mhurhangee/patent-ind-claim-en huggingface dataset:
A printing recording method comprising: a chromatic ink adhesion step of adhering a liquid droplet of a chromatic ink composition which contains a pigment and an anionic first resin particle to a cloth; a treatment liquid adhesion step of adhering a liquid droplet of a treatment liquid which contains a cationic compound to the cloth; and an achromatic ink adhesion step of adhering a liquid droplet of an achromatic ink composition which contains an anionic second resin particle to the cloth, wherein the treatment liquid adhesion step, the chromatic ink adhesion step, and the achromatic ink adhesion step are performed by an inkjet method, the ink jet method is a method to perform a main scanning a plurality of times for recording by transferring an ink jet head in a direction perpendicular to a transport direction of the cloth, and the ink jet method includes: a simultaneous adhesion step of adhering the treatment liquid and the chromatic ink composition to the same scanning region of the cloth by the same main scanning, and after the simultaneous adhesion step, a post-adhesion step of adhering the achromatic ink composition to the same scanning region of the cloth by a main scanning different from that in the simultaneous adhesion step. a chromatic ink adhesion step of adhering a liquid droplet of a chromatic ink composition which contains a pigment and an anionic first resin particle to a cloth; a treatment liquid adhesion step of adhering a liquid droplet of a treatment liquid which contains a cationic compound to the cloth; and an achromatic ink adhesion step of adhering a liquid droplet of an achromatic ink composition which contains an anionic second resin particle to the cloth, wherein the treatment liquid adhesion step, the chromatic ink adhesion step, and the achromatic ink adhesion step are performed by an inkjet method, the ink jet method is a method to perform a main scanning a plurality of times for recording by transferring an ink jet head in a direction perpendicular to a transport direction of the cloth, and the ink jet method includes: a simultaneous adhesion step of adhering the treatment liquid and the chromatic ink composition to the same scanning region of the cloth by the same main scanning, and after the simultaneous adhesion step, a post-adhesion step of adhering the achromatic ink composition to the same scanning region of the cloth by a main scanning different from that in the simultaneous adhesion step. a simultaneous adhesion step of adhering the treatment liquid and the chromatic ink composition to the same scanning region of the cloth by the same main scanning, and after the simultaneous adhesion step, a post-adhesion step of adhering the achromatic ink composition to the same scanning region of the cloth by a main scanning different from that in the simultaneous adhesion step.
A method for manufacturing optical sheet having a plurality of layers in which at least one layer is an optical functional sheet layer comprising: light-transmissive portions configured to be arranged in a row along the surface of a base material layer; and light-absorbing portions arranged between the light-transmissive portions, the method comprising the steps of: forming the light-transmissive portions on one side of the base material layer; forming the light-absorbing portions having recess portions in gaps between the light-transmissive portions by, at least once, filling a binder made of a resin in which light-absorbing particles are dispersed in the gaps between the light-transmissive portions and curing the binder; and then, filling a transparent resin in the recess portion formed in the gap between the light-transmissive portions and curing the transparent resin. forming the light-transmissive portions on one side of the base material layer; forming the light-absorbing portions having recess portions in gaps between the light-transmissive portions by, at least once, filling a binder made of a resin in which light-absorbing particles are dispersed in the gaps between the light-transmissive portions and curing the binder; and then, filling a transparent resin in the recess portion formed in the gap between the light-transmissive portions and curing the transparent resin.
A tunable qubit device comprising: a tunable qubit , the tunable qubit comprising a superconducting quantum interference device (SQUID) loop ; a superconducting loop inductively coupled to the SQUID loop ; and a flux bias line (108, 214, 306, 404, 408 504, 508) inductively coupled to the superconducting loop , wherein the superconducting loop is formed from a superconducting material having a critical temperature that is a lower temperature than a critical temperature of any superconducting material of the tunable qubit , and wherein, in operation, the superconducting loop provides a persistent bias to the tunable qubit . a tunable qubit , the tunable qubit comprising a superconducting quantum interference device (SQUID) loop ; a superconducting loop inductively coupled to the SQUID loop ; and a flux bias line (108, 214, 306, 404, 408 504, 508) inductively coupled to the superconducting loop , wherein the superconducting loop is formed from a superconducting material having a critical temperature that is a lower temperature than a critical temperature of any superconducting material of the tunable qubit , and wherein, in operation, the superconducting loop provides a persistent bias to the tunable qubit .
A pattern formation part forming a fiber optic pattern on the surface, the pattern formation part being comprised of: a leno-weave fabric made by interweaving first warp yarns which are transparent warp yarns and transmit at least part of light and second warp yarns which are opaque warp yarns with first weft yarns which are fiber optic weft yarns, with the first warp yarns and the second warp yarns being twisted in opposite direction around the first weft yarns , the first weft yarns forming a fiber optic pattern on the surface, and the first weft yarns always going under the first warp yarns and always going over the second warp yarns during weaving, wherein the pattern forming part further comprises: second weft yarns which are alternately arranged with the first weft yarns next to each other as seen on the same plane of the pattern formation part, and during weaving, the first and second weft yarns run together through the same slots or run separately through different slots that are formed by the first and second warp yarns , with the second weft yarns always going under the first warp yarns and always going over the second warp yarns , and the second weft yarns are pattern formation weft yarns of a certain color for creating a pattern when the first weft yarns are not illuminated. a leno-weave fabric made by interweaving first warp yarns which are transparent warp yarns and transmit at least part of light and second warp yarns which are opaque warp yarns with first weft yarns which are fiber optic weft yarns, with the first warp yarns and the second warp yarns being twisted in opposite direction around the first weft yarns , the first weft yarns forming a fiber optic pattern on the surface, and the first weft yarns always going under the first warp yarns and always going over the second warp yarns during weaving, wherein the pattern forming part further comprises: second weft yarns which are alternately arranged with the first weft yarns next to each other as seen on the same plane of the pattern formation part, and during weaving, the first and second weft yarns run together through the same slots or run separately through different slots that are formed by the first and second warp yarns , with the second weft yarns always going under the first warp yarns and always going over the second warp yarns , and the second weft yarns are pattern formation weft yarns of a certain color for creating a pattern when the first weft yarns are not illuminated.
A torque detection device for use in an electrical power steering device comprising a housing divided into an input shaft-side portion for an input shaft rotatably supported by a bearing and an output shaft-side portion for an output shaft rotatably supported by bearings , the input shaft and the output shaft being connected to each other via a torsion bar placed in the input shaft , the input shaft , the torsion bar and the output shaft being coaxially arranged, a worm wheel that meshes with a worm driven by an electrical motor , the torque detection device comprising: a torsion bar including one end connected to the input shaft and another end connected to the output shaft ; a cylindrical member located outside a sensor shaft formed in the input shaft coaxially with the sensor shaft , the cylindrical member and the sensor shaft are made of a nonmagnetic material and magnetic material, respectively, the cylindrical member having a plurality of windows arranged in a circumferential direction; a pair of detection coils , impedances of the pair of detection coils changing in a direction opposite to each other depending on a torque generated in the input shaft ; a torque calculation circuit configured to calculate the torque on the basis of voltages output from the detection coils ; two reel coil bobbins around which the pair of detection coils are respectively wound; electromagnetic yokes comprising cylindrical portions which respectively hold the two coil bobbins fitted thereinto; and one yoke cover fitted by pressing into the inner diameters of the cylindrical portions of the two electromagnetic yokes at an intermediate position between the two electromagnetic yokes and the two reel coil bobbins axially opposed to each other; characterized in that each of the two coil bobbins comprises pressing portions which include: a plurality of first projecting portions formed to project radially outward at a plurality of circumferential positions of a radial outer end portion of respective flange portions of the two coil bobbins and second projecting portions projecting axially from a radial outer end portion of each of the first projecting portions , wherein each of the second projecting portions of the first coil bobbin abut against the corresponding second projecting portion of the second coil bobbin and wherein the axial length (d2) of the respective second projecting portions is set to allow their axial end portions to abut against each other and push against each other, the pressing portions act between the two coil bobbins to axially press the two coil bobbins .
A method for providing lawful interception information for an Internet of Things network, the method being performed by a topology of probes and comprising: finalizing a specification based on one or more privacy requirement settings; generating a hierarchy of information elements based on the finalized specification, each of the information elements including information related to at least one of: a dependency and one or more reporting requirements; determining, based on the privacy requirement settings, a set of data sources for providing the reporting information according to the hierarchy of information elements; determining a hierarchy of probes based on the set of data sources, and an associated privacy compliance level; configuring the topology of probes based on a set of configurations including privacy; activating lawful interception operation in the topology of probes; performing lawful interception operation by the topology of probes as per the set of configurations including privacy; verifying effectiveness of reporting conforming to the reporting requirements and privacy compliance, and taking corrective action; and updating learning data in a historical database at the end of lawful interception operation. finalizing a specification based on one or more privacy requirement settings; generating a hierarchy of information elements based on the finalized specification, each of the information elements including information related to at least one of: a dependency and one or more reporting requirements; determining, based on the privacy requirement settings, a set of data sources for providing the reporting information according to the hierarchy of information elements; determining a hierarchy of probes based on the set of data sources, and an associated privacy compliance level; configuring the topology of probes based on a set of configurations including privacy; activating lawful interception operation in the topology of probes; performing lawful interception operation by the topology of probes as per the set of configurations including privacy; verifying effectiveness of reporting conforming to the reporting requirements and privacy compliance, and taking corrective action; and updating learning data in a historical database at the end of lawful interception operation.
A method, comprising: forming a first interconnect spaced from a second interconnect over a substrate , the forming comprising: forming a first conductor over the substrate; forming a second conductor over the first conductor; and defining the first and second interconnects by removing portions of the first and second conductors and forming first and second sidewalls of the first and second interconnects, respectively, the first and second sidewalls being transverse to the substrate; forming a resistive layer over the first and second interconnects ; forming a dielectric cap layer over the resistive layer ; and forming a capped thin film resistor electrically connecting first conductors of the first and second interconnects together, the forming including removing portions of the resistive layer and the dielectric cap layer , characterised in that a top surface of the capped thin film resistor is below a top surface of the substrate. forming a first interconnect spaced from a second interconnect over a substrate , the forming comprising: forming a first conductor over the substrate; forming a second conductor over the first conductor; and defining the first and second interconnects by removing portions of the first and second conductors and forming first and second sidewalls of the first and second interconnects, respectively, the first and second sidewalls being transverse to the substrate; forming a first conductor over the substrate; forming a second conductor over the first conductor; and defining the first and second interconnects by removing portions of the first and second conductors and forming first and second sidewalls of the first and second interconnects, respectively, the first and second sidewalls being transverse to the substrate; forming a resistive layer over the first and second interconnects ; forming a dielectric cap layer over the resistive layer ; and forming a capped thin film resistor electrically connecting first conductors of the first and second interconnects together, the forming including removing portions of the resistive layer and the dielectric cap layer , characterised in that a top surface of the capped thin film resistor is below a top surface of the substrate.
A method for manufacturing a multitude of optical devices , the method comprising: - providing a replication tool comprising a tool material ; - conditioning the replication tool , wherein conditioning the replication tool comprises applying a treatment to the tool material , the treatment comprising exposing the tool material to a conditioning material , the treatment further comprising dimensionally changing the tool material by uptake of the conditioning material in the tool material ; and the method further comprising, after the conditioning: - carrying out one or more replication processes, wherein in each of the one or more replication processes, one or more of the optical devices are produced from a replication material by replication using the replication tool . - providing a replication tool comprising a tool material ; - conditioning the replication tool , wherein conditioning the replication tool comprises applying a treatment to the tool material , the treatment comprising exposing the tool material to a conditioning material , the treatment further comprising dimensionally changing the tool material by uptake of the conditioning material in the tool material ; and - carrying out one or more replication processes, wherein in each of the one or more replication processes, one or more of the optical devices are produced from a replication material by replication using the replication tool .
A reel comprising: a hub that includes a winding part upon which a wire is windable; first and second flanges that are spaced in an axial direction along the hub and that include facing surfaces with the winding part interposed therebetween; a first information display portion protruding from a surface opposite the facing surface of the first flange , wherein the first information display portion is positioned on a first circumference radially spaced from a shaft center of the hub; a second information display portion protruding from the surface of the first flange and that is disposed on a second circumference having a diameter smaller than said first circumference; wherein with respect to a circle defined by said first circumference the first information display portion is positioned in a first sector of said circle, and at least part of said second information display portion is positioned in a second sector of said circle, wherein the second sector of said circle is adjacent to and does not overlap with said first sector of said circle, characterized in that a plurality of first information display portions are respectively positioned within a plurality of first sectors of said circle, and a plurality of second information display portions are at least partially positioned within a plurality of second sectors of said circle, and wherein said first sectors and said second sectors are alternatingly arranged about said first circumference. a hub that includes a winding part upon which a wire is windable; first and second flanges that are spaced in an axial direction along the hub and that include facing surfaces with the winding part interposed therebetween; a first information display portion protruding from a surface opposite the facing surface of the first flange , wherein the first information display portion is positioned on a first circumference radially spaced from a shaft center of the hub; a second information display portion protruding from the surface of the first flange and that is disposed on a second circumference having a diameter smaller than said first circumference; wherein with respect to a circle defined by said first circumference the first information display portion is positioned in a first sector of said circle, and at least part of said second information display portion is positioned in a second sector of said circle, wherein the second sector of said circle is adjacent to and does not overlap with said first sector of said circle, characterized in that a plurality of first information display portions are respectively positioned within a plurality of first sectors of said circle, and a plurality of second information display portions are at least partially positioned within a plurality of second sectors of said circle, and wherein said first sectors and said second sectors are alternatingly arranged about said first circumference.
A hydrometallurgical method for a nickel oxide ore, comprising a leaching step of preparing a slurry of a nickel oxide ore having a carbon content of 0.20% by mass or more, adding sulfuric acid to the ore slurry in a reaction container, and subjecting the resultant slurry to a leaching treatment at high temperature and high pressure to obtain a leachate containing nickel and cobalt, wherein in the leaching step, an oxidation-reduction potential (Ag/AgCl basis) in the leaching treatment is controlled to 520 mV to 560 mV by supplying only high pressure oxygen.
A polyethylene composition comprising a blend of between 5 and 40 wt/% of a first polyethylene produced with a chromium based catalyst and having an MFR2 between 0.01 and 1 g/10 min, wherein the first polyethylene is a high density polyethylene with a density between 940 and 965 kg/m 3 , and between 60 and 95 wt% of a second polyethylene with an MFR2 between > 1 and 12 g/10min.
An electrically controlled switching device comprising: a support ; a first contact coupled to the support ; a second contact coupled to the support ; a shape memory alloy (SMA) element operably connected with the second contact and configured to transform between a first shape and a different second shape responsive to an electrical pulse heating the SMA element to a transformation temperature; a sensor positioned on or adjacent to the SMA element and configured to detect a detected temperature of the SMA element ; a contact carrier coupled with the second contact , and a controller in communication with the sensor and configured to control the electrical pulse heating the SMA element , wherein the controller receives signals from the sensor indicative of the detected temperature of the SMA element characterized by : a heat sink connected to the support and the SMA including a first end connected to the heat sink and a second end connected to the contact carrier . a support ; a first contact coupled to the support ; a second contact coupled to the support ; a shape memory alloy (SMA) element operably connected with the second contact and configured to transform between a first shape and a different second shape responsive to an electrical pulse heating the SMA element to a transformation temperature; a sensor positioned on or adjacent to the SMA element and configured to detect a detected temperature of the SMA element ; a contact carrier coupled with the second contact , and a controller in communication with the sensor and configured to control the electrical pulse heating the SMA element , wherein the controller receives signals from the sensor indicative of the detected temperature of the SMA element characterized by : a heat sink connected to the support and the SMA including a first end connected to the heat sink and a second end connected to the contact carrier . a heat sink connected to the support and the SMA including a first end connected to the heat sink and a second end connected to the contact carrier .
A hypoxia-activated bioreductive agent for use in a method of administering said agent to a liver tissue of a subject in need thereof to treat liver cancer, the method comprising: applying locally to said liver tissue a therapeutically effective amount of said agent, wherein said applying locally is performed when pressure of a hepatic artery of said subject is reduced, wherein said pressure is reduced by introducing a vessel occlusion device comprising a balloon into said hepatic artery, thereby treating said liver cancer.