mhurhangee/ep-ind-claims huggingface dataset:
An integrated circuit, comprising: a plurality of capacitive structures (C1-A, C1-B, C2-A, C2-B) formed on a substrate, wherein each capacitive structure includes: a first conductive finger (a1, c1), and a second conductive finger (b1, d1), wherein the first and second conductive fingers are arranged in parallel with each other and separated from each other by a dielectric material and wherein the first finger is connected to a first interconnect (220, 230) and the second conductive finger is connected to a second interconnect (210, 240), a first capacitor formed from a first group (C1-A, C1-B) of the plurality of capacitive structures having a first set of common interconnects (210, 220); and a second capacitor formed from a second group (C2-A, C2-B) of the plurality of capacitive structures having a second set of common interconnects (230, 240), wherein the capacitive structures of the first group (C1-A, C1-B) are intertwined with the capacitive structures of the second group (C2-A, C2-B); characterised in that the first set of common interconnects (210, 220) are not connected to the fingers of the second group (C2-A, C2-B) of capacitive structures and the second set of common interconnects (230, 240) are not connected to the fingers of the first group (C1-A, C1-B) of capacitive structures. a plurality of capacitive structures (C1-A, C1-B, C2-A, C2-B) formed on a substrate, wherein each capacitive structure includes: a first conductive finger (a1, c1), and a second conductive finger (b1, d1), wherein the first and second conductive fingers are arranged in parallel with each other and separated from each other by a dielectric material and wherein the first finger is connected to a first interconnect (220, 230) and the second conductive finger is connected to a second interconnect (210, 240), a first conductive finger (a1, c1), and a second conductive finger (b1, d1), wherein the first and second conductive fingers are arranged in parallel with each other and separated from each other by a dielectric material and wherein the first finger is connected to a first interconnect (220, 230) and the second conductive finger is connected to a second interconnect (210, 240), a first capacitor formed from a first group (C1-A, C1-B) of the plurality of capacitive structures having a first set of common interconnects (210, 220); and a second capacitor formed from a second group (C2-A, C2-B) of the plurality of capacitive structures having a second set of common interconnects (230, 240), wherein the capacitive structures of the first group (C1-A, C1-B) are intertwined with the capacitive structures of the second group (C2-A, C2-B); characterised in that the first set of common interconnects (210, 220) are not connected to the fingers of the second group (C2-A, C2-B) of capacitive structures and the second set of common interconnects (230, 240) are not connected to the fingers of the first group (C1-A, C1-B) of capacitive structures.
A pool cleaner control system to locate and remove debris from an aquatic environment, the pool cleaner control system comprising: a pool cleaner including a housing defined by one or more walls (24, 26, 28, 30, 32, 34); an imaging device operably connected to the pool cleaner and configured to acquire at least one primary image of the aquatic environment; and a controller in communication with the imaging device, wherein the controller identifies candidate debris from the at least one primary image, determines an optimal cleaning pathway for each of the at least one primary image and navigates the pool cleaner to the candidate debris along the optimal cleaning pathway until the aquatic environment is clean; wherein the controller is further configured to determine the optimal cleaning pathway by analyzing objects (160, 162) along at least two potential pathways, assigning a path score to the at least two potential pathways and selecting the optimal cleaning pathway having the highest path score. a pool cleaner including a housing defined by one or more walls (24, 26, 28, 30, 32, 34); an imaging device operably connected to the pool cleaner and configured to acquire at least one primary image of the aquatic environment; and a controller in communication with the imaging device, wherein the controller identifies candidate debris from the at least one primary image, determines an optimal cleaning pathway for each of the at least one primary image and navigates the pool cleaner to the candidate debris along the optimal cleaning pathway until the aquatic environment is clean; wherein the controller is further configured to determine the optimal cleaning pathway by analyzing objects (160, 162) along at least two potential pathways, assigning a path score to the at least two potential pathways and selecting the optimal cleaning pathway having the highest path score.
An insulation system for application on a construction subsurface, comprising at least one insulating element and a plaster compound to be spread over the insulating element to form a rendering and/or reinforcing layer, characterised in that the plaster compound comprises a pasty first component and a further component that is to be mixed with the pasty first component before said compound is spread over the insulating element, and both mineral and organic binding agents are contained in the first, pasty component, wherein the organic binder and mineral binder are in a ratio from 1:0.5 to 1:2, preferably 1:0.75 to 1:1.25 relative to the total proportion of binder content in the pasty first component, wherein the pasty first component contains a retarder, particularly boric acid, tartaric acid, citric acid, phosphoric acid, salts and/or derivatives thereof, and the further component contains an accelerant, particularly alkaline or alkaline earth compounds such as oxides, hydroxides, carbonates, sulphates and mixtures thereof, particularly lithium hydroxide, lithium carbonate and/or lithium sulphate.
An organic peroxide formulation for curing an elastomer composition in the full or partial presence of oxygen comprising: A) at least one organic peroxide, B) at least one drying oil selected from the group consisting of: tung oil, hemp oil, linseed oil, poppy oil, walnut oil, sunflower oil, cottonseed oil, corn oil, soybean oil, sardine oil, herring oil, safflower oil, flax seed oil, perilla oil, and a combination thereof, and C) at least one free radical trap selected from the group consisting of nitroxides and quinones, wherein the amounts of the at least one organic peroxide, the at least one drying oil and the at least one free radical trap are selected such that the formulation is capable of curing an elastomer composition in a non-coating type elastomer article in the full or partial presence of oxygen. A) at least one organic peroxide, B) at least one drying oil selected from the group consisting of: tung oil, hemp oil, linseed oil, poppy oil, walnut oil, sunflower oil, cottonseed oil, corn oil, soybean oil, sardine oil, herring oil, safflower oil, flax seed oil, perilla oil, and a combination thereof, and C) at least one free radical trap selected from the group consisting of nitroxides and quinones,
A computer implemented method of generating animation, comprising: determining a target element based on a received first instruction, setting a target state of the target element and/or detecting a target operation on the target element, and obtaining a current state animation parameter of the target element, wherein the target element is any element displayed on a terminal, the first instruction is configured to determine the target element, and the current state animation parameter is an animation parameter of the target element at a beginning of an animation movement of the target element characterized in: obtaining a target animation model among pre-stored animation models according to the target state and/or the target operation, wherein the target animation model is associated with the target state and/or the target operation; and generating animation of the target element based on the target animation model and an initial state animation parameter of the target animation model, wherein the current state animation parameter is taken as the initial state animation parameter and the initial state animation parameter is an input of the target animation model. determining a target element based on a received first instruction, setting a target state of the target element and/or detecting a target operation on the target element, and obtaining a current state animation parameter of the target element, wherein the target element is any element displayed on a terminal, the first instruction is configured to determine the target element, and the current state animation parameter is an animation parameter of the target element at a beginning of an animation movement of the target element characterized in: obtaining a target animation model among pre-stored animation models according to the target state and/or the target operation, wherein the target animation model is associated with the target state and/or the target operation; and generating animation of the target element based on the target animation model and an initial state animation parameter of the target animation model, wherein the current state animation parameter is taken as the initial state animation parameter and the initial state animation parameter is an input of the target animation model. obtaining a target animation model among pre-stored animation models according to the target state and/or the target operation, wherein the target animation model is associated with the target state and/or the target operation; and generating animation of the target element based on the target animation model and an initial state animation parameter of the target animation model, wherein the current state animation parameter is taken as the initial state animation parameter and the initial state animation parameter is an input of the target animation model.
An integrated multi-connection hydraulic group for connecting the hydraulic circuit on-board an operating machine to a plurality of hydraulic lines for the connection of corresponding lines of a user, characterized in that it comprises a block or manifold comprising connection means (50, 70) for connecting said block to the circuit of said machine, a plurality of quick female couplings being housed within said block which are facing outwardly from a surface of said block shaped like a plate for connecting the corresponding number of male couplings of said user, and in that it further comprises within said block or manifold, in fluid connection with said female couplings by means of respective channels inside the block, a plurality of hydraulic elements for adjusting the flow which feeds said hydraulic lines coming from the hydraulic circuit of said machine.
An elevator with a brake device for braking a car and/or keeping it stationary on at least one braking rail, the brake device having at least two brake shoes (11a, 11b) situated opposite from each other and having at least one brake clamp with two clamp arms (7a, 7b) for opening and closing the clamp jaws (8a, 8b) acting on the brake shoes (11a, 11b), whereas only one of the clamp arms (7a, 7b) of the at least one brake clamp is connected to the car in pivoting fashion via a bearing with a pivot axle that is affixed to the car, oriented parallel to the direction of travel, characterized in that the other clamp arm (7b, 7a) of the brake clamp is not affixed at any point relative to the car so that it is able to execute a movement relative to the car, even a movement with translatory component.
A modified polyvinyl alcohol comprising 0.05 to 10 mol% of a monomer unit having two carboxyl groups, wherein in 1 H-NMR spectroscopy of the modified polyvinyl alcohol, an integral from 6.8 to 7.2 ppm and an integral from 5.3 to 5.5 ppm satisfy the following expression: 0.60 ≤ X / X + Y < 1.0, wherein the 1 H-NMR is measured by dissolving the modified polyvinyl alcohol in D 2 O and subjecting the resulting solution to 1 H-NMR at 600 MHz at 80°C, and the modified polyvinyl alcohol does not contain N-vinylamide monomer units.
A method of manufacturing a catheter configured to release nitric oxide and chlorhexidine to provide anti-platelet and antimicrobial properties, comprising: impregnating a thermoplastic polyurethane catheter extrusion with a nitric oxide releasing compound and with chlorhexidine, wherein the impregnating step comprises: obtaining an impregnating solution consisting essentially of the nitric oxide releasing compound and chlorhexidine dissolved in a solvent; and exposing the thermoplastic polyurethane catheter extrusion to the impregnating solution for a sufficient time to permit the nitric oxide releasing compound and chlorhexidine to penetrate the thermoplastic polyurethane catheter extrusion; and evaporating the solvent from the catheter extrusion; and coating the impregnated catheter extrusion with a polyurethane coating comprising chlorhexidine. obtaining an impregnating solution consisting essentially of the nitric oxide releasing compound and chlorhexidine dissolved in a solvent; and exposing the thermoplastic polyurethane catheter extrusion to the impregnating solution for a sufficient time to permit the nitric oxide releasing compound and chlorhexidine to penetrate the thermoplastic polyurethane catheter extrusion; and evaporating the solvent from the catheter extrusion; and coating the impregnated catheter extrusion with a polyurethane coating comprising chlorhexidine.
A pet food composition for a therapeutic use in promoting bone development in a canine the composition comprising: 0.8 to 1.6% methionine; 50 to 200 ppm manganese; 0.1 to 0.5% DHA; 0.1 to 0.7% EPA; and 2500 to 7500 ppm choline; and wherein the canine is born of a dam fed the composition prior to and during pregnancy; and the canine is fed the composition prior to weaning. 0.8 to 1.6% methionine; 50 to 200 ppm manganese; 0.1 to 0.5% DHA; 0.1 to 0.7% EPA; and 2500 to 7500 ppm choline; and
A cochlear implant headpiece for use with a cochlear implant having an antenna, comprising: a housing (102, 102e) including a bottom wall (130, 130e) defining a bottom surface and an internal volume; a magnet mounted to the housing; a main circuit board located within the internal volume; and a headpiece antenna, configured to communicate with the cochlear implant antenna, that is not located on the main circuit board and is mounted on the bottom surface of the bottom wall, wherein the bottom surface is configured to face a user's skin when the headpiece is worn by a user. a housing (102, 102e) including a bottom wall (130, 130e) defining a bottom surface and an internal volume; a magnet mounted to the housing; a main circuit board located within the internal volume; and a headpiece antenna, configured to communicate with the cochlear implant antenna, that is not located on the main circuit board and is mounted on the bottom surface of the bottom wall, wherein the bottom surface is configured to face a user's skin when the headpiece is worn by a user.
Method for the heat treatment of a part made of maraging steel which part is obtained by selective laser melting, the said steel comprising a percentage of carbon less than or equal to 0.03%, a nickel content of between 17% and 19%, a cobalt content of between 8.5% and 9.5%, a molybdenum content of between 4.5% and 5.2%, a titanium content of between 0% and 0.8%, an aluminium content of between 0% and 0.15%, a chromium content of between 0% and 0.5%, a copper content of between 0% and 0.5%, a silicon content of between 0% and 0.1%, a manganese content of between 0% and 0.1%, a sulfur content of between 0% and 0.01%, a phosphorus content of between 0% and 0.01%, the remainder being iron, all these percentages being expressed by weight with respect to the total weight of the part, characterized in that it comprises the steps of: - heating the said part made of maraging steel from ambient temperature T 0 to a maximum temperature T max of between 600°C and 640°C, - maintaining the said maximum temperature T max for a duration of between 5 hours and 7 hours, - cooling the said part. - heating the said part made of maraging steel from ambient temperature T 0 to a maximum temperature T max of between 600°C and 640°C, - maintaining the said maximum temperature T max for a duration of between 5 hours and 7 hours, - cooling the said part.
A method for servicing a dual-stage, separated gas/fluid shock strut, comprising: measuring a servicing temperature; charging a secondary gas chamber with a first quantity of compressed gas, until the secondary gas chamber is charged to a pre-determined secondary chamber pressure which corresponds to the servicing temperature; pumping an oil into an oil chamber of the dual-stage, separated gas/fluid shock strut subsequent to the secondary gas chamber being charged with the first quantity of compressed gas; and charging a primary gas chamber with a second quantity of compressed gas; wherein the primary gas chamber is fluidly separated from the oil chamber via a first separator piston and the secondary gas chamber is fluidly separated from the oil chamber via a second separator piston. measuring a servicing temperature; charging a secondary gas chamber with a first quantity of compressed gas, until the secondary gas chamber is charged to a pre-determined secondary chamber pressure which corresponds to the servicing temperature; pumping an oil into an oil chamber of the dual-stage, separated gas/fluid shock strut subsequent to the secondary gas chamber being charged with the first quantity of compressed gas; and charging a primary gas chamber with a second quantity of compressed gas; wherein the primary gas chamber is fluidly separated from the oil chamber via a first separator piston and the secondary gas chamber is fluidly separated from the oil chamber via a second separator piston.
Cooling device for cooling a battery, in particular a vehicle traction battery, having at least one cooling element, through which a cooling fluid for transporting away thermal energy flows, and having a preload element and a carrier element, which has a contact surface for contacting the cooling element, the preload element loading the carrier element on the side opposite the contact surface, and the carrier element being formed from a material that has a lower thermal conductivity than the material from which the preload element is formed, characterized in that at least one pre-fixing element (42, 44) is provided, which cooperates with the preload element in such a way that the preload element is pre-fixed, and in that the at least one pre-fixing element (42, 44) has a hook-shaped portion (46, 48) for pre-fixing the preload element and in that the preload element has, in the region of the pre-fixing elements (42, 44), an opening (45a, 45b) in respective limb (22a, 22b), such that an edge of the respective opening (45a, 45b) co-operates with the hook-shaped portion (46, 48).
A process for preparing -7-tetradecen-2-one of the following formula: the process comprising the steps of: converting a -1-halo-4-undecene compound of the following general formula: wherein X 1 represents a halogen atom, into a nucleophilic reagent, -4-undecenyl compound, of the following general formula: wherein M 1 represents Li or MgZ 1, and Z 1 represents a halogen atom or a (4 Z)-4-undecenyl group, subjecting the nucleophilic reagent, -4-undecenyl compound, to an addition reaction with propylene oxide of the following formula: to obtain -7-tetradecen-2-ol of the following formula: and oxidizing -7-tetradecen-2-ol thus obtained to form -7-tetradecen-2-one. converting a -1-halo-4-undecene compound of the following general formula: wherein X 1 represents a halogen atom, into a nucleophilic reagent, -4-undecenyl compound, of the following general formula: wherein M 1 represents Li or MgZ 1, and Z 1 represents a halogen atom or a (4 Z)-4-undecenyl group, wherein X 1 represents a halogen atom, into a nucleophilic reagent, -4-undecenyl compound, of the following general formula: wherein M 1 represents Li or MgZ 1, and Z 1 represents a halogen atom or a (4 Z)-4-undecenyl group, subjecting the nucleophilic reagent, -4-undecenyl compound, to an addition reaction with propylene oxide of the following formula: to obtain -7-tetradecen-2-ol of the following formula: and oxidizing -7-tetradecen-2-ol thus obtained to form -7-tetradecen-2-one.
A method for determining from a sample carrier comprising a porous sheet, which is configured to be impregnated by a wet sample, and containing at least one biological sample at least partially impregnated into pores of the porous sheet, a sample region to be removed for further sample analysis, the method comprising: - optically imaging at least portion of the sample carrier into a digital matrix form, where the optical brightness of each physical location of the sample is represented by elements of the matrix, and - determining a first intensity threshold value at least partly on the basis of the elements of the matrix individually for said impregnated sample or for a plurality of impregnated samples in said sample carrier, characterized in that the location of the sample region is determined by utilizing the first threshold value for calculating coordinates corresponding to said sample region to be removed from said sample carrier, the coordinates being such that the sample region contains only areas of the sample carrier having an optical brightness lower than or equal to said first threshold value. - optically imaging at least portion of the sample carrier into a digital matrix form, where the optical brightness of each physical location of the sample is represented by elements of the matrix, and - determining a first intensity threshold value at least partly on the basis of the elements of the matrix individually for said impregnated sample or for a plurality of impregnated samples in said sample carrier,
A method for dynamic discovery and control of devices through a smart controller comprising: detecting a device to be controlled; sending device information to a server; obtaining from the server, in response to sending the device information to the server, control information for implementing a function on the device; obtaining from the server, in response to sending the device information to the server, rules for controlling the control range of the device function; configuring the smart controller to control the device based on the received control information and the received rules; and automatically adjusting control limits of the control range of the controlled device based on state information obtained from the device and/or one or more other devices. detecting a device to be controlled; sending device information to a server; obtaining from the server, in response to sending the device information to the server, control information for implementing a function on the device; obtaining from the server, in response to sending the device information to the server, rules for controlling the control range of the device function; configuring the smart controller to control the device based on the received control information and the received rules; and automatically adjusting control limits of the control range of the controlled device based on state information obtained from the device and/or one or more other devices.