mhurhangee/patent-ind-claim-en huggingface dataset:
Continuous flow chemical method for the solid phase synthesis of peptides and enantiomers, diastereomers, stereoisomers, mixtures and salts thereof, and/or derivatives thereof, comprising the steps of: a) preconditioning the solid support for coupling; b) coupling an amino acid free on one terminal group and protected on the other terminal group, and optionally on any other reactive group(s), to the solid support; then c) removing the terminal protecting group from the amino acid coupled to the solid support; then d) coupling another amino acid free on the corresponding terminal group and protected on the other terminal group, and optionally on any other reactive group(s), to the product obtained in step c); then repetition of the operations of steps c) and d) in succession on the protected terminal amino acid of the product obtained in each step d) as many times as necessary to obtain the desired product; and then optionally e) after removing the terminal protecting group from the product obtained in the final step d) "capping" the product thus obtained with a compound free or activated on a reactive group and protected on any other reactive group(s); and/or f) cleaving the peptide obtained in steps d) or e) from the solid support, and optionally converting the product obtained in step f) into a salt and/or a derivative, and/or hydrolysis thereof, characterized by that the steps a)-e) are performed on a temperature ranging from 30 °C to 150 °C and on a pressure ranging from 20 bar to 500 bar,and in step d) the molar ratio between the product obtained in step c) and the amino acid to be coupled is not more than 1:1,5. a) preconditioning the solid support for coupling; b) coupling an amino acid free on one terminal group and protected on the other terminal group, and optionally on any other reactive group(s), to the solid support; then c) removing the terminal protecting group from the amino acid coupled to the solid support; then d) coupling another amino acid free on the corresponding terminal group and protected on the other terminal group, and optionally on any other reactive group(s), to the product obtained in step c); then repetition of the operations of steps c) and d) in succession on the protected terminal amino acid of the product obtained in each step d) as many times as necessary to obtain the desired product; and then optionally e) after removing the terminal protecting group from the product obtained in the final step d) "capping" the product thus obtained with a compound free or activated on a reactive group and protected on any other reactive group(s); and/or f) cleaving the peptide obtained in steps d) or e) from the solid support, and optionally converting the product obtained in step f) into a salt and/or a derivative, and/or hydrolysis thereof,
An enclosed power converter comprising: an outer housing formed of dielectric material, the outer housing including a low voltage compartment and a high voltage compartment ; and a first conductive shield element lining an outer wall of the low voltage compartment, the first conductive shield element being electrically coupled to an electrical DC voltage input received by the low voltage compartment, such as to maintain a minimum voltage difference between the first conductive shield element and components enclosed by the first conductive shield element; characterized by : a second conductive shield element lining an outer wall of the high voltage compartment and connected to a DC voltage output of an electrical component disposed in the high voltage compartment, such as to maintain a minimum voltage difference between the second conductive shield element and components enclosed by the second conductive shield element; a first leakage current sensor disposed between the low voltage compartment and the high voltage compartment; a primary signal processing circuit configured to integrate a leakage current measured by the first leakage current sensor and determine whether the input to the first leakage current sensor exceeds an expected value, and a controller configured to send a warning or perform a shutdown if the input to the first current sensor exceeds the expected value, optionally wherein the primary signal processing circuit is connected to the first conductive shield element. an outer housing formed of dielectric material, the outer housing including a low voltage compartment and a high voltage compartment ; and a first conductive shield element lining an outer wall of the low voltage compartment, the first conductive shield element being electrically coupled to an electrical DC voltage input received by the low voltage compartment, such as to maintain a minimum voltage difference between the first conductive shield element and components enclosed by the first conductive shield element; a second conductive shield element lining an outer wall of the high voltage compartment and connected to a DC voltage output of an electrical component disposed in the high voltage compartment, such as to maintain a minimum voltage difference between the second conductive shield element and components enclosed by the second conductive shield element; a first leakage current sensor disposed between the low voltage compartment and the high voltage compartment; a primary signal processing circuit configured to integrate a leakage current measured by the first leakage current sensor and determine whether the input to the first leakage current sensor exceeds an expected value, and a controller configured to send a warning or perform a shutdown if the input to the first current sensor exceeds the expected value, optionally wherein the primary signal processing circuit is connected to the first conductive shield element.
A method for detecting duplicate Optical Time-Domain Reflectometric, OTDR, measurements comprising: receiving a first OTDR trace and a second OTDR trace, respectively identified as being acquired over a first optical fiber link and a second optical fiber link, the second optical fiber link identified as different from said first optical fiber link; identifying at least one fiber span along the first OTDR trace, which corresponds to a continuous optical fiber section; and comparing the backscattering patterns of said first and second OTDR traces over the identified fiber span to determine if said first and second OTDR traces that are identified as being acquired over different optical fiber links, are likely to have been acquired over the same optical fiber link. receiving a first OTDR trace and a second OTDR trace, respectively identified as being acquired over a first optical fiber link and a second optical fiber link, the second optical fiber link identified as different from said first optical fiber link; identifying at least one fiber span along the first OTDR trace, which corresponds to a continuous optical fiber section; and comparing the backscattering patterns of said first and second OTDR traces over the identified fiber span to determine if said first and second OTDR traces that are identified as being acquired over different optical fiber links, are likely to have been acquired over the same optical fiber link.
Nuclear reactor comprising: a. A vessel delimited by an outer wall and a vessel bottom , b. An enclosure delimited by a substantially cylindrical inner wall , the enclosure being located inside the vessel in such a way that the inner wall and the outer wall define an injection circuit with a substantially annular cross-section, the low end of the enclosure being open in such a way as to allow a fluid, injected into the injection circuit , to circulate to the vessel bottom then to penetrate and to circulate through the enclosure , c. A core located inside the enclosure , d. A support element located at the bottom of the enclosure , the support being configured for maintaining control/command elements of the core , e. A diffusion element of flows configured for making the flow entering into the enclosure uniform, the diffusion element comprising a substantially circular flat surface portion , the flat portion including a plurality of orifices , characterised in that the diffusion element defines a mixing zone free of any obstacle between said diffusion element and the vessel bottom , and in that the orifices all have a circular cross-section of the same diameter, and in that the flat portion is located at a first distance (A) from the support and at a second distance (B) from the lower limit of the vessel bottom , the second distance (B) being greater than the first distance (A), the first distance (A) being ten times greater than the diameter of the orifices . a. A vessel delimited by an outer wall and a vessel bottom , b. An enclosure delimited by a substantially cylindrical inner wall , the enclosure being located inside the vessel in such a way that the inner wall and the outer wall define an injection circuit with a substantially annular cross-section, the low end of the enclosure being open in such a way as to allow a fluid, injected into the injection circuit , to circulate to the vessel bottom then to penetrate and to circulate through the enclosure , c. A core located inside the enclosure , d. A support element located at the bottom of the enclosure , the support being configured for maintaining control/command elements of the core , e. A diffusion element of flows configured for making the flow entering into the enclosure uniform, the diffusion element comprising a substantially circular flat surface portion , the flat portion including a plurality of orifices ,
A method for localizing a robot , comprising: acquiring, by the robot , environment information of a current position; comparing, by the robot , the environment information of the current position with the environment map stored in the robot to obtain a comparison result; when the comparison result does not meet a set comparison requirement, determining, by the robot , at least one passable boundary around the current position based on the environment information of the current position; and selecting a target boundary from the at least one passable boundary, and determining a second position according to the target boundary; wherein the passable boundary is a boundary free from obstacle blocking; moving the robot from the current position to the second position during a localizing process; acquiring environment information of an environment in which the robot moves during the movement; and comparing the environment information with an environment map stored in the robot to identify a pose of the robot in the stored environment map, wherein the pose comprises a position and orientation of the robot . acquiring, by the robot , environment information of a current position; comparing, by the robot , the environment information of the current position with the environment map stored in the robot to obtain a comparison result; when the comparison result does not meet a set comparison requirement, determining, by the robot , at least one passable boundary around the current position based on the environment information of the current position; and selecting a target boundary from the at least one passable boundary, and determining a second position according to the target boundary; wherein the passable boundary is a boundary free from obstacle blocking; moving the robot from the current position to the second position during a localizing process; acquiring environment information of an environment in which the robot moves during the movement; and comparing the environment information with an environment map stored in the robot to identify a pose of the robot in the stored environment map, wherein the pose comprises a position and orientation of the robot .
Method for machining workpieces with unknown workpiece geometry, using a machine tool and having the steps - clamping the workpiece onto a clamping device of the machine tool, - conducting a hand guided 3D line scan inside the machine tool using a measuring probe in order to record the workpiece geometry in a first data set by means of a manual movement of the measuring probe, during which a machine operator takes the measuring probe and deflects it in the direction of the first starting point, - preparing the first data set for the compensation of errors in the hand guided 3D line scan in order to obtain a second data set, - using the second data set for a 3D CAD surface generation to generate a course component geometry, - using the course component geometry to generate scan paths for an automatic 3D line scan, - conducting an automatic 3D line scan of the workpiece inside the machine tool using the measuring probe to obtain a third data set, - using the third data set for a 3D CAD surface generation to generate an exact component geometry, and - automated machining of the workpiece by means of the machine tool based on the exact component geometry. - clamping the workpiece onto a clamping device of the machine tool, - conducting a hand guided 3D line scan inside the machine tool using a measuring probe in order to record the workpiece geometry in a first data set by means of a manual movement of the measuring probe, during which a machine operator takes the measuring probe and deflects it in the direction of the first starting point, - preparing the first data set for the compensation of errors in the hand guided 3D line scan in order to obtain a second data set, - using the second data set for a 3D CAD surface generation to generate a course component geometry, - using the course component geometry to generate scan paths for an automatic 3D line scan, - conducting an automatic 3D line scan of the workpiece inside the machine tool using the measuring probe to obtain a third data set, - using the third data set for a 3D CAD surface generation to generate an exact component geometry, and - automated machining of the workpiece by means of the machine tool based on the exact component geometry.
The compounds having Formula II(e), Formula II(f), Formula II(g), Formula II(h), Formula II(i), or Formula II(j):
An electric vehicle comprising: a power control unit that is arranged to convert direct-current power from a battery into alternating-current power; a driving motor that is arranged to receive a supply of the alternating-current power and generates vehicle driving torque; a first heat exchanger ; a second heat exchanger ; a first pump ; a second pump ; a first cooling channel fitted with the first pump , the first cooling channel and first pump arranged to cause a first cooling liquid to flow through and be cooled in the first heat exchanger , to flow through the power control unit and to flow through the second heat exchanger in this order and return to the first heat exchanger ; and a second cooling channel fitted with the second pump , the second cooling channel and second pump arranged to cause a second cooling liquid cooled by the first cooling liquid in the second heat exchanger to flow through the driving motor and return to the second heat exchanger , wherein the second pump is an electric pump, and wherein the second pump is arranged to start or stop circulation of the second cooling liquid, or increase or reduce a circulation volume of the second cooling liquid, based on one or both of a temperature of the power control unit and a temperature of the first cooling liquid. a power control unit that is arranged to convert direct-current power from a battery into alternating-current power; a driving motor that is arranged to receive a supply of the alternating-current power and generates vehicle driving torque; a first heat exchanger ; a second heat exchanger ; a first pump ; a second pump ; a first cooling channel fitted with the first pump , the first cooling channel and first pump arranged to cause a first cooling liquid to flow through and be cooled in the first heat exchanger , to flow through the power control unit and to flow through the second heat exchanger in this order and return to the first heat exchanger ; and a second cooling channel fitted with the second pump , the second cooling channel and second pump arranged to cause a second cooling liquid cooled by the first cooling liquid in the second heat exchanger to flow through the driving motor and return to the second heat exchanger , wherein the second pump is an electric pump, and wherein the second pump is arranged to start or stop circulation of the second cooling liquid, or increase or reduce a circulation volume of the second cooling liquid, based on one or both of a temperature of the power control unit and a temperature of the first cooling liquid.
A compound of Formula (I): wherein X is CH, CF, CCI, or CCH 3 ; R 1 is OR 1' , wherein R 1' is H, C 1 -C 8 alkyl, or C 7 -C 10 arylalkyl; R 2 is Cl; R 3 and R 4 are each independently hydrogen, C 1 -C 6 alkyl, C 1 -C 6 haloalkyl, C 3 -C 6 alkenyl, C 3 -C 6 haloalkenyl, C 3 -C 6 alkynyl, hydroxy, C 1 -C 6 alkoxy, C 1 -C 6 haloalkoxy, formyl, (C 1 -C 3 alkyl)carbonyl, (C 1 -C 3 haloalkyl)carbonyl, (C 1 -C 6 alkoxy)carbonyl, (C 1 -C 6 alkyl)carbamyl, C 1 -C 6 alkylsulfonyl, tri(C 1 -C 6 alkyl)silyl, di(C 1 -C 6 alkyl)phosphonyl, or R 3 and R 4 together with the nitrogen atom to which they are attached form a 5- or 6-membered saturated ring, or R 3 and R 4 taken together represent =CR 3' R 4' , wherein R 3' and R 4' are each independently hydrogen, C 1 -C 6 alkyl, C 3 -C 6 alkenyl, C 3 -C 6 alkynyl, C 1 -C 6 alkoxy, or C 1 -C 6 alkylamino, or R 3' and R 4' together with the carbon atom to which they are attached form a 5- or 6-membered saturated ring; Ar is Ar1: wherein X 1 is Br, I, ethynyl, CF 2 H, OCF 2 H, OCF 3 , CN, or NO 2 ; with proviso that X 1 is not OCF 3 or CN, when X is CH. or an N-oxide or agriculturally acceptable salt thereof. X is CH, CF, CCI, or CCH 3 ; R 1 is OR 1' , wherein R 1' is H, C 1 -C 8 alkyl, or C 7 -C 10 arylalkyl; R 2 is Cl; R 3 and R 4 are each independently hydrogen, C 1 -C 6 alkyl, C 1 -C 6 haloalkyl, C 3 -C 6 alkenyl, C 3 -C 6 haloalkenyl, C 3 -C 6 alkynyl, hydroxy, C 1 -C 6 alkoxy, C 1 -C 6 haloalkoxy, formyl, (C 1 -C 3 alkyl)carbonyl, (C 1 -C 3 haloalkyl)carbonyl, (C 1 -C 6 alkoxy)carbonyl, (C 1 -C 6 alkyl)carbamyl, C 1 -C 6 alkylsulfonyl, tri(C 1 -C 6 alkyl)silyl, di(C 1 -C 6 alkyl)phosphonyl, or R 3 and R 4 together with the nitrogen atom to which they are attached form a 5- or 6-membered saturated ring, or R 3 and R 4 taken together represent =CR 3' R 4' , wherein R 3' and R 4' are each independently hydrogen, C 1 -C 6 alkyl, C 3 -C 6 alkenyl, C 3 -C 6 alkynyl, C 1 -C 6 alkoxy, or C 1 -C 6 alkylamino, or R 3' and R 4' together with the carbon atom to which they are attached form a 5- or 6-membered saturated ring; Ar is Ar1: wherein X 1 is Br, I, ethynyl, CF 2 H, OCF 2 H, OCF 3 , CN, or NO 2 ; with proviso that X 1 is not OCF 3 or CN, when X is CH. or an N-oxide or agriculturally acceptable salt thereof. X 1 is Br, I, ethynyl, CF 2 H, OCF 2 H, OCF 3 , CN, or NO 2 ; with proviso that X 1 is not OCF 3 or CN, when X is CH. or an N-oxide or agriculturally acceptable salt thereof.
A lower-torso garment (100; 200) comprising: at least one pant leg having a proximal end , a distal end , an inner-facing surface , and an outer-facing surface , the distal end of the at least one pant leg comprising: a first free fabric edge extending towards the proximal end of the at least one pant leg , a second free fabric edge extending towards the proximal end of the at least one pant leg , a first textile comprising one of a micro hook material or a micro loop material located on the outer-facing surface of the distal end of the at least one pant leg adjacent to the first free fabric edge , and a second textile comprising one of a micro hook material or a micro loop material complementary to the micro hook material or the micro loop material of the first textile , the second textile located on the inner-facing surface of the distal end of the at least one pant leg adjacent to the second free fabric edge , wherein the second textile is configured to releasably mate with at least a portion of the first textile , characterized in that the first textile further comprises a distal edge and a first textile boundary , wherein a width of the first textile measured from the first free fabric edge to the first textile boundary increases as the first textile boundary extends distally toward the distal edge . a first free fabric edge extending towards the proximal end of the at least one pant leg , a second free fabric edge extending towards the proximal end of the at least one pant leg , a first textile comprising one of a micro hook material or a micro loop material located on the outer-facing surface of the distal end of the at least one pant leg adjacent to the first free fabric edge , and a second textile comprising one of a micro hook material or a micro loop material complementary to the micro hook material or the micro loop material of the first textile , the second textile located on the inner-facing surface of the distal end of the at least one pant leg adjacent to the second free fabric edge , wherein the second textile is configured to releasably mate with at least a portion of the first textile , characterized in that the first textile further comprises a distal edge and a first textile boundary , wherein a width of the first textile measured from the first free fabric edge to the first textile boundary increases as the first textile boundary extends distally toward the distal edge .
A transaction or identification card having a width, a length, and at least one planar surface extending across the width and length, the card comprising: a dynamic feature comprising an actuator having an inactivated position and an activated position, wherein the inactivated position has at least one reversible difference from the activated position relative to the planar surface of the card; and a circuit comprising the actuator and configured to connect to a power source , the circuit configured to provide sufficient power to the actuator when connected to the power source to cause the actuator to move from the inactivated position to the activated position, characterized in that the at least one reversible difference comprises one or more of a perceptible tactile and/or visual difference. a dynamic feature comprising an actuator having an inactivated position and an activated position, wherein the inactivated position has at least one reversible difference from the activated position relative to the planar surface of the card; and a circuit comprising the actuator and configured to connect to a power source , the circuit configured to provide sufficient power to the actuator when connected to the power source to cause the actuator to move from the inactivated position to the activated position, characterized in that the at least one reversible difference comprises one or more of a perceptible tactile and/or visual difference.