mhurhangee/patent-ind-claim-en huggingface dataset:
Modular holder for textile fabrics comprising: - a chain of function units and end units having an oval form and made from polymer, - each unit having a front part with a boss shape and a cylindrical neck with a circular enlargement with reinforced ledges on one side and a shelf portion on the other side, - an intermediate part and - an end part with a tear-drop shaped opening leading via an entrance to a part-circular recess , being slightly wider than said cylindrical neck , to enable said units to be connected during use, - on each function unit , the intermediate part has a flexible pinch slot with both linear and waved portions formed on each inner contacting surface, which begin to open up at a centre part and then diverge away from one another towards the end part characterised in that, on each outer side of said pinch slot are a pair of inner ribs connected via a pair of inclined space bars to an outer rib , thereby forming relief space portions between said inner and outer ribs. - a chain of function units and end units having an oval form and made from polymer, - each unit having a front part with a boss shape and a cylindrical neck with a circular enlargement with reinforced ledges on one side and a shelf portion on the other side, - an intermediate part and - an end part with a tear-drop shaped opening leading via an entrance to a part-circular recess , being slightly wider than said cylindrical neck , to enable said units to be connected during use, - on each function unit , the intermediate part has a flexible pinch slot with both linear and waved portions formed on each inner contacting surface, which begin to open up at a centre part and then diverge away from one another towards the end part
A fine water discharge device for a human body which discharges fine water to the human body, the device comprising: a plurality of fine water generating units which are brought into a moisture absorption state in which moisture in air is absorbed in a conductive polymer film due to a decrease in temperature and a moisture release state in which the absorbed moisture is released from the conductive polymer film as fine water due to an increase in temperature and are disposed in parallel; a blowing unit which blows air so that air flows through the fine water generating units ; an electrifying portion which individually electrifies the plurality of fine water generating units so that a temperature of each fine water generating unit is changed depending on presence or absence of electrification; and a control portion which controls the electrifying portion and the blowing unit so that the plurality of fine water generating units are individually switched between the moisture absorption state and the moisture release state to discharge the fine water by blowing air, characterized in that the fine water discharge device is configured to discharge fine water having a particle size of 50 nanometers or less. a plurality of fine water generating units which are brought into a moisture absorption state in which moisture in air is absorbed in a conductive polymer film due to a decrease in temperature and a moisture release state in which the absorbed moisture is released from the conductive polymer film as fine water due to an increase in temperature and are disposed in parallel; a blowing unit which blows air so that air flows through the fine water generating units ; an electrifying portion which individually electrifies the plurality of fine water generating units so that a temperature of each fine water generating unit is changed depending on presence or absence of electrification; and a control portion which controls the electrifying portion and the blowing unit so that the plurality of fine water generating units are individually switched between the moisture absorption state and the moisture release state to discharge the fine water by blowing air, characterized in that the fine water discharge device is configured to discharge fine water having a particle size of 50 nanometers or less.
A method (600; 1500; 1600) for wireless communication, comprising: performing (620; 1505; 1605) a channel access procedure on a shared radio frequency spectrum band using a first beam configuration, wherein the channel access procedure comprises at least one of an energy-based listen-before-talk, LBT procedure or a preamble-based LBT procedure; transmitting (625; 1510; 1610), based at least in part on successful completion of the channel access procedure, a reservation request message, RRQ, to a user equipment , UE, using a second beam configuration, wherein the RRQ includes a request to reserve the channel in the direction towards the UE, the second beam configuration comprising a beam width that is equal to or narrower than a beam width of the first beam configuration; and receiving (630; 1515; 1615) a reservation response message, RRS, from the UE to confirm the requested reservation in response to the RRQ, the RRS comprising a third beam configuration that is based at least in part on the second beam configuration. performing (620; 1505; 1605) a channel access procedure on a shared radio frequency spectrum band using a first beam configuration, wherein the channel access procedure comprises at least one of an energy-based listen-before-talk, LBT procedure or a preamble-based LBT procedure; transmitting (625; 1510; 1610), based at least in part on successful completion of the channel access procedure, a reservation request message, RRQ, to a user equipment , UE, using a second beam configuration, wherein the RRQ includes a request to reserve the channel in the direction towards the UE, the second beam configuration comprising a beam width that is equal to or narrower than a beam width of the first beam configuration; and receiving (630; 1515; 1615) a reservation response message, RRS, from the UE to confirm the requested reservation in response to the RRQ, the RRS comprising a third beam configuration that is based at least in part on the second beam configuration.
A system for dispensing a liquid, comprising: - a liquid dispensing apparatus (A) comprising a device for pumping liquid and dispensing the pumped liquid, the device comprising a venting system that is only activated in case of pumping of the liquid, the apparatus including at least two hollow needles , namely a main needle and a secondary needle , which are each secured to a part of the apparatus that is separate from the device , and - a liquid vessel (R) that comprises an inner liquid suction tube extending to the bottom of the vessel, said vessel being able, on the one hand, to be introduced into said apparatus in order to be perforated by said at least two hollow needles and, on the other hand, to be removed from said apparatus if needed, when the vessel is introduced into the apparatus, the main needle forms a first communication interface between the inner liquid suction tube of the vessel and the device for pumping liquid and dispensing the pumped liquid so as to establish a first fluid circuit for the liquid in case of pumping of the liquid, the secondary needle forming a second communication interface between the venting system of the device and the inside of the vessel so as to establish, in case of pumping of the liquid, a second fluid circuit for the outside compensating air, the second fluid circuit being tight with respect to the first liquid fluid circuit. - a liquid dispensing apparatus (A) comprising a device for pumping liquid and dispensing the pumped liquid, the device comprising a venting system that is only activated in case of pumping of the liquid, the apparatus including at least two hollow needles , namely a main needle and a secondary needle , which are each secured to a part of the apparatus that is separate from the device , and - a liquid vessel (R) that comprises an inner liquid suction tube extending to the bottom of the vessel, said vessel being able, on the one hand, to be introduced into said apparatus in order to be perforated by said at least two hollow needles and, on the other hand, to be removed from said apparatus if needed,
Lithium manganese phosphate nanoparticles, having a ratio I 20 /I 29, the peak intensity at 20° to the peak intensity at 29° obtained by X-ray diffraction, of greater than or equal to 0.88 and less than or equal to 1.05, a crystallite size determined by X-ray diffraction of greater than or equal to 10 nm and less than or equal to 50 nm, and a ratio I 35/ I 29 , the peak intensity at 35° to the peak intensity at 29° obtained by X-ray diffraction, of greater than or equal to 1.05 and less than or equal to 1.20.
A self-locking hooked crimp for connecting wires by a crimp connection including an interlock seam comprising at least one crimp barrel , wherein the crimp barrel comprises at least one base and at least two opposing side walls extending from the base, wherein the first side wall is provided with at least one self-locking wing , the second side wall is provided with at least one self-locking hooked pocket , the at least one self-locking wing of the first side wall is adapted to enter inside the at least one self-locking hooked pocket of the second side wall and to get crimped with the wires during forming the crimp connection, wherein during forming the crimp connection an edge of the at least one self-locking wing and at least one self-locking pocket get squeezed against each other to create the interlock connection of the seam, characterized in that the length of the side walls is such that when the side walls are engaged to form the interlocked connection of the seam, the ends of the side walls do not hit the inner surface of the crimp. at least one crimp barrel , wherein the crimp barrel comprises at least one base and at least two opposing side walls extending from the base, wherein the first side wall is provided with at least one self-locking wing , the second side wall is provided with at least one self-locking hooked pocket , the at least one self-locking wing of the first side wall is adapted to enter inside the at least one self-locking hooked pocket of the second side wall and to get crimped with the wires during forming the crimp connection, at least one base and at least two opposing side walls extending from the base, wherein the first side wall is provided with at least one self-locking wing , the second side wall is provided with at least one self-locking hooked pocket , the at least one self-locking wing of the first side wall is adapted to enter inside the at least one self-locking hooked pocket of the second side wall and to get crimped with the wires during forming the crimp connection, the first side wall is provided with at least one self-locking wing , the second side wall is provided with at least one self-locking hooked pocket , the at least one self-locking wing of the first side wall is adapted to enter inside the at least one self-locking hooked pocket of the second side wall and to get crimped with the wires during forming the crimp connection, wherein during forming the crimp connection an edge of the at least one self-locking wing and at least one self-locking pocket get squeezed against each other to create the interlock connection of the seam, characterized in that the length of the side walls is such that when the side walls are engaged to form the interlocked connection of the seam, the ends of the side walls do not hit the inner surface of the crimp.
A method for generating a digital model of a patient's dentition, the method executed at least in part by a computer and comprising: acquiring (S100, S110, S120, S130, S140) a 3-D digital mesh that is representative of the patient's dentition along a dental arch, wherein the digital mesh includes braces, teeth, and gingival tissue; modifying the 3-D digital mesh to generate (S1002; S1402) a digital mesh dentition model by: (i) processing the digital mesh and automatically detecting one or more initial bracket positions from the acquired mesh; (ii) processing the initial bracket positions to identify bracket areas for braces that lie against tooth surfaces; (iii) identifying one or more brace wires extending between brackets; (iv) removing (S1008; S1406) one or more brackets and one or more wires from the dentition model; (v) forming (S1010; S1408) a reconstructed tooth surface within the digital mesh dentition model where the one or more brackets have been removed; and displaying (S1012; S1410), storing, or transmitting over a network to another computer, the modified 3-D digital mesh dentition model. acquiring (S100, S110, S120, S130, S140) a 3-D digital mesh that is representative of the patient's dentition along a dental arch, wherein the digital mesh includes braces, teeth, and gingival tissue; modifying the 3-D digital mesh to generate (S1002; S1402) a digital mesh dentition model by: (i) processing the digital mesh and automatically detecting one or more initial bracket positions from the acquired mesh; (ii) processing the initial bracket positions to identify bracket areas for braces that lie against tooth surfaces; (iii) identifying one or more brace wires extending between brackets; (iv) removing (S1008; S1406) one or more brackets and one or more wires from the dentition model; (v) forming (S1010; S1408) a reconstructed tooth surface within the digital mesh dentition model where the one or more brackets have been removed; and (i) processing the digital mesh and automatically detecting one or more initial bracket positions from the acquired mesh; (ii) processing the initial bracket positions to identify bracket areas for braces that lie against tooth surfaces; (iii) identifying one or more brace wires extending between brackets; (iv) removing (S1008; S1406) one or more brackets and one or more wires from the dentition model; (v) forming (S1010; S1408) a reconstructed tooth surface within the digital mesh dentition model where the one or more brackets have been removed; and displaying (S1012; S1410), storing, or transmitting over a network to another computer, the modified 3-D digital mesh dentition model.
An electrochemical cell stack comprising: a plurality of electrochemical cell units, each comprising a cathode, an anode, and an electrolyte disposed between the cathode and the anode; and a plurality of interconnects, each interconnect being disposed between adjacent electrochemical cell units, each of the plurality of interconnects comprising an interconnect main body defining a longitudinal channel along a longitudinal axis thereof, and a plurality of corrugations defined circumferentially around the longitudinal channel; wherein a fuel channel is defined between each anode and a respective adjacent interconnect, the fuel channel having a fuel inlet and a fuel outlet; wherein an oxidant channel is defined between each cathode and a respective adjacent interconnect, the oxidant channel having an oxidant inlet and an oxidant outlet; and wherein the plurality of electrochemical cell units and interconnects include a first electrochemical cell unit, a first interconnect adjacent the first electrochemical cell unit, a second electrochemical cell unit adjacent the first interconnect, and a second interconnect adjacent the second electrochemical cell unit, the second interconnect being rotationally offset from the first interconnect about a longitudinal axis of the electrochemical cell stack. a plurality of electrochemical cell units, each comprising a cathode, an anode, and an electrolyte disposed between the cathode and the anode; and a plurality of interconnects, each interconnect being disposed between adjacent electrochemical cell units, each of the plurality of interconnects comprising an interconnect main body defining a longitudinal channel along a longitudinal axis thereof, and a plurality of corrugations defined circumferentially around the longitudinal channel; wherein a fuel channel is defined between each anode and a respective adjacent interconnect, the fuel channel having a fuel inlet and a fuel outlet; wherein an oxidant channel is defined between each cathode and a respective adjacent interconnect, the oxidant channel having an oxidant inlet and an oxidant outlet; and wherein the plurality of electrochemical cell units and interconnects include a first electrochemical cell unit, a first interconnect adjacent the first electrochemical cell unit, a second electrochemical cell unit adjacent the first interconnect, and a second interconnect adjacent the second electrochemical cell unit, the second interconnect being rotationally offset from the first interconnect about a longitudinal axis of the electrochemical cell stack.
An external antimicrobial composition for use in prevention or treatment of bacterial infection, comprising a depsipeptide antibiotic drug , which is lotilibcin having the following structural formula : or a pharmaceutically acceptable salt or stereoisomer thereof, in a concentration of at least 0.03μg/mL and boric acid in an amount of at least 0.01% by mass, wherein said combination exhibits antimicrobial synergy and thereby results in eradication of said bacteria and improvement or resolution of said infection caused by said bacteria.
A ship , comprising: a hull ; an engine disposed in an engine room defined in the hull ; an exhaust passage of the engine ; and an exhaust gas purification device disposed in the exhaust passage of the engine disposed in the engine room defined in the hull , the exhaust gas purification device being configured to remove at least a nitrogen oxide from an exhaust gas discharged from the engine , the exhaust gas purification device comprising: a catalytic part including a selective reducing catalyst for selectively reducing the nitrogen oxide; a reducing agent addition device configured to add a reducing agent to the exhaust gas on an upstream side of the catalytic part in a flow direction of the exhaust gas; and a casing configured to contain the catalytic part, wherein at least a part of the casing is disposed inside the engine room , and characterized in that the reducing agent addition device includes an injection nozzle attached to the casing and having a nozzle hole inserted in the casing , the injection nozzle being configured to inject the reducing agent into the casing . a hull ; an engine disposed in an engine room defined in the hull ; an exhaust passage of the engine ; and an exhaust gas purification device disposed in the exhaust passage of the engine disposed in the engine room defined in the hull , the exhaust gas purification device being configured to remove at least a nitrogen oxide from an exhaust gas discharged from the engine , the exhaust gas purification device comprising: a catalytic part including a selective reducing catalyst for selectively reducing the nitrogen oxide; a reducing agent addition device configured to add a reducing agent to the exhaust gas on an upstream side of the catalytic part in a flow direction of the exhaust gas; and a casing configured to contain the catalytic part, wherein at least a part of the casing is disposed inside the engine room , and characterized in that the reducing agent addition device includes an injection nozzle attached to the casing and having a nozzle hole inserted in the casing , the injection nozzle being configured to inject the reducing agent into the casing . a catalytic part including a selective reducing catalyst for selectively reducing the nitrogen oxide; a reducing agent addition device configured to add a reducing agent to the exhaust gas on an upstream side of the catalytic part in a flow direction of the exhaust gas; and a casing configured to contain the catalytic part, wherein at least a part of the casing is disposed inside the engine room , and characterized in that the reducing agent addition device includes an injection nozzle attached to the casing and having a nozzle hole inserted in the casing , the injection nozzle being configured to inject the reducing agent into the casing .
A polarization switch that transforms linearly polarized light of an initial polarization orientation, comprising: a first liquid crystal π-cell having a first axis of orientation at 45 degrees or -45 degrees relative to the initial polarization orientation; a second liquid crystal π-cell having a second axis of orientation at 45 degrees or -45 degrees relative to the initial polarization orientation, wherein the first axis of orientation and the second axis of orientation are crossed relative to each other; and at least a first compensation layer located between the first liquid crystal π-cell and a first side of the second liquid crystal π-cell, wherein the first compensation layer is a negative C-plate compensator, or any compensator of the same optical retardation functionality. a first liquid crystal π-cell having a first axis of orientation at 45 degrees or -45 degrees relative to the initial polarization orientation; a second liquid crystal π-cell having a second axis of orientation at 45 degrees or -45 degrees relative to the initial polarization orientation, wherein the first axis of orientation and the second axis of orientation are crossed relative to each other; and at least a first compensation layer located between the first liquid crystal π-cell and a first side of the second liquid crystal π-cell, wherein the first compensation layer is a negative C-plate compensator, or any compensator of the same optical retardation functionality.
A preparation method for a zeolitic imidazolate framework, characterized in that the method comprises: Step 1: adding a metal carbonate or oxide and an organic ligand to a hydrophilic liquid to obtain a mixture; Step 2: introducing an acidic gas to reach a reaction pressure of 0.1 MPa to 2.0 MPa, maintaining the pressure for 30 to 60 minutes, and terminating the reaction; Step 3: heating to 30°C-60°C and vacuuming to obtain the zeolitic imidazolate framework, wherein the hydrophilic liquid comprises one or a combination of two or more of water, an alcohol, and an amide; wherein the acid gas is CO 2 , H 2 S, SO 2 , or NO 2 ; and wherein the organic ligand is one or a combination of two or more of imidazole, 2-methylimidazole, 2-ethylimidazole, 2-propylimidazole, and benzimidazole. Step 1: adding a metal carbonate or oxide and an organic ligand to a hydrophilic liquid to obtain a mixture; Step 2: introducing an acidic gas to reach a reaction pressure of 0.1 MPa to 2.0 MPa, maintaining the pressure for 30 to 60 minutes, and terminating the reaction; Step 3: heating to 30°C-60°C and vacuuming to obtain the zeolitic imidazolate framework, wherein the hydrophilic liquid comprises one or a combination of two or more of water, an alcohol, and an amide; wherein the acid gas is CO 2 , H 2 S, SO 2 , or NO 2 ; and wherein the organic ligand is one or a combination of two or more of imidazole, 2-methylimidazole, 2-ethylimidazole, 2-propylimidazole, and benzimidazole.