mhurhangee/patent-ind-claim-en huggingface dataset:
A display assembly comprising: a cover having a curved surface formed to be bent; a display disposed on the curved surface of the cover ; an adhesive layer disposed between the cover and the display ; and a wall structure disposed on the cover , and extending along a side surface of the adhesive layer while one surface thereof is in contact with the curved surface of the cover and another surface is in contact with the side surface of the adhesive layer , characterized in that the wall structure comprises: an inner wall having one surface in contact with the side surface of the adhesive layer ; an outer wall disposed between the inner wall and an edge of the cover ; and a connecting wall connecting the inner wall and the outer wall , and in that an inner space is defined by the inner wall , the outer wall and the connecting wall , wherein the wall structure is provided with a protrusion protruding toward a center of the adhesive layer from a surface of the inner wall and is in contact with the adhesive layer , and wherein the protrusion is disposed such that an upper end thereof forms an upper gap (gap1) from a bottom surface of the display . a cover having a curved surface formed to be bent; a display disposed on the curved surface of the cover ; an adhesive layer disposed between the cover and the display ; and a wall structure disposed on the cover , and extending along a side surface of the adhesive layer while one surface thereof is in contact with the curved surface of the cover and another surface is in contact with the side surface of the adhesive layer , characterized in that the wall structure comprises: an inner wall having one surface in contact with the side surface of the adhesive layer ; an outer wall disposed between the inner wall and an edge of the cover ; and a connecting wall connecting the inner wall and the outer wall , and in that an inner space is defined by the inner wall , the outer wall and the connecting wall , wherein the wall structure is provided with a protrusion protruding toward a center of the adhesive layer from a surface of the inner wall and is in contact with the adhesive layer , and wherein the protrusion is disposed such that an upper end thereof forms an upper gap (gap1) from a bottom surface of the display . an inner wall having one surface in contact with the side surface of the adhesive layer ; an outer wall disposed between the inner wall and an edge of the cover ; and a connecting wall connecting the inner wall and the outer wall , and in that an inner space is defined by the inner wall , the outer wall and the connecting wall , wherein the wall structure is provided with a protrusion protruding toward a center of the adhesive layer from a surface of the inner wall and is in contact with the adhesive layer , and wherein the protrusion is disposed such that an upper end thereof forms an upper gap (gap1) from a bottom surface of the display .
A cooling unit comprising: a base having a housing with control components installed therein; a cooling tower attached to the base at a first end of the cooling tower, the cooling tower having an inner flow path and an exterior surface ; and an air distribution system attached to the cooling tower at a second end of the cooling tower, the air distribution system including: a first enclosure ; a second enclosure defining an air distribution chamber between the first and second enclosures; a cool air dispenser configured in the first enclosure; a warm air dispenser configured in the first enclosure at a location different from the cool air dispenser; and a cover disposed on an exterior surface of the second enclosure, wherein the control components are configured to convey air through the base, the cooling tower, and the air distribution system to dispense air through the cool air dispenser and the warm air dispenser; and a plurality of ducts connecting the cooling tower to at least one of the cool air dispenser and the warm air dispenser, characterized by a ducting supply chamber arranged at the top of the cooling tower and located within the air distribution chamber of the air distribution system, wherein the plurality of ducts are connected to the ducting supply chamber. a base having a housing with control components installed therein; a cooling tower attached to the base at a first end of the cooling tower, the cooling tower having an inner flow path and an exterior surface ; and an air distribution system attached to the cooling tower at a second end of the cooling tower, the air distribution system including: a first enclosure ; a second enclosure defining an air distribution chamber between the first and second enclosures; a cool air dispenser configured in the first enclosure; a warm air dispenser configured in the first enclosure at a location different from the cool air dispenser; and a cover disposed on an exterior surface of the second enclosure, a first enclosure ; a second enclosure defining an air distribution chamber between the first and second enclosures; a cool air dispenser configured in the first enclosure; a warm air dispenser configured in the first enclosure at a location different from the cool air dispenser; and a cover disposed on an exterior surface of the second enclosure, wherein the control components are configured to convey air through the base, the cooling tower, and the air distribution system to dispense air through the cool air dispenser and the warm air dispenser; and a plurality of ducts connecting the cooling tower to at least one of the cool air dispenser and the warm air dispenser, characterized by a ducting supply chamber arranged at the top of the cooling tower and located within the air distribution chamber of the air distribution system, wherein the plurality of ducts are connected to the ducting supply chamber.
A process for producing a compound of the formula , the process comprising the following step iii, wherein the reaction step iii is performed in the presence of organic solvent(s) having an acceptor number of 0 to 50 and a water solvent, wherein the organic solvent for the reaction step iii is one or more organic solvents selected from alcohols, nitriles, carboxylic acid esters and amides: (step iii) a step of reacting a compound of the formula with hydrogen peroxide in the presence of a metal catalyst to produce the compound of the formula : wherein in the formula and the formula , R 1 is methyl, R 2 is trifluoromethyl, R 3 is difluoromethyl, and R 4 and R 5 are methyl. R 1 is methyl, R 2 is trifluoromethyl, R 3 is difluoromethyl, and R 4 and R 5 are methyl.
MEMS device comprising: a suspended electrode structure (12; 13) anchored to a substrate , the MEMS device having a MEMS resonance mode, and a TMD (tuned mass damping) structure , characterized in that a portion of the suspended electrode structure (12; 13) is arranged to form the TMD structure having a TMD spring element (16-2) and a TMD mass element (16-1), for providing a TMD resonance mode counteracting the MEMS resonance mode. a suspended electrode structure (12; 13) anchored to a substrate , the MEMS device having a MEMS resonance mode, and a TMD (tuned mass damping) structure , characterized in that a portion of the suspended electrode structure (12; 13) is arranged to form the TMD structure having a TMD spring element (16-2) and a TMD mass element (16-1), for providing a TMD resonance mode counteracting the MEMS resonance mode.
An image sensor structure , comprising: an image layer comprising an array of light detectors disposed therein; a device stack disposed over the image layer ; an array of light guides disposed in the device stack , each light guide associated with at least one light detector of the array of light detectors; a passivation stack disposed over the device stack , comprising a 1 st passivation layer and a 1 st chemical protection layer disposed over the 1 st passivation layer; an array of nanowells , wherein the contours of the nanowells are formed by a top layer of the passivation stack , each nanowell associated with a light guide of the array of light guides; and a crosstalk blocking metal structure , characterized in that the crosstalk blocking metal structure is disposed in the passivation stack , wherein the crosstalk blocking metal structure is configured to reduce crosstalk within the passivation stack. an image layer comprising an array of light detectors disposed therein; a device stack disposed over the image layer ; an array of light guides disposed in the device stack , each light guide associated with at least one light detector of the array of light detectors; a passivation stack disposed over the device stack , comprising a 1 st passivation layer and a 1 st chemical protection layer disposed over the 1 st passivation layer; an array of nanowells , wherein the contours of the nanowells are formed by a top layer of the passivation stack , each nanowell associated with a light guide of the array of light guides; and a crosstalk blocking metal structure ,
An implement control system for limiting operator control of an implement , the implement control system comprising: a controller operatively connected to an implement , the controller being configured to: receive an input device signal, which is a target position signal from an input device indicative of a desired implement movement by an operator; receive an automatically generated signal which is a target position signal from a grade control system indicative of an automatically determined implement movement; determine whether to move the implement based on the input device signal or the automatically generated signal, wherein the automatically generated signal moves the implement when a portion of the implement of the operators target position signal is on or below a desired cutting plane , and the input device signal moves the implement when the portion of the implement of the operators target position signal is above the desired cutting plane ; and generate a control signal adapted to move the implement based on the input device signal when the portion of the implement is above the desired cutting plane ; and use the automatically generated signal to move the implement when the portion of the implement is on or below the desired cutting plane . receive an input device signal, which is a target position signal from an input device indicative of a desired implement movement by an operator; receive an automatically generated signal which is a target position signal from a grade control system indicative of an automatically determined implement movement; determine whether to move the implement based on the input device signal or the automatically generated signal, wherein the automatically generated signal moves the implement when a portion of the implement of the operators target position signal is on or below a desired cutting plane , and the input device signal moves the implement when the portion of the implement of the operators target position signal is above the desired cutting plane ; and generate a control signal adapted to move the implement based on the input device signal when the portion of the implement is above the desired cutting plane ; and use the automatically generated signal to move the implement when the portion of the implement is on or below the desired cutting plane .
Soft material separator having a perforated drum , which is perforated on the circumference, and having a squeezing band , which is guided along a circumferential section of the perforated drum and can be operated together with the perforated drum , and having a feed zone , from which a substance mixture consisting of substance components of different consistencies is drawn in between the perforated drum and the squeezing band for isolating and separating the substance components , characterized by a detection system for quantitatively determining the filling state of the feed zone and a control device , which is connected to the detection system and is intended for adapting the speed of the perforated drum and the squeezing band depending on the filling state.
An organic hydride production apparatus comprising a solid polymer electrolyte membrane having proton conductivity, a porous cathode which is provided on one surface of the solid polymer electrolyte membrane and generates a hydride by reducing a substance to be hydrogenated, a cathode chamber which houses the porous cathode and is supplied with the substance to be hydrogenated, an electrode catalyst-containing anode which is provided on the other surface of the solid polymer electrolyte membrane and generates protons by oxidizing water, an anode chamber which houses the anode and is supplied with an electrolytic solution, an inlet in the lower end of the cathode chamber through which the substance to be hydrogenated is supplied, a hydride outlet at the upper end of the cathode chamber through which a product, unreacted material of the substance to be hydrogenated and by-product hydrogen are discharged, and at least one partition is provided orthogonal to the flow channel of the porous cathode at a pitch of 1 to 5 mm and with a width of 0.1 to 1 mm inside the cathode chamber, and the partition is formed in at least the upper portion of the cathode chamber, and an area of a portion having the partition is not more than 20% of the effective projected electrode area.
A tire, comprising a tread surface divided into a plurality of land portions by at least one circumferential groove extending along a tire equator (CL) and tread edges (TE), wherein at least one of the land portions divided by the at least one circumferential groove and the tread edges (TE) comprises a plurality of blocks divided by a plurality of width direction grooves ; each of the blocks has a shape that protrudes from four sides toward a central portion; each of the width direction grooves comprises a sipe portion ; each of the blocks comprises a protrusion with an apex having a tread width direction maximum length (w1) that is 30% to 40% of a tread width direction length (W) of the block ; and the apex has a tread circumferential direction maximum length that is 30% to 40% of a tread circumferential direction length (L) of the block .
Apparatus for selection of a wireless channel of a wireless access point in a Wi-Fi network, AP , the apparatus comprising: a) a calculation module configured to receive from the AP and/or one or more devices connected to the AP channel measurements of channels of the AP during a first channel period ; wherein the channel period is a time period; and to derive therefrom signal strength levels of channels of the AP; and b) a signal strength prediction module configured to predict future signal strength levels of the channels for a forthcoming channel period following the first channel period based on the signal strength levels thereby obtaining predicted future signal strength levels; and c) a channel selector adapted to select the wireless channel with a highest value of the predicted future signal strength levels. a) a calculation module configured to receive from the AP and/or one or more devices connected to the AP channel measurements of channels of the AP during a first channel period ; wherein the channel period is a time period; and to derive therefrom signal strength levels of channels of the AP; and b) a signal strength prediction module configured to predict future signal strength levels of the channels for a forthcoming channel period following the first channel period based on the signal strength levels thereby obtaining predicted future signal strength levels; and c) a channel selector adapted to select the wireless channel with a highest value of the predicted future signal strength levels.
Electric motor comprising a stator , which is fitted with a rotating-field winding , and comprising a permanent-magnet rotor , which is mounted such that it can rotate in relation to the stator , and also comprising a converter electronics system with a printed circuit board on which a number of contact elements , which are designed as clamping contacts or insulation-displacement contacts, for insulation-free or enamel-insulated connection contacts of at least one component of the converter electronics system and/or for enamel-insulated winding ends of the rotating-field winding are mounted, - wherein a pair of busbars with a number of clamping contacts is provided, which number of clamping contacts corresponds to the number of insulation-free connection contacts of at least one charging capacitor , and - wherein the printed circuit board has a number of insertion slots and/or insertion holes in which the pair of busbars is seated by way of corresponding insertion points , characterized - in that a number of recesses which run parallel in relation to the busbars are made in the printed circuit board between the insertion slots or insertion holes which are associated with the two busbars of the pair of busbars, and - in that a number of recesses , which corresponds to the number of storage capacitors , are made in one of the two busbars of the pair of busbars, the respective connection contact of the charging capacitors , with which connection contact clamping contact is made by the other busbar , being guided by means of the said recesses through the recess in such a way that the said connection contact does not touch the said one of the two busbars. - wherein a pair of busbars with a number of clamping contacts is provided, which number of clamping contacts corresponds to the number of insulation-free connection contacts of at least one charging capacitor , and - wherein the printed circuit board has a number of insertion slots and/or insertion holes in which the pair of busbars is seated by way of corresponding insertion points , - in that a number of recesses which run parallel in relation to the busbars are made in the printed circuit board between the insertion slots or insertion holes which are associated with the two busbars of the pair of busbars, and - in that a number of recesses , which corresponds to the number of storage capacitors , are made in one of the two busbars of the pair of busbars, the respective connection contact of the charging capacitors , with which connection contact clamping contact is made by the other busbar , being guided by means of the said recesses through the recess in such a way that the said connection contact does not touch the said one of the two busbars.
Compound V for complexing metallic isotopes, comprising a chelator X and one or more targeting vectors conjugated with the chelator X, said targeting vectors having the structure -L 1 -R 1 -L 2 -R 2 -L 3 -R 3 , wherein L 1 is selected from the group comprising amide, phosphinate, alkyl, triazole, thiourea, ethylene, maleimide, -(CH 2 ) k - and -(CH 2 CH 2 O) k -, with k = 1, 2, 3, 4, 5, 6, 7, 8, 9, or 10, L 2 is selected from -(CH 2 ) m - and -(CH 2 CH 2 O) m -, with m = 1, 2, 3, 4, 5, 6, 7, 8, 9, or 10, and L 3 is selected from -(CH 2 ) n - and -(CH 2 CH 2 O) n -, with n = 1, 2, 3, 4, 5, 6, 7, 8, 9, or 10, characterized in that R 2 is selected from the group comprising a substituent group of a: pyrrole, pyridine, pyrimidine, furan, azole, triazole, tetrazole, pyrazole, imidazole, oxazole, oxadiazole, thiophen, thiazole, thiadiazole, azine, oxazine, thiazine, naphthalene, quinoline, chromene, or thiochromene; and
Coaxial valve, comprising a valve housing , on which an inlet port and at least one outlet port for a medium which is to be conducted through the coaxial valve are provided, a control tube which is mounted in the valve housing , said control tube being movable in its longitudinal direction in the valve housing and interacting with the inlet port and the outlet port in such a way that when the coaxial valve is opened medium flows through the control tube , at least one valve seat having a valve seat face , the control tube interacting with the valve seat face in one of its axial end positions in order to close the coaxial valve , and a control device (34, 33; 16, 17, 44, 33) for moving the control tube between its end positions, characterized in that the valve seat face is formed on a replaceable sealing element on which at least two valve seat faces are provided distributed circumferentially around a sealing element axis , in that the replaceable sealing element is arranged in an opening of the valve housing , said opening running essentially transversely with respect to the longitudinal direction , and in that the opening is arranged in such a way that the replaceable sealing element is removable from the valve housing through the opening in the transverse direction with respect to the direction of flow of the medium to be transported, and can also be inserted again in this way.
Use of a copolymer (C) comprising repeat units corresponding to alkyl methacrylate monomers, said monomers comprising at least: - one or more monomer(s) (A), the same or different, selected from among (C6-C10) alkyl methacrylate monomers; - one or more monomer(s) (B), the same or different, selected from among (C10-C18) alkyl methacrylate monomers, said monomers (B) differing from said monomers (A); in a lubricant composition comprising at least one base oil for reducing and/or controlling abnormal gas combustion in an engine, preferably a marine engine or controlled-ignition engine. - one or more monomer(s) (A), the same or different, selected from among (C6-C10) alkyl methacrylate monomers; - one or more monomer(s) (B), the same or different, selected from among (C10-C18) alkyl methacrylate monomers, said monomers (B) differing from said monomers (A);
A method for transferring one or more nanostructures from a first substrate to a second substrate, the method comprising: applying a coating of a crosslinkable copolymer over one or more nanostructures on a surface of the first substrate, wherein the crosslinkable copolymer is polymerized from one or more non-crosslinking monomers and one or more comonomers bearing crosslinkable groups; heating the crosslinkable copolymer to induce crosslinking of the crosslinkable copolymer and to form bonds between the crosslinkable copolymer and the surface of the first substrate; releasing the one or more nanostructures and the crosslinked copolymer from the first substrate; transferring the one or more nanostructures and the crosslinked copolymer onto a surface of the second substrate; and removing the crosslinked copolymer from the one or more nanostructures. applying a coating of a crosslinkable copolymer over one or more nanostructures on a surface of the first substrate, wherein the crosslinkable copolymer is polymerized from one or more non-crosslinking monomers and one or more comonomers bearing crosslinkable groups; heating the crosslinkable copolymer to induce crosslinking of the crosslinkable copolymer and to form bonds between the crosslinkable copolymer and the surface of the first substrate; releasing the one or more nanostructures and the crosslinked copolymer from the first substrate; transferring the one or more nanostructures and the crosslinked copolymer onto a surface of the second substrate; and removing the crosslinked copolymer from the one or more nanostructures.