mhurhangee/patent-ind-claim-en huggingface dataset:
A hand-operated juicer, comprising: a shell ; a juicing head , characterized in that an outer surface of the juicing head is an arc-shaped surface and is provided with a plurality of outer convex ribs , and an inserting rod for hanging fruit is arranged at the transverse top of the juicing head ; a juicing cover , connected to the shell , characterized in that the juicing cover is provided with an arc-shaped concave squeezing cavity , and the squeezing cavity is capable of accommodating the juicing head ; and a drive screw , capable of rotating around an axis of the drive screw and moving forward and backward, characterized in that a rear end of the drive screw is connected to an operator handle , and the juicing head is connected to a front end of the drive screw and capable of rotating along with the drive screw and moving forward and backward. a shell ; a juicing head , characterized in that an outer surface of the juicing head is an arc-shaped surface and is provided with a plurality of outer convex ribs , and an inserting rod for hanging fruit is arranged at the transverse top of the juicing head ; a juicing cover , connected to the shell , characterized in that the juicing cover is provided with an arc-shaped concave squeezing cavity , and the squeezing cavity is capable of accommodating the juicing head ; and a drive screw , capable of rotating around an axis of the drive screw and moving forward and backward, characterized in that a rear end of the drive screw is connected to an operator handle , and the juicing head is connected to a front end of the drive screw and capable of rotating along with the drive screw and moving forward and backward.
A method for mounting inserts, characterized by the fact that it comprises the following steps: (i) Application of an adhesive film on one of the faces of an inserts tray covering a plurality of through-holes and respective depressions ; (ii) Insertion of an insert in each through-hole of the tray from a face of the inserts tray opposite to the adhesive film, securing one surface of the insert onto this adhesive film; (iii) Cutout of the adhesive film forming a plurality of single films associated with the inserts . (i) Application of an adhesive film on one of the faces of an inserts tray covering a plurality of through-holes and respective depressions ; (ii) Insertion of an insert in each through-hole of the tray from a face of the inserts tray opposite to the adhesive film, securing one surface of the insert onto this adhesive film; (iii) Cutout of the adhesive film forming a plurality of single films associated with the inserts .
A compound of Formula (I): or a pharmaceutically acceptable salt thereof, wherein: R 1 is hydrogen or optionally substituted C 1-6 alkyl; R 2 is optionally substituted bicyclic heterocyclyl, wherein heterocyclyl refers to a 5-10 membered non-aromatic ring system, and wherein the ring system has one ring nitrogen and one ring oxygen; X is a bond, -O-, or -C(=O)-; Y is CH or N; R 3 is optionally substituted bicyclic heteroaryl; and n is 0, 1, 2, 3, or 4. R 1 is hydrogen or optionally substituted C 1-6 alkyl; R 2 is optionally substituted bicyclic heterocyclyl, wherein heterocyclyl refers to a 5-10 membered non-aromatic ring system, and wherein the ring system has one ring nitrogen and one ring oxygen; X is a bond, -O-, or -C(=O)-; Y is CH or N; R 3 is optionally substituted bicyclic heteroaryl; and n is 0, 1, 2, 3, or 4.
A system for navigation using signals of opportunity, SOOP, the system comprising a network operations center and a user equipment which are capable of communicating with each other, wherein: the network operations center is configured to estimate relative clock bias between different synchronized groups of signal sources, said network operation center compring an antenna , a network operations center receiver, NOC receiver, connected and configured to generate SOOP data derived from SOOP detected by the antenna of the network operations center , a computer system configured to generate SOOP source location/ephemeris data and relative clock bias data based on SOOP data generated by the NOC receiver , and a communication device that is capable of broadcasting data to the user equipment ; and the user equipment comprises an antenna , a navigation receiver connected and configured to generate SOOP data derived from SOOP detected by the antenna of the user equipment , and a navigation computer system configured to calculate a navigation solution, including a SOOP-derived estimated position of the user equipment , based on SOOP source location/ephemeris data and relative clock bias data broadcasted by the network operations center and SOOP data generated by the navigation receiver . the network operations center is configured to estimate relative clock bias between different synchronized groups of signal sources, said network operation center compring an antenna , a network operations center receiver, NOC receiver, connected and configured to generate SOOP data derived from SOOP detected by the antenna of the network operations center , a computer system configured to generate SOOP source location/ephemeris data and relative clock bias data based on SOOP data generated by the NOC receiver , and a communication device that is capable of broadcasting data to the user equipment ; and the user equipment comprises an antenna , a navigation receiver connected and configured to generate SOOP data derived from SOOP detected by the antenna of the user equipment , and a navigation computer system configured to calculate a navigation solution, including a SOOP-derived estimated position of the user equipment , based on SOOP source location/ephemeris data and relative clock bias data broadcasted by the network operations center and SOOP data generated by the navigation receiver .
A surgical instrument comprising: a replaceable surgical staple cartridge ; a channel configured to support said replaceable surgical staple cartridge therein; an anvil movably supported on said channel and configured to selectively move between an open position and a closed position; a rotary driven closure system operably interfacing with said anvil and configured to move said anvil between said open position and said closed position upon application of rotary opening and closing motions thereto; an axially movable firing member configured for sliding engagement with said channel and said anvil upon application of rotary firing and retraction motions thereto; a rotary driven firing system operably interfacing with said axially movable firing member to move said axially movable firing member between a starting position and an ending position upon application of rotary firing and retraction motions thereto; an anvil lockout assembly operably supported in said channel and configured to prevent movement of said anvil from said open position to said closed position unless the replaceable surgical staple cartridge is operably seated in said channel; and a firing member lockout assembly movable between a first position, where said firing member lockout assembly prevents said firing member from moving from said starting position to said ending position, and a second position, where said firing member lockout assembly permits said firing member to move from said starting position to said ending position. a replaceable surgical staple cartridge ; a channel configured to support said replaceable surgical staple cartridge therein; an anvil movably supported on said channel and configured to selectively move between an open position and a closed position; a rotary driven closure system operably interfacing with said anvil and configured to move said anvil between said open position and said closed position upon application of rotary opening and closing motions thereto; an axially movable firing member configured for sliding engagement with said channel and said anvil upon application of rotary firing and retraction motions thereto; a rotary driven firing system operably interfacing with said axially movable firing member to move said axially movable firing member between a starting position and an ending position upon application of rotary firing and retraction motions thereto; an anvil lockout assembly operably supported in said channel and configured to prevent movement of said anvil from said open position to said closed position unless the replaceable surgical staple cartridge is operably seated in said channel; and a firing member lockout assembly movable between a first position, where said firing member lockout assembly prevents said firing member from moving from said starting position to said ending position, and a second position, where said firing member lockout assembly permits said firing member to move from said starting position to said ending position.
A preparation method for the high optical indoxacarb intermediate -5-chloro-2,3-dihydro-2-hydroxy-1-oxo-1H-indole-2-carboxylic acid methyl ester, characterized in that an asymmetric synthesis is catalyzed by a chiral Zr-salen polymer, a method of producing the chiral Zr-salen polymer, comprising the steps of: adding a solvent I, 3-tert-butyl-5-styrylsalicylaldehyde and -(-)-1,2-diphenylethylenediamine or -(+)-1,2-cyclohexanediamine into a reaction flask, raising the temperature for reflux reaction, after the reaction is finished, wherein a condensate is obtained after lowering the temperature and filtration; dissolving the condensate in a solvent II, raising the temperature to 50-60°C, and dripping a reducing agent, removing the solvent II after the reaction, adding water into the system, wherein a ligand monomer of catalyst A or catalyst B is obtained after extraction, desolvation, crystallization, lowering the temperature and filtration; putting the ligand monomer of catalyst A or catalyst B into a pressure-resistant reaction flask, adding a solvent III and using AIBN as an initiator, carrying out hydrothermal polymerization at 110-120°C, wherein a polymer ligand is obtained after filtration and drying; putting the polymer ligand and a zirconium-containing metal compound in toluene at 50-80°C to carry out a complexation reaction, wherein after the reaction, a toluene system of catalyst A or catalyst B is obtained, and wherein the preparation reaction equation is as follows: wherein R is n is 100~20000. adding a solvent I, 3-tert-butyl-5-styrylsalicylaldehyde and -(-)-1,2-diphenylethylenediamine or -(+)-1,2-cyclohexanediamine into a reaction flask, raising the temperature for reflux reaction, after the reaction is finished, wherein a condensate is obtained after lowering the temperature and filtration; dissolving the condensate in a solvent II, raising the temperature to 50-60°C, and dripping a reducing agent, removing the solvent II after the reaction, adding water into the system, wherein a ligand monomer of catalyst A or catalyst B is obtained after extraction, desolvation, crystallization, lowering the temperature and filtration; putting the ligand monomer of catalyst A or catalyst B into a pressure-resistant reaction flask, adding a solvent III and using AIBN as an initiator, carrying out hydrothermal polymerization at 110-120°C, wherein a polymer ligand is obtained after filtration and drying; putting the polymer ligand and a zirconium-containing metal compound in toluene at 50-80°C to carry out a complexation reaction, wherein after the reaction, a toluene system of catalyst A or catalyst B is obtained, and wherein the preparation reaction equation is as follows: wherein R is n is 100~20000.
A method for visually displaying performance of an athlete tracking system that receives signals from a tracking tag located within a tracking area to determine locations of the tracking tag and an error condition due to one of a hardware error of the tracking system, a hardware error of the tracking tag, and a configuration error of the tracking system, the method comprising: displaying on a graphical representation of at least part of the tracking area (a) a sequence of non-error symbols corresponding to the determined locations of the tracking tag, and (b) an error symbol corresponding to a last-known location, of the determined locations, immediately prior to the error condition, the error symbol indicating the error condition.
A method of manufacturing a Ni alloy part comprising: a solution treatment step of solution treating a sintered compact, which is obtained by sintering and molding a precipitation hardening Ni alloy powder by metal injection molding, by allowing the sintered compact to hold at a temperature of not lower than 1050°C but not higher than 1250°C for one hour to five hours, followed by cooling to room temperature at a cooling rate equal to or higher than a cooling rate of air cooling, where the precipitation hardening Ni alloy powder includes Ti of 0.65% by mass to 1,15% by mass, inclusive, A1 of 0.20% by mass to 0,80% by mass, inclusive, Cr of 17.00% by mass to 21.00% by mass, inclusive, Nb of 4.75% by mass to 5.50% by mass, inclusive, Mo of 2.80% by mass to 3.30% by mass, inclusive, Ni of 50.00% by mass to 55.00% by mass, inclusive, and the balance including Fe and unavoidable impurities; and an aging treatment step of aging-treating the solution-treated sintered compact by allowing the solution-treated sintered compact to hold at the temperature of not lower than 600°C but not higher than 800°C, followed by cooling to room temperature, wherein in the aging treatment step, the solution-treated sintered compact is allowed to hold at a temperature of 718°C to 760°C, and then is allowed to hold at 621°C to 649°C in a two-step aging treatment. a solution treatment step of solution treating a sintered compact, which is obtained by sintering and molding a precipitation hardening Ni alloy powder by metal injection molding, by allowing the sintered compact to hold at a temperature of not lower than 1050°C but not higher than 1250°C for one hour to five hours, followed by cooling to room temperature at a cooling rate equal to or higher than a cooling rate of air cooling, where the precipitation hardening Ni alloy powder includes Ti of 0.65% by mass to 1,15% by mass, inclusive, A1 of 0.20% by mass to 0,80% by mass, inclusive, Cr of 17.00% by mass to 21.00% by mass, inclusive, Nb of 4.75% by mass to 5.50% by mass, inclusive, Mo of 2.80% by mass to 3.30% by mass, inclusive, Ni of 50.00% by mass to 55.00% by mass, inclusive, and the balance including Fe and unavoidable impurities; and an aging treatment step of aging-treating the solution-treated sintered compact by allowing the solution-treated sintered compact to hold at the temperature of not lower than 600°C but not higher than 800°C, followed by cooling to room temperature, wherein in the aging treatment step, the solution-treated sintered compact is allowed to hold at a temperature of 718°C to 760°C, and then is allowed to hold at 621°C to 649°C in a two-step aging treatment.
A compound of Formula wherein R 1a , R 1b , and R 1c are each independently selected from hydrogen, halo and C 1- C 6 haloalkyl; R 2 is H or methyl; R 3 is H, methyl, ethyl, isopropyl, -CH 2 cyclopropyl, -CF 3 or -CH 2 CH 2 F; and is a bond that represents E and Z geometric isomers; stereoisomers thereof, and pharmaceutically or veterinarily acceptable salts thereof. R 1a , R 1b , and R 1c are each independently selected from hydrogen, halo and C 1- C 6 haloalkyl; R 2 is H or methyl; R 3 is H, methyl, ethyl, isopropyl, -CH 2 cyclopropyl, -CF 3 or -CH 2 CH 2 F; and is a bond that represents E and Z geometric isomers;
Safety system for a separating protective device with first monitoring means for monitoring whether the separating protective device is locked in a closed position by means of a lock and with second monitoring means for detecting the setting of the separating protective device, characterised in that that second monitoring means comprises a sensor generating directionally dependent signals differing from the first monitoring means so that the movement sequence of the separating protective device can be precisely tracked by the directionally dependent signals and that the first and second monitoring means are diversely constructed.
A mobile robot (100; 200; 1600) comprising: a body configured to traverse a surface (105; 1603) and to receive debris (215; 1610) from the surface; and a debris bin (115; 210; 1612) within the body, the debris bin comprising: a chamber to hold the debris received by the mobile robot; an exhaust port through which the debris exits the debris bin, the exhaust port being at a bottom of the debris bin; a door unit comprising a flap configured to move, in response to air pressure at the exhaust port, between a closed position to cover the exhaust port and an open position to open a path between the chamber and the exhaust port; characterized in that the door unit, including the flap in the open position and in the closed position, is above a bottom surface of the body. a body configured to traverse a surface (105; 1603) and to receive debris (215; 1610) from the surface; and a debris bin (115; 210; 1612) within the body, the debris bin comprising: a chamber to hold the debris received by the mobile robot; an exhaust port through which the debris exits the debris bin, the exhaust port being at a bottom of the debris bin; a door unit comprising a flap configured to move, in response to air pressure at the exhaust port, between a closed position to cover the exhaust port and an open position to open a path between the chamber and the exhaust port; characterized in that the door unit, including the flap in the open position and in the closed position, is above a bottom surface of the body. a chamber to hold the debris received by the mobile robot; an exhaust port through which the debris exits the debris bin, the exhaust port being at a bottom of the debris bin; a door unit comprising a flap configured to move, in response to air pressure at the exhaust port, between a closed position to cover the exhaust port and an open position to open a path between the chamber and the exhaust port; characterized in that the door unit, including the flap in the open position and in the closed position, is above a bottom surface of the body.
A cryogenic energy storage system comprising: a liquefaction apparatus for liquefying a gas to form a cryogen, wherein the liquefaction apparatus is controllable to draw power from an external power source to liquefy the gas; a cryogenic storage tank in fluid communication with the liquefaction apparatus for storing cryogen produced by the liquefaction apparatus ; a power recovery apparatus in fluid communication with the cryogenic storage tank for recovering power from cryogen from the cryogenic storage tank by heating the cryogen to form a high-pressure gas and expanding said high-pressure gas; and a hot thermal store for storing hot thermal energy, wherein the hot thermal store and the power recovery apparatus are arranged so that hot thermal energy from the hot thermal store can be transferred to the high-pressure gas before and/or during expansion in the power recovery apparatus , characterised by : a charging apparatus which is controllable to draw power from the power recovery apparatus when the power that is recovered by the power recovery apparatus is above a threshold value, and supply the cryogenic energy storage system with thermal energy. a liquefaction apparatus for liquefying a gas to form a cryogen, wherein the liquefaction apparatus is controllable to draw power from an external power source to liquefy the gas; a cryogenic storage tank in fluid communication with the liquefaction apparatus for storing cryogen produced by the liquefaction apparatus ; a power recovery apparatus in fluid communication with the cryogenic storage tank for recovering power from cryogen from the cryogenic storage tank by heating the cryogen to form a high-pressure gas and expanding said high-pressure gas; and a hot thermal store for storing hot thermal energy, wherein the hot thermal store and the power recovery apparatus are arranged so that hot thermal energy from the hot thermal store can be transferred to the high-pressure gas before and/or during expansion in the power recovery apparatus , characterised by : a charging apparatus which is controllable to draw power from the power recovery apparatus when the power that is recovered by the power recovery apparatus is above a threshold value, and supply the cryogenic energy storage system with thermal energy.
A multipoint ignition device for igniting an air-fuel mixture in a combustion chamber of an engine , comprising: an insulating member formed in an annular shape such that an inner periphery thereof faces the combustion chamber ; and a plurality of electrodes held on the insulating member so as to form a plurality of ignition gaps in a circumferential direction inside the combustion chamber , wherein the insulating member includes a plurality of divided insulating members formed in divided form; characterised in that the divided insulating member close to an intake valve of the engine has a higher thermal conductivity than the divided insulating member close to an exhaust valve of the engine . an insulating member formed in an annular shape such that an inner periphery thereof faces the combustion chamber ; and a plurality of electrodes held on the insulating member so as to form a plurality of ignition gaps in a circumferential direction inside the combustion chamber , wherein the insulating member includes a plurality of divided insulating members formed in divided form; characterised in that the divided insulating member close to an intake valve of the engine has a higher thermal conductivity than the divided insulating member close to an exhaust valve of the engine .