cycloalkylene group or a group in which two or more cycloalkylene groups are bonded via a single bond or a divalent group, the cycloalkylene group or the two or more cycloalkylene groups being optionally substituted; R 1 to R 10 are identical or different and each represent a hydrogen atom or an optionally substituted C 1-10 alkyl group, and two groups of R 1 to R 10 may be taken together to form a divalent group; and (C) a phosphonium compound represented by formula wherein R 11 to R 14 are identical or different and each represent a C 1-18 alkyl group or an optionally substituted aryl group, and Z - represents an organic anion.
An improved method for preparing the cis-para-substituted cyclohexylaminonitrile maleate represented by Formula (I): In the above Formula (I), R 1 is C 1-10 alkyl or alkyloxy, C 1-10 alkenyl or alkenyloxy, C 1-10 alkynyl or alkynyloxy, C 1-10 cycloalkyl or cycloalkyloxy, C 1-10 heterocycloalkyl or heterocycloalkyloxy containing 1-2 heteroatoms selected from O and N, HX is maleic acid. The method includes adding 0.3-0.55 mole times maleic acid to the organic solvent solution of the cis/trans para-substituted cyclohexyl aminonitrile compound corresponding to Formula (I) above, performing stirring and ultrasonic treatment, then separating to obtain the cis-para-substituted cyclohexyl aminonitrile maleate as shown in Formula (I) above. In the above Formula (I), R 1 is C 1-10 alkyl or alkyloxy, C 1-10 alkenyl or alkenyloxy, C 1-10 alkynyl or alkynyloxy, C 1-10 cycloalkyl or cycloalkyloxy, C 1-10 heterocycloalkyl or heterocycloalkyloxy containing 1-2 heteroatoms selected from O and N, HX is maleic acid. The method includes adding 0.3-0.55 mole times maleic acid to the organic solvent solution of the cis/trans para-substituted cyclohexyl aminonitrile compound corresponding to Formula (I) above, performing stirring and ultrasonic treatment, then separating to obtain the cis-para-substituted cyclohexyl aminonitrile maleate as shown in Formula (I) above.
Apparatus for a neuromodulation system (210; 520; 624; 1711-1713), comprising: neuromodulation generator circuitry (212; 312; 512; 626; 726; 1776) configured to use electrodes (211; 311; 511; 631; 725; 1044; 1145; 1711) of an electrode arrangement to generate neuromodulation fields including: a therapeutic neuromodulation field to produce a therapeutic effect in therapy-targeted neural tissue; and a priming field to produce a priming effect in priming-targeted neural tissue, wherein the priming effect causes a change in sensitization of the priming-targeted neural tissue to the therapeutic neuromodulation field; and a controller (213; 413; 522; 1712, 1713) configured to execute a set of startup operations of the neuromodulation system, the set of startup operations including in-situ electrical measurements to determine a type of electrode arrangement, and to cause the neuromodulation generator circuitry (212; 312; 512; 626; 726; 1776) to initiate the priming field in response to completion of the set of startup operations. neuromodulation generator circuitry (212; 312; 512; 626; 726; 1776) configured to use electrodes (211; 311; 511; 631; 725; 1044; 1145; 1711) of an electrode arrangement to generate neuromodulation fields including: a therapeutic neuromodulation field to produce a therapeutic effect in therapy-targeted neural tissue; and a priming field to produce a priming effect in priming-targeted neural tissue, wherein the priming effect causes a change in sensitization of the priming-targeted neural tissue to the therapeutic neuromodulation field; and a therapeutic neuromodulation field to produce a therapeutic effect in therapy-targeted neural tissue; and a priming field to produce a priming effect in priming-targeted neural tissue, wherein the priming effect causes a change in sensitization of the priming-targeted neural tissue to the therapeutic neuromodulation field; and a controller (213; 413; 522; 1712, 1713) configured to execute a set of startup operations of the neuromodulation system, the set of startup operations including in-situ electrical measurements to determine a type of electrode arrangement, and to cause the neuromodulation generator circuitry (212; 312; 512; 626; 726; 1776) to initiate the priming field in response to completion of the set of startup operations.
A purified mutant pneumolysin comprising an amino acid sequence of SEQ ID NO:40.
A method including: - receiving a time sequence of images (C) of an environment around a laserlight beam source , - processing (100; 102, 104, 106) the time sequence of images by detecting the presence of at least one laserlight-sensitive region therein and calculating a pixel occupancy map indicative of the position of said at least one region in the time sequence of images, wherein calculating said pixel occupancy map includes: - i) calculating a plurality of partial occupancy maps by applying to the time sequence of images (C) one of: - semantic image segmentation , and/or - object detection , and/or - domain-specific segmentation , - ii) calculating said pixel occupancy map as a combination of partial occupancy maps out of said plurality of partial occupancy maps , the method being characterized in that it comprises: - applying motion vector estimation to the pixel occupancy map for an image in said sequence of images to calculate an estimated pixel occupancy map (108'; 108") for a subsequent image in said sequence of images, and - controlling the laserlight beam source as a function of said estimated pixel occupancy map (108'; 108") . - receiving a time sequence of images (C) of an environment around a laserlight beam source , - processing (100; 102, 104, 106) the time sequence of images by detecting the presence of at least one laserlight-sensitive region therein and calculating a pixel occupancy map indicative of the position of said at least one region in the time sequence of images, wherein calculating said pixel occupancy map includes: - i) calculating a plurality of partial occupancy maps by applying to the time sequence of images (C) one of: - semantic image segmentation , and/or - object detection , and/or - domain-specific segmentation , - ii) calculating said pixel occupancy map as a combination of partial occupancy maps out of said plurality of partial occupancy maps , - i) calculating a plurality of partial occupancy maps by applying to the time sequence of images (C) one of: - semantic image segmentation , and/or - object detection , and/or - domain-specific segmentation , - semantic image segmentation , and/or - object detection , and/or - domain-specific segmentation , - ii) calculating said pixel occupancy map as a combination of partial occupancy maps out of said plurality of partial occupancy maps , the method being characterized in that it comprises: - applying motion vector estimation to the pixel occupancy map for an image in said sequence of images to calculate an estimated pixel occupancy map (108'; 108") for a subsequent image in said sequence of images, and - controlling the laserlight beam source as a function of said estimated pixel occupancy map (108'; 108") . - applying motion vector estimation to the pixel occupancy map for an image in said sequence of images to calculate an estimated pixel occupancy map (108'; 108") for a subsequent image in said sequence of images, and - controlling the laserlight beam source as a function of said estimated pixel occupancy map (108'; 108") .
A wireless control system for a bicycle , comprising: at least one shift unit ; at least one electromechanical gear changer in wireless communication with the at least one shift unit ; characterized by a mode changing mechanism on the at least one electromechanical gear changer which when actuated causes the at least one electromechanical gear changer to enter a pairing mode; a mechanism on the shift unit generating a signal that includes at least a device identity; and a memory component operatively associated with the at least one electromechanical gear changer that stores the device identity such that the at least one electromechanical gear changer is paired with and is responsive to shift signals from the shift unit , wherein the at least one electromechanical gear changer includes a rear derailleur , and wherein the at least one shift unit includes a pair of shift units , wherein the pair of shift units are configured to be installed on a handlebar with one shift unit of the pair of shift units being configured to be located to be operated with the right hand and the other shift unit of the pair of shift units being configured to be located to be operated with the left hand, wherein each of the pair of shift units is paired with the rear derailleur . at least one shift unit ; at least one electromechanical gear changer in wireless communication with the at least one shift unit ; characterized by a mode changing mechanism on the at least one electromechanical gear changer which when actuated causes the at least one electromechanical gear changer to enter a pairing mode; a mechanism on the shift unit generating a signal that includes at least a device identity; and a memory component operatively associated with the at least one electromechanical gear changer that stores the device identity such that the at least one electromechanical gear changer is paired with and is responsive to shift signals from the shift unit , wherein the at least one electromechanical gear changer includes a rear derailleur , and wherein the at least one shift unit includes a pair of shift units , wherein the pair of shift units are configured to be installed on a handlebar with one shift unit of the pair of shift units being configured to be located to be operated with the right hand and the other shift unit of the pair of shift units being configured to be located to be operated with the left hand, wherein each of the pair of shift units is paired with the rear derailleur .
A molecular sieve composition comprising carbonized polyvinylidene chloride copolymer and having micropores having an average micropore size ranging from 0.4 nm to 0.43 nm (4.0 Å to 4.3 Å).
A method for preparing a sorbent comprising the steps of: (i) mixing together a particulate copper sulphide material, a particulate support material and one or more binders to form a support mixture, (ii) shaping the mixture by granulating the mixture in a granulator using a liquid, and (iii) drying the shaped mixture to form a dried sorbent, wherein the liquid is aqueous, and the amount of liquid is 0.1 to 0.5ml/g of the support mixture. (i) mixing together a particulate copper sulphide material, a particulate support material and one or more binders to form a support mixture, (ii) shaping the mixture by granulating the mixture in a granulator using a liquid, and (iii) drying the shaped mixture to form a dried sorbent,
A method for producing nanoparticles of an organic substance using a device comprising a pressure chamber , an outlet tube equipped with a pressure controlling means , a first nozzle , and a collection chamber , the outlet tube connecting the pressure chamber to the collection chamber, the method comprising - admixing the organic substance and a supercritical fluid in the pressure chamber to form a mixture at a first pressure, - forming a flow of the mixture and initiating nucleation of the organic substance in the mixture by allowing the mixture to expand from the pressure chamber to the outlet tube and decreasing the first pressure gradually to a second pressure in the outlet tube using the pressure controlling means, where the gradual decrease is the overall decrease of the pressure in the outlet tube, and - initiating solidification of the fluid in the mixture comprising the nucleated organic substance by decreasing the second pressure to a third pressure by expanding the mixture through the first nozzle to the collection chamber wherein ratio of pressure drop from the first pressure to the second pressure is < 10, and wherein ratio of pressure drop from the second pressure to the third pressure is < 10. - admixing the organic substance and a supercritical fluid in the pressure chamber to form a mixture at a first pressure, - forming a flow of the mixture and initiating nucleation of the organic substance in the mixture by allowing the mixture to expand from the pressure chamber to the outlet tube and decreasing the first pressure gradually to a second pressure in the outlet tube using the pressure controlling means, where the gradual decrease is the overall decrease of the pressure in the outlet tube, and - initiating solidification of the fluid in the mixture comprising the nucleated organic substance by decreasing the second pressure to a third pressure by expanding the mixture through the first nozzle to the collection chamber wherein ratio of pressure drop from the first pressure to the second pressure is < 10, and wherein ratio of pressure drop from the second pressure to the third pressure is < 10.
A method for wireless communication, comprising: monitoring for an initial transmission of data from a network on a first cell; generating a negative acknowledgement message indicating that decoding of the initial transmission of the data was unsuccessful; transmitting the negative acknowledgement message; receiving control information indicating a second cell, which is different from the first cell, to be monitored for receiving the retransmission of the data, wherein the control information comprises a hybrid automatic repeat request, HARQ, process identifier, ID, for the initial transmission of the data corresponding to the retransmission, and wherein the control information further comprises an HARQ anchoring cell ID indicating a cell ID of the first cell associated with the HARQ process ID; and monitoring for the retransmission of the data on the second cell after the transmission of the negative acknowledgement message; and decoding the data by combining the initial transmission of the data and the retransmission of the data associated with the same HARQ process ID and HARQ anchoring cell ID. monitoring for an initial transmission of data from a network on a first cell; generating a negative acknowledgement message indicating that decoding of the initial transmission of the data was unsuccessful; transmitting the negative acknowledgement message; receiving control information indicating a second cell, which is different from the first cell, to be monitored for receiving the retransmission of the data, wherein the control information comprises a hybrid automatic repeat request, HARQ, process identifier, ID, for the initial transmission of the data corresponding to the retransmission, and wherein the control information further comprises an HARQ anchoring cell ID indicating a cell ID of the first cell associated with the HARQ process ID; and wherein the control information comprises a hybrid automatic repeat request, HARQ, process identifier, ID, for the initial transmission of the data corresponding to the retransmission, and wherein the control information further comprises an HARQ anchoring cell ID indicating a cell ID of the first cell associated with the HARQ process ID; and monitoring for the retransmission of the data on the second cell after the transmission of the negative acknowledgement message; and decoding the data by combining the initial transmission of the data and the retransmission of the data associated with the same HARQ process ID and HARQ anchoring cell ID.
An integrated sensor assembly for detecting electrostatic dust, comprising: an electrostatic sensor comprising: an outer housing , an electrode configured within the outer housing, the electrode comprising a first end and an opposing second end separated by a predetermined length, the first end being secured within the outer housing, the second end comprising a sensing face that is substantially flush with an edge of the outer housing, the electrode comprising a plurality of electrons that respond to one or more charged particles that flow past the sensing face, said electrons moving either towards or away from the second end, and an amplifier configured within the outer housing and electrically coupled to the electrode, wherein a particle level flowing past the sensing face as a function of electron movement is detected via said amplifier; and a circuit board configured within the outer housing and electrically coupled to the electrostatic sensor . an electrostatic sensor comprising: an outer housing , an electrode configured within the outer housing, the electrode comprising a first end and an opposing second end separated by a predetermined length, the first end being secured within the outer housing, the second end comprising a sensing face that is substantially flush with an edge of the outer housing, the electrode comprising a plurality of electrons that respond to one or more charged particles that flow past the sensing face, said electrons moving either towards or away from the second end, and an amplifier configured within the outer housing and electrically coupled to the electrode, wherein a particle level flowing past the sensing face as a function of electron movement is detected via said amplifier; and a circuit board configured within the outer housing and an outer housing , an electrode configured within the outer housing, the electrode comprising a first end and an opposing second end separated by a predetermined length, the first end being secured within the outer housing, the second end comprising a sensing face that is substantially flush with an edge of the outer housing, the electrode comprising a plurality of electrons that respond to one or more charged particles that flow past the sensing face, said electrons moving either towards or away from the second end, and an amplifier configured within the outer housing and electrically coupled to the electrode, wherein a particle level flowing past the sensing face as a function of electron movement is detected via said amplifier; and