mhurhangee/patent-ind-claim-en huggingface dataset:
Method for 3D radius correction in CNC milling with the steps: - using an NC program to predetermine a mill path on a workpiece in the form of positions of a mill cutter tip, wherein the mill path has been calculated for an original mill in order to produce a surface contour on the workpiece, - predetermine the original mill including its dimensions (R, r), for which the mill path has been calculated to produce the surface contour, - predetermine differences in dimension (ΔR, Δr) of a mill which is actually available, with which the machining of the workpiece can take place, from the original mill, - predetermine a surface normal ( f s ) of a face milling surface and a surface normal ( f u ) of a circumferential milling surface for each position of the mill cutter tip, - predetermine a mill orientation ( w ), which specifies the spatial orientation of the mill axis, for each position of the mill path, - for each position of the mill path, determine a correction vector ( V ) from the mill orientation ( w ) and the differences in dimension (ΔR, Δr) of the mill which is actually available and the surface normals for face milling ( f s ) and the surface normals for circumferential milling ( f u ) and - machining the workpiece in order to produce the surface contour by simultaneous face and circumferential milling when the mill which is actually available passes through the mill path predetermined by the NC program, by correcting the differences in dimension (ΔR, Δr) with the correction vector ( V ). - using an NC program to predetermine a mill path on a workpiece in the form of positions of a mill cutter tip, wherein the mill path has been calculated for an original mill in order to produce a surface contour on the workpiece, - predetermine the original mill including its dimensions (R, r), for which the mill path has been calculated to produce the surface contour, - predetermine differences in dimension (ΔR, Δr) of a mill which is actually available, with which the machining of the workpiece can take place, from the original mill, - predetermine a surface normal ( f s ) of a face milling surface and a surface normal ( f u ) of a circumferential milling surface for each position of the mill cutter tip, - predetermine a mill orientation ( w ), which specifies the spatial orientation of the mill axis, for each position of the mill path, - for each position of the mill path, determine a correction vector ( V ) from the mill orientation ( w ) and the differences in dimension (ΔR, Δr) of the mill which is actually available and the surface normals for face milling ( f s ) and the surface normals for circumferential milling ( f u ) and - machining the workpiece in order to produce the surface contour by simultaneous face and circumferential milling when the mill which is actually available passes through the mill path predetermined by the NC program, by correcting the differences in dimension (ΔR, Δr) with the correction vector ( V ).
An optical system for an automotive vehicle, the optical system comprises: a number of first light sources , a number of first optical elements that are configured to reflect light emitted from the number of first light sources ; a second optical element configured to project light transmitted from the number of first optical elements , the first light sources , the first optical elements and the second optical element being configured to perform a first lighting function; and a number of secondary light sources , wherein the second optical element is configured to receive light emitted from the number of secondary light sources and is configured to perform a second lighting function by scattering light received from the number of secondary light sources characterized in that at least a portion of the second optical element is made of a diffusive material; wherein the second optical element is a diffusive projection lens produced by multi-shot injection process formed from various opalescent or diffusive materials with different zones having different levels of diffusivity form application of various grades of opalescent or diffusive materials. a number of first light sources , a number of first optical elements that are configured to reflect light emitted from the number of first light sources ; a second optical element configured to project light transmitted from the number of first optical elements , the first light sources , the first optical elements and the second optical element being configured to perform a first lighting function; and a number of secondary light sources , wherein the second optical element is configured to receive light emitted from the number of secondary light sources and is configured to perform a second lighting function by scattering light received from the number of secondary light sources characterized in that at least a portion of the second optical element is made of a diffusive material; wherein the second optical element is a diffusive projection lens produced by multi-shot injection process formed from various opalescent or diffusive materials with different zones having different levels of diffusivity form application of various grades of opalescent or diffusive materials.
One or more nucleic acid sequences each encoding an elephant p53 protein or one or more elephant p53 proteins for use in a method of inhibiting cancer in a human, the method comprising administering the one or more nucleic acid sequences or the one or more elephant p53 proteins to an animal in need thereof, whereby the cancer is inhibited.
An apparatus for operating on tissue, the apparatus comprising: (a) a body (720; 770; 820); (b) a shaft assembly (730; 780; 830), wherein the shaft assembly extends distally from the body, wherein the shaft assembly defines a longitudinal axis, wherein the shaft assembly comprises an acoustic waveguide , wherein the waveguide is configured to couple with an ultrasonic transducer ; (c) an end effector , wherein the end effector comprises: (i) an ultrasonic blade in acoustic communication with the waveguide, and (ii) a clamp arm , wherein the clamp arm is operable to pivot toward and away from the ultrasonic blade, wherein the translatable member is operable to translate to thereby cause pivoting of the clamp arm toward and away from the ultrasonic blade; and (d) a rotation knob (701; 751; 801), wherein the rotation knob is operable to rotate to thereby cause rotation of the shaft assembly and end effector about the longitudinal axis, characterized in that the rotatable knob is further operable to translate along the longitudinal axis to thereby deliver or selectively control delivery of liquid coolant to the ultrasonic blade. (a) a body (720; 770; 820); (b) a shaft assembly (730; 780; 830), wherein the shaft assembly extends distally from the body, wherein the shaft assembly defines a longitudinal axis, wherein the shaft assembly comprises an acoustic waveguide , wherein the waveguide is configured to couple with an ultrasonic transducer ; (c) an end effector , wherein the end effector comprises: (i) an ultrasonic blade in acoustic communication with the waveguide, and (ii) a clamp arm , wherein the clamp arm is operable to pivot toward and away from the ultrasonic blade, wherein the translatable member is operable to translate to thereby cause pivoting of the clamp arm toward and away from the ultrasonic blade; and (i) an ultrasonic blade in acoustic communication with the waveguide, and (ii) a clamp arm , wherein the clamp arm is operable to pivot toward and away from the ultrasonic blade, wherein the translatable member is operable to translate to thereby cause pivoting of the clamp arm toward and away from the ultrasonic blade; and (d) a rotation knob (701; 751; 801), wherein the rotation knob is operable to rotate to thereby cause rotation of the shaft assembly and end effector about the longitudinal axis, characterized in that the rotatable knob is further operable to translate along the longitudinal axis to thereby deliver or selectively control delivery of liquid coolant to the ultrasonic blade.
A method of reducing color in an alkanolamine, the method comprising: contacting the alkanolamine with an amount of an aqueous solution effective to provide 5 to 1000 parts per million by weight of an alkali metal borohydride, based on parts by weight of the alkanolamine; and 0.5 to 10,000 parts per million by weight of an alkali metal hydroxide, based on parts by weight of the alkanolamine; wherein the color-reduced alkanolamine is not distilled after the contacting and wherein the color-reduced alkanolamine has a Platinum-Cobalt Color Value, Test Method ASTM D1209, of 0 to less than or equal to 20; and wherein the alkanolamine is a mono(Ci-io alkanol)amine, a tri(C 1-10 alkanol)amine, an N-(Ci-io alkyl) mono(C 2-4 alkanol)amine, an N,N-di(Ci-io alkyl) (C 2-4 alkanol)amine, an N-(Ci-io alkanol)pyrrolidine, an N-(C 1-10 alkanol)imidazolidine, an N-(Ci-io alkanol)piperidine, an N-(C 1-10 alkanol)piperazine, or a combination comprising at least one of the foregoing. contacting the alkanolamine with an amount of an aqueous solution effective to provide 5 to 1000 parts per million by weight of an alkali metal borohydride, based on parts by weight of the alkanolamine; and 0.5 to 10,000 parts per million by weight of an alkali metal hydroxide, based on parts 5 to 1000 parts per million by weight of an alkali metal borohydride, based on parts by weight of the alkanolamine; and 0.5 to 10,000 parts per million by weight of an alkali metal hydroxide, based on parts by weight of the alkanolamine; wherein the color-reduced alkanolamine is not distilled after the contacting and wherein the color-reduced alkanolamine has a Platinum-Cobalt Color Value, Test Method ASTM D1209, of 0 to less than or equal to 20; and wherein the alkanolamine is a mono(Ci-io alkanol)amine, a tri(C 1-10 alkanol)amine, an N-(Ci-io alkyl) mono(C 2-4 alkanol)amine, an N,N-di(Ci-io alkyl) (C 2-4 alkanol)amine, an N-(Ci-io alkanol)pyrrolidine, an N-(C 1-10 alkanol)imidazolidine, an N-(Ci-io alkanol)piperidine, an N-(C 1-10 alkanol)piperazine, or a combination comprising at least one of the foregoing. wherein the color-reduced alkanolamine is not distilled after the contacting and wherein the color-reduced alkanolamine has a Platinum-Cobalt Color Value, Test Method ASTM D1209, of 0 to less than or equal to 20; and wherein the alkanolamine is a mono(Ci-io alkanol)amine, a tri(C 1-10 alkanol)amine, an N-(Ci-io alkyl) mono(C 2-4 alkanol)amine, an N,N-di(Ci-io alkyl) (C 2-4 alkanol)amine, an N-(Ci-io alkanol)pyrrolidine, an N-(C 1-10 alkanol)imidazolidine, an N-(Ci-io alkanol)piperidine, an N-(C 1-10 alkanol)piperazine, or a combination comprising at least one of the foregoing.
A method of generating neighbor location information in a multi-hop wireless communication system, the method comprising: any one of a base station and a relay station transmitting (S1310) a location request message to neighbor nodes; the respective one of the base station and the relay station receiving (S1320) a location response message which is transmitted from the neighbor nodes in response to the location request message, wherein the location response message comprises location information of a node included in the location request message; forming (S1330) a neighbor location information table by using the location response message; and transmitting location information of neighbor nodes to the node, characterized in that , the neighbor location information table stores a distance and an angle between the respective one of the base station and the relay station, and the neighbor nodes; and location information of neighbor nodes which are located outside a predetermined distance from the node is deleted from the location information to transmit. any one of a base station and a relay station transmitting (S1310) a location request message to neighbor nodes; the respective one of the base station and the relay station receiving (S1320) a location response message which is transmitted from the neighbor nodes in response to the location request message, wherein the location response message comprises location information of a node included in the location request message; forming (S1330) a neighbor location information table by using the location response message; and transmitting location information of neighbor nodes to the node, characterized in that , the neighbor location information table stores a distance and an angle between the respective one of the base station and the relay station, and the neighbor nodes; and location information of neighbor nodes which are located outside a predetermined distance from the node is deleted from the location information to transmit. the neighbor location information table stores a distance and an angle between the respective one of the base station and the relay station, and the neighbor nodes; and location information of neighbor nodes which are located outside a predetermined distance from the node is deleted from the location information to transmit.
A process for preparing a lubricant base stock from the thermal decomposition of plastic polyolefin polymer, the method comprising the steps of: i) introducing plastic polyolefin polymer into a thermal reaction zone of a vacuum pyrolysis reactor; ii) heating the plastic polyolefin polymer at sub-atmospheric pressure, wherein the temperature in the thermal reaction zone of the reactor is from 500 °C to 750 °C, to induce thermal decomposition of the plastic polyolefin polymer and to form a thermal decomposition product effluent which comprises a major portion by weight of a C 20 to C 60 wax fraction; iii) condensing a vapour component of the thermal decomposition product effluent from the vacuum pyrolysis reactor in a multistage condensation comprising a plurality of condensation stages connected in series; and iv) subjecting the C 20 to C 60 wax fraction of the thermal decomposition product to catalytic hydroisomerization in a hydroisomerization reactor in the presence of hydrogen to form the lubricant base stock. i) introducing plastic polyolefin polymer into a thermal reaction zone of a vacuum pyrolysis reactor; ii) heating the plastic polyolefin polymer at sub-atmospheric pressure, wherein the temperature in the thermal reaction zone of the reactor is from 500 °C to 750 °C, to induce thermal decomposition of the plastic polyolefin polymer and to form a thermal decomposition product effluent which comprises a major portion by weight of a C 20 to C 60 wax fraction; iii) condensing a vapour component of the thermal decomposition product effluent from the vacuum pyrolysis reactor in a multistage condensation comprising a plurality of condensation stages connected in series; and iv) subjecting the C 20 to C 60 wax fraction of the thermal decomposition product to catalytic hydroisomerization in a hydroisomerization reactor in the presence of hydrogen to form the lubricant base stock.
Microphone package comprising - A substrate (SU) - A lid (LD) connected and sealed to the substrate such that a volume is enclosed between lid and substrate - A MEMS chip (MC) and an ASIC (IC) accommodated in the volume and mounted on the substrate - A stopper (ST) sealing between ASIC and lid, separating a volume extension (VEX) from the remaining volume that accommodates the MEMS chip - A first partial volume between MEMS chip and lid - A second partial volume between MEMS chip and substrate - A seal sealing the MEMS chip to the substrate and separating first and second partial volume - A sound path (SC) connecting second partial volume and volume extension thereby assigning the volume extension to the second partial volume wherein first and second partial volume are respectively assigned to one of front volume and back volume of the microphone. - A substrate (SU) - A lid (LD) connected and sealed to the substrate such that a volume is enclosed between lid and substrate - A MEMS chip (MC) and an ASIC (IC) accommodated in the volume and mounted on the substrate - A stopper (ST) sealing between ASIC and lid, separating a volume extension (VEX) from the remaining volume that accommodates the MEMS chip - A first partial volume between MEMS chip and lid - A second partial volume between MEMS chip and substrate - A seal sealing the MEMS chip to the substrate and separating first and second partial volume - A sound path (SC) connecting second partial volume and volume extension thereby assigning the volume extension to the second partial volume
A method for wireless communication at a user equipment, UE , comprising: identifying a random-access preamble for transmission to a base station in a random-access channel occasion as part of a two-step random-access procedure; identifying data or control information for transmission to the base station as part of the two-step random-access procedure; and characterized by transmitting both the random-access preamble and the data or control information within the random-access channel occasion . identifying a random-access preamble for transmission to a base station in a random-access channel occasion as part of a two-step random-access procedure; identifying data or control information for transmission to the base station as part of the two-step random-access procedure; and characterized by transmitting both the random-access preamble and the data or control information within the random-access channel occasion .
Assembly comprising a sweeper for cleaning a rail track , and a remote control centre , the sweeper comprising: - a cleaning device configured to clean the rail track ; and - a traction device (40 for the sweeper ; the sweeper comprising, furthermore, a control system , the control system being of the type comprising a central module and a plurality of peripheral modules connected to the central module , one module of the plurality of peripheral modules being a communication module , configured to establish a communication with the remote control centre , the control system being configured to control the parameters of the cleaning device and of the traction device , the sweeper being an autonomous vehicle, without a driver, the traction device and the cleaning device being steered by the control system , characterised in that the assembly comprises a system for supervision of the traffic of the tramways on the rail track , the control centre being interfaced with the supervision system in order to transmit to it a current position of the sweeper at any moment of the travel of the sweeper on the rail track . - a cleaning device configured to clean the rail track ; and - a traction device (40 for the sweeper ;
A method to control a road vehicle provided with a servo-assisted transmission during a slowing down phase; the control method comprising, when the servo-assisted transmission is in an automatic operating mode, the steps of: detecting a current speed of the road vehicle ; detecting a current gear engaged in the servo-assisted transmission ; and detecting a pressing of a brake pedal ; the control method is characterized in that it comprises the further steps of: calculating, assuming that the pressing of the brake pedal remains constant, an opening time interval needed to allow the road vehicle to reach an opening speed at which a clutch of the servo-assisted transmission is definitively opened before the upcoming stopping of the road vehicle; calculating a number of downshifts that can be carried out in the opening time interval based on a time needed to carry out a downshift; scheduling the downshifts to be carried out in order to get from the current gear engaged in the servo-assisted transmission to an opening gear with which the clutch of the servo-assisted transmission is definitively opened, so as to carry out no more than the number of downshifts that can be carried out in the opening time interval; and carrying out the scheduled downshifts. detecting a current speed of the road vehicle ; detecting a current gear engaged in the servo-assisted transmission ; and detecting a pressing of a brake pedal ; the control method is characterized in that it comprises the further steps of: calculating, assuming that the pressing of the brake pedal remains constant, an opening time interval needed to allow the road vehicle to reach an opening speed at which a clutch of the servo-assisted transmission is definitively opened before the upcoming stopping of the road vehicle; calculating a number of downshifts that can be carried out in the opening time interval based on a time needed to carry out a downshift; scheduling the downshifts to be carried out in order to get from the current gear engaged in the servo-assisted transmission to an opening gear with which the clutch of the servo-assisted transmission is definitively opened, so as to carry out no more than the number of downshifts that can be carried out in the opening time interval; and carrying out the scheduled downshifts. calculating, assuming that the pressing of the brake pedal remains constant, an opening time interval needed to allow the road vehicle to reach an opening speed at which a clutch of the servo-assisted transmission is definitively opened before the upcoming stopping of the road vehicle; calculating a number of downshifts that can be carried out in the opening time interval based on a time needed to carry out a downshift; scheduling the downshifts to be carried out in order to get from the current gear engaged in the servo-assisted transmission to an opening gear with which the clutch of the servo-assisted transmission is definitively opened, so as to carry out no more than the number of downshifts that can be carried out in the opening time interval; and carrying out the scheduled downshifts.
A process for the preparation of saroglitazar magnesium of Formula (I), the process comprising: (a) reacting a hydroxy compound (A) with a mesylate compound (A1) in a mixture of organic solvents in the presence of a base and a phase transfer catalyst at a temperature of 35° C to 85° C to obtain an alkoxy ester compound of Formula (II); (b) hydrolyzing the alkoxy ester compound of Formula (II) with a base to obtain saroglitazar; and (c) reacting the saroglitazar with a magnesium source to obtain saroglitazar magnesium of Formula (I); wherein the mixture of organic solvents comprises cyclohexane and one or more of alcohols selected from methanol, ethanol, isopropanol, 2-propanol, 1-butanol, and t-butyl alcohol; ketones selected from acetone, butanone, and methyl isobutyl ketone; esters selected from ethyl acetate, isopropyl acetate, t-butyl acetate, and isobutyl acetate; chlorinated hydrocarbons selected from methylene dichloride, ethylene dichloride, and chlorobenzene; hydrocarbons selected from pentane, hexane, and heptane and ethers selected from tetrahydrofuran, 1,4-dioxane, diisopropyl ether, diethyl ether, and methyl tert-butyl ether. (a) reacting a hydroxy compound (A) with a mesylate compound (A1) in a mixture of organic solvents in the presence of a base and a phase transfer catalyst at a temperature of 35° C to 85° C to obtain an alkoxy ester compound of Formula (II); (b) hydrolyzing the alkoxy ester compound of Formula (II) with a base to obtain saroglitazar; and (c) reacting the saroglitazar with a magnesium source to obtain saroglitazar magnesium of Formula (I);