mhurhangee/patent-ind-claim-en huggingface dataset:
A hybrid electrochemical cell comprising: (a) a first conductor having at least a one portion that is both a first capacitor electrode and a first battery electrode; (b) a second conductor having at least one portion that is a second capacitor electrode and at least one other portion that is a second battery electrode ; and (c) an electrolyte in contact with both the first conductor and the second conductor, characterized in that the second capacitor electrode comprises an interconnected corrugated carbon-based network, ICCN , having a three-dimensional structure, wherein the ICCN comprises a plurality of expanded and interconnected carbon layers that include a corrugated carbon layer, wherein each of the plurality of expanded and interconnected carbon layers comprises at least one corrugated carbon sheet that is about one atom thick, and wherein the ICCN comprises a conformal coating of an active material throughout the three-dimensiona structure of the ICCN. (a) a first conductor having at least a one portion that is both a first capacitor electrode and a first battery electrode; (b) a second conductor having at least one portion that is a second capacitor electrode and at least one other portion that is a second battery electrode ; and (c) an electrolyte in contact with both the first conductor and the second conductor,
A disperse dye comprising as an active dyeing compound water-insoluble protonated M- chlorophyllin, where M represents a divalent metal cation, characterized in that : said dye comprises an aqueous dispersion of particles of said active dyeing compound and, said aqueous dispersion has a viscosity of between 0.5 and 5 Pa s. said dye comprises an aqueous dispersion of particles of said active dyeing compound and, said aqueous dispersion has a viscosity of between 0.5 and 5 Pa s.
A low profile stent delivery system comprising: a balloon catheter that includes a catheter and a balloon mounted about the catheter at a first location along a length of the catheter ; a balloon expandable stent ; the low profile stent delivery system has a first configuration characterized by the balloon expandable stent being crimped about the catheter at a second location that is separated from the first location ; the low profile stent delivery system has a second configuration characterized by the balloon expandable stent being in a less than fully expanded state at the second location , and wherein an inner diameter of the stent in the less than fully expanded state is greater than an outer diameter of the balloon in a deflated state ; the low profile stent delivery system has a third configuration characterized by the balloon expandable stent being in the less than fully expanded state at the first location ; and the low profile stent delivery system has a fourth configuration characterized by the balloon expandable stent being in a fully expanded state at the first location in contact with the balloon . a balloon catheter that includes a catheter and a balloon mounted about the catheter at a first location along a length of the catheter ; a balloon expandable stent ; the low profile stent delivery system has a first configuration characterized by the balloon expandable stent being crimped about the catheter at a second location that is separated from the first location ; the low profile stent delivery system has a second configuration characterized by the balloon expandable stent being in a less than fully expanded state at the second location , and wherein an inner diameter of the stent in the less than fully expanded state is greater than an outer diameter of the balloon in a deflated state ; the low profile stent delivery system has a third configuration characterized by the balloon expandable stent being in the less than fully expanded state at the first location ; and the low profile stent delivery system has a fourth configuration characterized by the balloon expandable stent being in a fully expanded state at the first location in contact with the balloon .
A method for identifying macrophage subtype M1 and macrophage subtype M2, wherein the subtype M1 and the subtype M2 are identified based on a spectral characteristic obtained with an organic compound added; the organic compound is a dye compound having a molecular weight of 2000 or less; and the organic compound comprises one or more compounds selected from compounds , , , , , , to , , , to , , to , , , , to , to , , , to , , and , , , to , , to , , and , , , , , , , , , and , and , , , , , , to and shown below: the subtype M1 and the subtype M2 are identified based on a spectral characteristic obtained with an organic compound added; the organic compound is a dye compound having a molecular weight of 2000 or less; and the organic compound comprises one or more compounds selected from compounds , , , , , , to , , , to , , to , , , , to , to , , , to , , and , , , to , , to , , and , , , , , , , , , and , and , , , , , , to and shown below: , , , , , , to , , , to , , to , , , , to , to , , , to , , and , , , to , , to , , and , , , , , , , , , and , and , , , , , , to and shown below:
Mineral-bound building material composition containing a cold-water-soluble, cross-linked starch derivative of an amylopectin-rich starch having a amylopectin content of greater than 85 % and having a 5 % aqueous Brookfield viscosity of the pure starch derivative of 2000-7000 mPas at 100 rpm and 20 °C, wherein the cold-water-soluble, cross-linked starch derivative is obtainable by a simultaneous hydroxypropylation with a degree of substitution MS of 0.1 and up to 0.8 and a cross-linking reaction at a molar ratio of cross-linking reagent to anhydroglucose unit (AGU) of 0.0015 to 0.01 for 3 h at 110 °C and an overpressure of 5 bar.
A process for producing polymer fibers from polymers dissolved in ionic liquids by an air gap spinning process, characterized in that a) a spinning solution containing an ionic liquid and a dissolved polymer is prepared, wherein the spinning solution is obtained by a1) preparing a heterogeneous mixture of a polymer, a non-solvent, which does not or only partially dissolve the polymer, and an ionic liquid, and a2) distilling off the non-solvent, b) said spinning solution is passed through an extruder before being divided into fibers via a die, and c) the fibers obtained are passed via an air gap through a coagulation bath, wherein the fibers are drawn in the air gap, and wherein the polymer fibers are cellulose fibers. a) a spinning solution containing an ionic liquid and a dissolved polymer is prepared, wherein the spinning solution is obtained by a1) preparing a heterogeneous mixture of a polymer, a non-solvent, which does not or only partially dissolve the polymer, and an ionic liquid, and a2) distilling off the non-solvent, a1) preparing a heterogeneous mixture of a polymer, a non-solvent, which does not or only partially dissolve the polymer, and an ionic liquid, and a2) distilling off the non-solvent, b) said spinning solution is passed through an extruder before being divided into fibers via a die, and c) the fibers obtained are passed via an air gap through a coagulation bath, wherein the fibers are drawn in the air gap, and wherein the polymer fibers are cellulose fibers.
An optoelectronic assembly , comprising: a mold compound ; a photonic integrated circuit, PIC , embedded in the mold compound , the PIC having: a first face that is exposed from the mold compound, the face of the PIC including electrical contacts comprising pins or contact pads or sockets, and a second face perpendicular to the first face , including a reflecting coating; an interposer embedded in the mold compound , the interposer having a face that is exposed from the mold compound and is co-planar with the face of the PIC , the face of the interposer having electrical contacts comprising pins or contact pads or sockets; and an electrical integrated circuit, EIC , having electrical contacts comprising contact pads or sockets or pins configured to form pillar bumps when electrically coupled to the electrical contacts on the face of the PIC exposed from the mold compound and to the electrical contacts on the face of the interposer exposed from the mold compound , the EIC comprising bridging electrical connections between the PIC and the interposer . a mold compound ; a photonic integrated circuit, PIC , embedded in the mold compound , the PIC having: a first face that is exposed from the mold compound, the face of the PIC including electrical contacts comprising pins or contact pads or sockets, and a second face perpendicular to the first face , including a reflecting coating; a first face that is exposed from the mold compound, the face of the PIC including electrical contacts comprising pins or contact pads or sockets, and a second face perpendicular to the first face , including a reflecting coating; an interposer embedded in the mold compound , the interposer having a face that is exposed from the mold compound and is co-planar with the face of the PIC , the face of the interposer having electrical contacts comprising pins or contact pads or sockets; and an electrical integrated circuit, EIC , having electrical contacts comprising contact pads or sockets or pins configured to form pillar bumps when electrically coupled to the electrical contacts on the face of the PIC exposed from the mold compound and to the electrical contacts on the face of the interposer exposed from the mold compound , the EIC comprising bridging electrical connections between the PIC and the interposer .
A method for performing visit control on a website, comprising: when a client visits a website over hypertext transfer protocol secure HTTPS, acquiring a certificate message that is generated in a process of key negotiation between the client and a server of the website, wherein the certificate message comprises a server certificate of the website visited by the client; obtaining , by parsing the certificate message, a key value of the server certificate, wherein the key value of the server certificate is based on a preset algorithm; searching a website key value table according to the key value of the server certificate, wherein the website key value table records key values of server certificates of websites on which visit control needs to be performed, wherein the key values in the website key value table are based on the preset algorithm; if the key value of the server certificate is found in the website key value table, performing visit control on the website. when a client visits a website over hypertext transfer protocol secure HTTPS, acquiring a certificate message that is generated in a process of key negotiation between the client and a server of the website, wherein the certificate message comprises a server certificate of the website visited by the client; obtaining , by parsing the certificate message, a key value of the server certificate, wherein the key value of the server certificate is based on a preset algorithm; searching a website key value table according to the key value of the server certificate, wherein the website key value table records key values of server certificates of websites on which visit control needs to be performed, wherein the key values in the website key value table are based on the preset algorithm; if the key value of the server certificate is found in the website key value table, performing visit control on the website.
Protective hood , in particular for a card reader , wherein the protective hood contains an anti-drilling foil which comprises an area-covering anti-drilling conductor track structure with at least one continuous anti-drilling conductor track , characterized in that the protective hood contains two sheet-metal hoods which are stacked one in the other, wherein the anti-drilling foil is arranged between the two sheet-metal hoods , and wherein the two sheet-metal hoods and the anti-drilling foil are adhesively bonded to one another over their full surface area to form a composite cover. wherein the protective hood contains an anti-drilling foil which comprises an area-covering anti-drilling conductor track structure with at least one continuous anti-drilling conductor track , characterized in that the protective hood contains two sheet-metal hoods which are stacked one in the other, wherein the anti-drilling foil is arranged between the two sheet-metal hoods , and wherein the two sheet-metal hoods and the anti-drilling foil are adhesively bonded to one another over their full surface area to form a composite cover.
A heat transfer plate having opposing first and second sides , an outer edge and a central extension plane and including an edge portion comprising corrugations extending between first and second planes which are parallel to the central extension plane, the central extension plane being arranged between the first and second planes , the corrugations being arranged, at the first side of the heat transfer plate, to abut a first adjacent heat transfer plate, and at the second side of the heat transfer plate, to abut a second adjacent heat transfer plate, when the heat transfer plate is arranged in a plate heat exchanger, wherein longitudinal and transverse centre axes of the heat transfer plate, which extend parallel to the central extension plane and perpendicular to each other, define a first, a second, a third and a fourth plate area , wherein the first and second plate areas are arranged on the same side of the transverse centre axis and the first and the third plate areas are arranged on the same side of the longitudinal centre axis , wherein the first, third and fourth plate areas comprise a first, third and fourth guiding section , respectively, characterized in that the first and fourth guiding sections each comprise, as seen from the first side of the heat transfer plate, a male projection projecting beyond the first plane and arranged to engage with the first adjacent heat transfer plate for alignment of the heat transfer plate and the first adjacent heat transfer plate, and, as seen from the second side of the heat transfer plate, a female recess arranged to engage with the second adjacent heat transfer plate for alignment of the heat transfer plate and the second adjacent heat transfer plate, and the third guiding section comprises, as seen from the second side of the heat transfer plate, a male projection projecting beyond the second plane and arranged to engage with the second adjacent heat transfer plate for alignment of the heat transfer plate and the second adjacent heat transfer plate, and, as seen from the first side of the heat transfer plate, a female recess arranged to engage with the first adjacent heat transfer plate for alignment of the heat transfer plate and the first adjacent heat transfer plate.
A monolithically integrated dual gate bidirectional switch configured to mitigate or eliminate forward diode voltage, the monolithically integrated dual gate bidirectional switch comprising: an input terminal (IN); an output terminal (OUT); a control terminal (CTRL); a compound semiconductor substrate ; a common drift region in the compound semiconductor substrate and in series between the input terminal (IN) and the output terminal (OUT); a first gate (G1); and a second gate (G2), wherein the first gate (G1) is electrically connected to the control terminal and the second gate (G2) is electrically connected to the input terminal to provide a gated diode (D2), such that the monolithically integrated bidirectional switch is configured to block voltages of both polarities and conduct current in a single direction from the input terminal (IN) to the output terminal (OUT) through the common drift region via active control of the first gate (G1). an input terminal (IN); an output terminal (OUT); a control terminal (CTRL); a compound semiconductor substrate ; a common drift region in the compound semiconductor substrate and in series between the input terminal (IN) and the output terminal (OUT); a first gate (G1); and a second gate (G2), wherein the first gate (G1) is electrically connected to the control terminal and the second gate (G2) is electrically connected to the input terminal to provide a gated diode (D2), such that the monolithically integrated bidirectional switch is configured to block voltages of both polarities and conduct current in a single direction from the input terminal (IN) to the output terminal (OUT) through the common drift region via active control of the first gate (G1).
A gripping system, comprising: a gripping device comprising a row of grippers arranged in a first direction (X) and adapted to grip a row of contacts ; and a pitch adjustment device adapted to adjust a pitch between adjacent grippers of the row of grippers , wherein the gripping device further comprises a support frame on which at least two grippers of the row of grippers are slidably attached; and a row of gripper supports arranged in a second direction (Y) perpendicular to the first direction (X), the row of grippers being attached on the row of gripper supports , respectively, and each gripper support of the row of gripper supports other than an outmost gripper support being slidably attached on the support frame ; and wherein the pitch adjustment device is adapted to drive the at least two grippers of the row of grippers to slide in the first direction (X), so as to adjust the pitch between adjacent grippers ; wherein the pitch adjustment device comprises: a first pushing mechanism adapted to push each gripper support of the row of gripper supports other than the outmost gripper support to slide in the first direction (X); and characterized in that the pitch adjustment device comprises a first drive mechanism adapted to drive the first pushing mechanism to slide in the second direction (Y). a gripping device comprising a row of grippers arranged in a first direction (X) and adapted to grip a row of contacts ; and a pitch adjustment device adapted to adjust a pitch between adjacent grippers of the row of grippers , wherein the gripping device further comprises a support frame on which at least two grippers of the row of grippers are slidably attached; and a row of gripper supports arranged in a second direction (Y) perpendicular to the first direction (X), the row of grippers being attached on the row of gripper supports , respectively, and each gripper support of the row of gripper supports other than an outmost gripper support being slidably attached on the support frame ; and wherein the pitch adjustment device is adapted to drive the at least two grippers of the row of grippers to slide in the first direction (X), so as to adjust the pitch between adjacent grippers ; wherein the pitch adjustment device comprises: a first pushing mechanism adapted to push each gripper support of the row of gripper supports other than the outmost gripper support to slide in the first direction (X); and characterized in that the pitch adjustment device comprises a first drive mechanism adapted to drive the first pushing mechanism to slide in the second direction (Y). a first pushing mechanism adapted to push each gripper support of the row of gripper supports other than the outmost gripper support to slide in the first direction (X); and characterized in that the pitch adjustment device comprises a first drive mechanism adapted to drive the first pushing mechanism to slide in the second direction (Y).
A generally polygonal indexable cutting insert for milling having a minor cutting edge for finishing at a corner thereof, the minor cutting edge comprising two circular cutting edge portions joined to straight major cutting edges on both sides of the corner and a straight cutting edge portion located between the two circular cutting edge portions, characterized in that the indexable cutting insert for milling satisfies the following conditions: 0.05TA ≤ L1 ≤ 0.4TA, 0.1L1 ≤ L ≤ 0.5L1, and h ≤ 15 μm where TA is the radius of a circle inscribed inside the major cutting edges as viewed in the thickness direction of the indexable cutting insert for milling, L1 is the length of the minor cutting edge in the longitudinal direction of the straight cutting edge portion, L is the length of the straight cutting edge portion, and h is the height of the minor cutting edge.
A method of maneuvering a vehicle prior to making a turn from a lane of a roadway, the method comprising: identifying, by one or more processors, a route that includes making the turn from the lane at an intersection; identifying, by the one or more processors, an area of the lane prior to the turn having a lane width of at least a predetermined size that is sufficient distance to fit another vehicle and the vehicle side by side; receiving, by the one or more processors, from a perception system, sensor data identifying at least one other vehicle within the lane; identifying, by the one or more processors, from the sensor data, characteristics of the at least one other vehicle including a location of the at least one other vehicle relative to the vehicle; and maneuvering, by the one or more processors, the vehicle through the area prior to making the turn using the identified characteristics, wherein maneuvering comprises responding to determining that the at least one other vehicle is in front of the vehicle, such that the at least one other vehicle is closer to the turn than the vehicle, and is closer to one side of the lane, by proceeding alongside the at least one other vehicle. identifying, by one or more processors, a route that includes making the turn from the lane at an intersection; identifying, by the one or more processors, an area of the lane prior to the turn having a lane width of at least a predetermined size that is sufficient distance to fit another vehicle and the vehicle side by side; receiving, by the one or more processors, from a perception system, sensor data identifying at least one other vehicle within the lane; identifying, by the one or more processors, from the sensor data, characteristics of the at least one other vehicle including a location of the at least one other vehicle relative to the vehicle; and maneuvering, by the one or more processors, the vehicle through the area prior to making the turn using the identified characteristics, wherein maneuvering comprises responding to determining that the at least one other vehicle is in front of the vehicle, such that the at least one other vehicle is closer to the turn than the vehicle, and is closer to one side of the lane, by proceeding alongside the at least one other vehicle.