mhurhangee/ep-ind-claims huggingface dataset:
A compound shown by formula IIIor a pharmaceutically acceptable salt thereof: wherein: X is CH or N; R 1 is selected from a group consisting of hydrogen, methyl, -Cl, -F; R 1 ' is selected from a group consisting of -OCF 3, -OCHF 2 and -CF 3; R 2 is selected from a group consisting of hydrogen, -Cl, -F, -CF 3, -OCF 3, -CN and C 1 -C 3 alkyl; R 3 and R 4 are each independently selected from hydrogen or methyl; R 5 and R 6 are each independently selected from hydrogen or hydroxyl substituted C 1 -C 3 alkyl; R 7 is selected from a group consisting of hydrogen, halogen, cyano, hydroxyl, and C 1 -C 6 alkyl; Y is -OCR a1 R a2 - or -CR a1 R a2 -; R 8 is R a1 and R a2 are each independently selected from hydrogen or C 1 -C 3 alkyl; r and t are each independently selected from 1 or 2. X is CH or N; R 1 is selected from a group consisting of hydrogen, methyl, -Cl, -F; R 1 ' is selected from a group consisting of -OCF 3, -OCHF 2 and -CF 3; R 2 is selected from a group consisting of hydrogen, -Cl, -F, -CF 3, -OCF 3, -CN and C 1 -C 3 alkyl; R 3 and R 4 are each independently selected from hydrogen or methyl; R 5 and R 6 are each independently selected from hydrogen or hydroxyl substituted C 1 -C 3 alkyl; R 7 is selected from a group consisting of hydrogen, halogen, cyano, hydroxyl, and C 1 -C 6 alkyl; Y is -OCR a1 R a2 - or -CR a1 R a2 -; R 8 is R a1 and R a2 are each independently selected from hydrogen or C 1 -C 3 alkyl; r and t are each independently selected from 1 or 2.
A lock assembly for an article of jewellery having two free ends to be connected to each other, comprising a first base part and a second base part, the first base part and/or second base part comprising a first end attachment part and a second end attachment part, a pivotal connection assembly for pivotally connecting the first base part and the second base part, comprising a pivot pin extending substantially perpendicular from a major surface of one of the first and second base part (2; 3), and a pivot aperture in the other one of the first and second base part (3; 2), a diameter of the pivot pin and a diameter of the pivot aperture being substantially equal, a fixation assembly for locking the first base part and second base part in a fixed mutual position, comprising a locking extension on a major surface of one of the first and second base part (2; 3), and a locking aperture in a major surface of the other one of the first and second base part (3; 2), a diameter of the locking extension being equal to or larger than a diameter of the locking aperture, characterized in that the second end attachment part comprises a cavity in a major surface of one of the first and second base part (2; 3) with an external access aperture, the cavity being accessible for one of the free ends of the article of jewellery when the first base part and second base part are pivoted into an initial non-locked position. a first base part and a second base part, the first base part and/or second base part comprising a first end attachment part and a second end attachment part, a pivotal connection assembly for pivotally connecting the first base part and the second base part, comprising a pivot pin extending substantially perpendicular from a major surface of one of the first and second base part (2; 3), and a pivot aperture in the other one of the first and second base part (3; 2), a diameter of the pivot pin and a diameter of the pivot aperture being substantially equal, a fixation assembly for locking the first base part and second base part in a fixed mutual position, comprising a locking extension on a major surface of one of the first and second base part (2; 3), and a locking aperture in a major surface of the other one of the first and second base part (3; 2), a diameter of the locking extension being equal to or larger than a diameter of the locking aperture, characterized in that the second end attachment part comprises a cavity in a major surface of one of the first and second base part (2; 3) with an external access aperture, the cavity being accessible for one of the free ends of the article of jewellery when the first base part and second base part are pivoted into an initial non-locked position.
A method implemented by a network device executing a local computation engine and a link state routing protocol, where the local computation engine and the link state protocol support automatic establishment of redundant paths and cautious restoration in a packet network, the method comprising the steps of: receiving an explicit path,EP, type length value,TLV, via a link state routing protocol; executing a shortest path algorithm to obtain a shortest path for loose hops of a path identified by the EP TLV, the shortest path to be a primary path; installing forwarding database entries for the primary path; updating a network graph to prune links of the primary path or bias links of the primary path; calculating a backup path using the shortest path algorithm on the updated network graph; and installing forwarding database entries for the backup path. receiving an explicit path,EP, type length value,TLV, via a link state routing protocol; executing a shortest path algorithm to obtain a shortest path for loose hops of a path identified by the EP TLV, the shortest path to be a primary path; installing forwarding database entries for the primary path; updating a network graph to prune links of the primary path or bias links of the primary path; calculating a backup path using the shortest path algorithm on the updated network graph; and installing forwarding database entries for the backup path.
A system for sealing and cutting tissue, comprising: a body comprising a pair of opposing working surfaces (42, 44) that may be moved together and apart so as to apply pressure to tissue there between; and a resistance heater disposed on at least one of the working surfaces (42, 44), wherein the resistance heater comprises a tubular heating element adapted to conduct current therethrough, and designed such that its resistance is less than the resistance of surrounding body tissue, characterized in that the resistance heater further comprises a thermally conductive electrical insulator disposed within the tubular heating element, and in that the tubular heating element has a resistance of less than 10 ohms wherein a current passing therethrough does not exceed 10 A, and wherein the working surfaces (42, 44) are dimensioned to apply pressure to tissue in a cutting zone adjacent to the resistance heater while simultaneously applying pressure to tissue in a sealing zone on either side of the cutting zone, wherein the resistance heater and the opposing working surfaces (42, 44) are dimensioned such that the tissue in the cutting zone is in contact with the resistance heater and the tissue in the sealing zones (s) is not in contact with resistance heater, such that the tissue in the cutting zone can be heated to temperatures in excess of 100 degrees Celsius concurrently with the tissue in the sealing zones being heated to temperatures between 50 to 90 degrees Celsius and that the body is free of blades for slicing through the tissue so that the cutting of the tissue is performed solely thermally. a body comprising a pair of opposing working surfaces (42, 44) that may be moved together and apart so as to apply pressure to tissue there between; and a resistance heater disposed on at least one of the working surfaces (42, 44), wherein the resistance heater comprises a tubular heating element adapted to conduct current therethrough, and designed such that its resistance is less than the resistance of surrounding body tissue, characterized in that the resistance heater further comprises a thermally conductive electrical insulator disposed within the tubular heating element, and in that the tubular heating element has a resistance of less than 10 ohms wherein a current passing therethrough does not exceed 10 A, and wherein the working surfaces (42, 44) are dimensioned to apply pressure to tissue in a cutting zone adjacent to the resistance heater while simultaneously applying pressure to tissue in a sealing zone on either side of the cutting zone, wherein the resistance heater and the opposing working surfaces (42, 44) are dimensioned such that the tissue in the cutting zone is in contact with the resistance heater and the tissue in the sealing zones (s) is not in contact with resistance heater, such that the tissue in the cutting zone can be heated to temperatures in excess of 100 degrees Celsius concurrently with the tissue in the sealing zones being heated to temperatures between 50 to 90 degrees Celsius and that the body is free of blades for slicing through the tissue so that the cutting of the tissue is performed solely thermally.
A device for the controlled stabilization of tool holder shanks on the respective ring nut, said tool holder shanks, motorized or non-motorized, being predisposed for ER or other type fixing, comprising a ring nut and a tool holder shank of a truncated conical shape provided externally with a groove in which means connecting said ring nut to said tool holder are arranged inside said ring nut, characterised in that said connecting means consist of an annular body formed of at least two shaped, half-rings (14, 16) that define opposite protrusions projecting outwardly and centrally to form a shaped prominence having an arched-convex outer profile, on said prominences of each of the shaped half-rings (14, 16) a recess is made extending in the direction of the thickness of said half-rings suitable to accommodate an elastic pin, said half-rings (14, 16) defining a rectangular cross section.
Assembly comprising a rotor assembly for a gas turbine and a rotor heat shield element for the rotor assembly, the rotor assembly comprising a circumferential groove, the rotor heat shield element comprising a heat shield and base feet inserted into the groove of the rotor assembly, the base feet being connected to the heat shield through a connection plate, the rotor heat shield element comprising securing means adapted to secure the rotor heat shield element to the rotor assembly, wherein said securing means comprises a through-opening internally defined in said base feet, the through-opening having an inlet located on a bottom wall and an outlet on an opposed wall thereto of the base feet, wherein said through-opening is internally shaped such to define at least one stepped region, the rotor assembly comprising rotor connection means configured to connect the base feet to said rotor assembly, characterised in that the securing means further comprise a fixing plate inserted into the through opening, the fixing plate having a shape which substantially matches the internal shape of the through-opening, and in that the fixing plate comprises a blocking portion which extends out from the outlet, said rotor connection means comprises at least a recess located on a lateral wall of said groove and the blocking portion of the fixing plate is substantially aligned with the recess and bent into the recess, thereby preventing movement of the rotor heat shield element along said groove.
Wood screw having a screw shank, wherein the screw shank is provided at least in portions with a thread, having a screw head at a first end of the screw shank, wherein the screw head is provided with a driving formation, and having a screw tip at the second end of the screw shank, wherein the screw tip tapers from a cylindrical portion of the screw shank up to the point-like second end and the thread begins in the region of the tapering screw tip, wherein the screw tip has a rotationally symmetrical base member with an at least partially convex-curved outer contour, wherein the screw tip has a first portion with a convex-curved outer contour which extends from the cylindrical portion of the screw shank and a second portion which leads from the end of the first portion and which extends as far as the point-like second end, characterized in that the outer contour of the first portion encloses a greater angle with the longitudinal centre axis of the screw shank, at the transition between the first portion and the second portion, than the outer contour of the second portion at the transition between the first portion and the second portion.
A resource energy determining method for use in a vehicle-to-vehicle, V2V, communications system, wherein the method comprises: obtaining, by first user equipment, UE, time-frequency resource indication information and resource cycle reservation information of second UE in a sensing time window of the first UE; determining, by the first UE, energy of a first resource based on the time-frequency resource indication information of the second UE, the first resource is a frequency domain resource that the first UE cannot decode in a subframe in the sensing time window of the first UE; and determining, by the first UE, energy of each of at least one second resource based on the energy of the first resource and the resource cycle reservation information of the second UE, wherein the at least one second resource is after the sensing time window of the first UE, the energy of each of the at least one second resource is equal to the energy of the first resource; and a frequency domain location of the first resource in a transmission period in which the first resource is located is the same as a frequency domain location of each of the at least one second resource in a transmission period in which the second resource is located. obtaining, by first user equipment, UE, time-frequency resource indication information and resource cycle reservation information of second UE in a sensing time window of the first UE; determining, by the first UE, energy of a first resource based on the time-frequency resource indication information of the second UE, the first resource is a frequency domain resource that the first UE cannot decode in a subframe in the sensing time window of the first UE; and determining, by the first UE, energy of each of at least one second resource based on the energy of the first resource and the resource cycle reservation information of the second UE, wherein the at least one second resource is after the sensing time window of the first UE, the energy of each of the at least one second resource is equal to the energy of the first resource; and a frequency domain location of the first resource in a transmission period in which the first resource is located is the same as a frequency domain location of each of the at least one second resource in a transmission period in which the second resource is located.
A method, comprising: receiving a packet data protocol based command addressed to a machine type communication, MTC, device; monitoring domain name service, DNS queries to a DNS server, of a packet data communication network to which the MTC device is connected, for a name associated with the MTC device; determining if the MTC device has an active packet data protocol context; in response to determining that the MTC device does not have an active packet data protocol context, activating a packet data protocol context for the MTC device by sending a message to the MTC device via a communication mechanism that does not require an active packet data protocol context, instructing the MTC device to establish a packet data protocol context in response to detecting a DNS query corresponding to the MTC device name; and forwarding the packet data protocol based command to the MTC device. receiving a packet data protocol based command addressed to a machine type communication, MTC, device; monitoring domain name service, DNS queries to a DNS server, of a packet data communication network to which the MTC device is connected, for a name associated with the MTC device; determining if the MTC device has an active packet data protocol context; in response to determining that the MTC device does not have an active packet data protocol context, activating a packet data protocol context for the MTC device by sending a message to the MTC device via a communication mechanism that does not require an active packet data protocol context, instructing the MTC device to establish a packet data protocol context in response to detecting a DNS query corresponding to the MTC device name; and forwarding the packet data protocol based command to the MTC device.
A casting method of an active metal comprising, in an induction melting furnace using a water-cooled crucible, tapping a molten metal into a mold from a tapping hole provided at a bottom of the water-cooled copper crucible to cast an ingot of the active metal, wherein in conducting the casting under a casting condition in which the ingot has a diameter of 10 mm or more and a ratio (H/D) of an ingot height, expressed in mm, to the ingot diameter of 1.5 or more and a weight of the molten metal tapped in the casting is 200 kg or less, a temperature of the molten metal in the casting is set to be higher than the melting point of the active metal and the casting is conducted while a casting velocity, expressed in mm/sec, that is a velocity at which the casting proceeds in the mold is controlled to satisfy V≤0.1H in relation with the ingot height, expressed in mm, by adjusting an opening diameter of the tapping hole by an electromagnetic method or a mechanical method, or by a previously prepared plurality of valve members having different opening diameter and the opening diameter is adjusted by exchanging the valve member. wherein in conducting the casting under a casting condition in which the ingot has a diameter of 10 mm or more and a ratio (H/D) of an ingot height, expressed in mm, to the ingot diameter of 1.5 or more and a weight of the molten metal tapped in the casting is 200 kg or less, a temperature of the molten metal in the casting is set to be higher than the melting point of the active metal and the casting is conducted while a casting velocity, expressed in mm/sec, that is a velocity at which the casting proceeds in the mold is controlled to satisfy V≤0.1H in relation with the ingot height, expressed in mm, by adjusting an opening diameter of the tapping hole by an electromagnetic method or a mechanical method, or by a previously prepared plurality of valve members having different opening diameter and the opening diameter is adjusted by exchanging the valve member.
A tool positioning and holding mechanism for positioning a tool comprising: a mounting frame; a feed member slidably mounted on the mounting frame; a tool support fixed on the feed member and defining a receiving hole to receive the tool; a positioning member pivotally coupled to the tool support and partially received in the tool support; characterised in that the tool positioning and holding mechanism further comprises an elastic member having a first end resisting the positioning member and a second end configured to resist the feed member or the tool support; and a blocking member fixed on the mounting frame and comprising a pushing portion configured to resist the positioning member; wherein the feed member is configured to move the positioning member to allow detachment of the positioning member from the pushing portion, and upon detachment of the positioning member, the positioning member is configured to rotate under an elastic force of the elastic member to position the tool. a mounting frame; a feed member slidably mounted on the mounting frame; a tool support fixed on the feed member and defining a receiving hole to receive the tool; a positioning member pivotally coupled to the tool support and partially received in the tool support; characterised in that the tool positioning and holding mechanism further comprises an elastic member having a first end resisting the positioning member and a second end configured to resist the feed member or the tool support; and a blocking member fixed on the mounting frame and comprising a pushing portion configured to resist the positioning member; wherein the feed member is configured to move the positioning member to allow detachment of the positioning member from the pushing portion, and upon detachment of the positioning member, the positioning member is configured to rotate under an elastic force of the elastic member to position the tool.
A method for producing a thermoplastic polyurethane, comprising the following steps: (i) reacting an isocyanate composition at least comprising 4,4'-diisocyanatodicyclohexyl-methane (H12MDI), where no isocyanate other than H12MDI is used, with a polyol composition, where the polyol composition comprises at least one polyol selected from the group consisting of polycarbonate diols, polyethers, and polyesters, and where the equivalence ratio of NCO groups in the isocyanates to the sum total of the hydroxyl groups in the polyols used is 0.9 to 1.1:1, in the presence of a catalyst composition at least comprising a bismuth-containing compound selected from bismuth (tricarboxylate) catalysts, where the carboxyl radicals independently of one another have 6 to 12 carbon atoms, to give a melt; (ii) producing pellets from the melt obtained as per step (i); (iii)storing the pellets obtained as per step (ii); where the catalyst composition is used in an amount of 50 to 600 ppm, based on the total amount of the components used, where a catalytically accelerated continued reaction takes place during the storage as per step (iii), and after the storage pellets of higher molecular weight are obtained, where the production as per step (ii) takes place by means of underwater pelletizing or by means of strand pelletizing. (i) reacting an isocyanate composition at least comprising 4,4'-diisocyanatodicyclohexyl-methane (H12MDI), where no isocyanate other than H12MDI is used, with a polyol composition, where the polyol composition comprises at least one polyol selected from the group consisting of polycarbonate diols, polyethers, and polyesters, and where the equivalence ratio of NCO groups in the isocyanates to the sum total of the hydroxyl groups in the polyols used is 0.9 to 1.1:1, in the presence of a catalyst composition at least comprising a bismuth-containing compound selected from bismuth (tricarboxylate) catalysts, where the carboxyl radicals independently of one another have 6 to 12 carbon atoms, to give a melt; (ii) producing pellets from the melt obtained as per step (i); (iii)storing the pellets obtained as per step (ii); where the catalyst composition is used in an amount of 50 to 600 ppm, based on the total amount of the components used, where a catalytically accelerated continued reaction takes place during the storage as per step (iii), and after the storage pellets of higher molecular weight are obtained, where the production as per step (ii) takes place by means of underwater pelletizing or by means of strand pelletizing.