mhurhangee/ep-ind-claims huggingface dataset:
A method for determining existence of a foreign material on a surface of a fingerprint sensor, characterised in that the method comprises: obtaining (101, 201) a current capacitance value of the fingerprint sensor of a terminal; calculating (102, 202) a first difference between the current capacitance value and a preset capacitance reference value, wherein the preset capacitance reference value is obtained with no foreign material present on the surface of the fingerprint sensor before leaving the factory; and determining (103, 203) that the foreign material is present on the surface of the fingerprint sensor, when the first difference is within a preset foreign-material threshold range. obtaining (101, 201) a current capacitance value of the fingerprint sensor of a terminal; calculating (102, 202) a first difference between the current capacitance value and a preset capacitance reference value, wherein the preset capacitance reference value is obtained with no foreign material present on the surface of the fingerprint sensor before leaving the factory; and determining (103, 203) that the foreign material is present on the surface of the fingerprint sensor, when the first difference is within a preset foreign-material threshold range.
Twin chamber air dryer for a pneumatic system of a commercial vehicle, said twin chamber air dryer comprising: a supply inlet port to be connected to a compressor, a supply outlet for supplying dried compressed air to a pneumatic consumer system, a compressor control outlet for delivering a pneumatic unloader signal, an exhaust outlet, a first desiccant cartridge and a second desiccant cartridge, to be operated alternately, a toggling valve assembly (121, 122) for switching between said first desiccant cartridge and said second desiccant cartridge, a pneumatically controlled purge valve switchable between a blocking basic position and an activated position for connecting said supply inlet port to said exhaust outlet, and a solenoid valve assembly, said solenoid valve assembly comprising - a directional control solenoid valve receiving an electrical direction control signal and controlling said toggling valve assembly (121, 122), - a regeneration solenoid valve receiving an electrical regeneration control signal and providing pressurized air in regeneration phases of said desiccant cartridges (101, 102), and - a governor solenoid valve receiving an electrical governor control signal, controlling said purge valve, and outputting said pneumatic unloader signal, wherein said solenoid valves (7, 8, 9) can be operated independently by said electrical control signals (S1, S21, S3). a supply inlet port to be connected to a compressor, a supply outlet for supplying dried compressed air to a pneumatic consumer system, a compressor control outlet for delivering a pneumatic unloader signal, an exhaust outlet, a first desiccant cartridge and a second desiccant cartridge, to be operated alternately, a toggling valve assembly (121, 122) for switching between said first desiccant cartridge and said second desiccant cartridge, a pneumatically controlled purge valve switchable between a blocking basic position and an activated position for connecting said supply inlet port to said exhaust outlet, and a solenoid valve assembly, said solenoid valve assembly comprising - a directional control solenoid valve receiving an electrical direction control signal and controlling said toggling valve assembly (121, 122), - a regeneration solenoid valve receiving an electrical regeneration control signal and providing pressurized air in regeneration phases of said desiccant cartridges (101, 102), and - a governor solenoid valve receiving an electrical governor control signal, controlling said purge valve, and outputting said pneumatic unloader signal, - a directional control solenoid valve receiving an electrical direction control signal and controlling said toggling valve assembly (121, 122), - a regeneration solenoid valve receiving an electrical regeneration control signal and providing pressurized air in regeneration phases of said desiccant cartridges (101, 102), and - a governor solenoid valve receiving an electrical governor control signal, controlling said purge valve, and outputting said pneumatic unloader signal, wherein said solenoid valves (7, 8, 9) can be operated independently by said electrical control signals (S1, S21, S3).
A method for accelerating ripening after harvest of a fruit, which comprises sprinkling a solution comprising 0.5 to 75 mM of isoleucine on a harvested fruit.
A method for detecting hydrocarbons with an underwater vehicle equipped with measurement components comprising: deploying an underwater vehicle UV into the body of water; performing an operation stage that comprises: navigating the UV within the body of water; monitoring the body of water with measurement components associated with the UV to collect measurement data, retrieving the UV upon completion of the operation stage; and collecting data from the UV to determine whether hydrocarbons are present and their location, CHARACTERIZED IN THAT the measurement components comprise a mass spectrometer and fluorometer, and in that monitoring the body of water with the measurement components associated with the UV comprises measuring molecular and isotopic signatures of non-hydrocarbon gases and hydrocarbons in the body of water; and determining the concentrations of the non-hydrocarbon gases and hydrocarbons with the mass spectrometer and fluorometer. deploying an underwater vehicle UV into the body of water; performing an operation stage that comprises: navigating the UV within the body of water; monitoring the body of water with measurement components associated with the UV to collect measurement data, retrieving the UV upon completion of the operation stage; and collecting data from the UV to determine whether hydrocarbons are present and their location, CHARACTERIZED IN THAT the measurement components comprise a mass spectrometer and fluorometer, and in that monitoring the body of water with the measurement components associated with the UV comprises measuring molecular and isotopic signatures of non-hydrocarbon gases and hydrocarbons in the body of water; and determining the concentrations of the non-hydrocarbon gases and hydrocarbons with the mass spectrometer and fluorometer. navigating the UV within the body of water; monitoring the body of water with measurement components associated with the UV to collect measurement data, retrieving the UV upon completion of the operation stage; and collecting data from the UV to determine whether hydrocarbons are present and their location, CHARACTERIZED IN THAT the measurement components comprise a mass spectrometer and fluorometer, and in that monitoring the body of water with the measurement components associated with the UV comprises measuring molecular and isotopic signatures of non-hydrocarbon gases and hydrocarbons in the body of water; and determining the concentrations of the non-hydrocarbon gases and hydrocarbons with the mass spectrometer and fluorometer.
A disconnect assembly comprising: a first body including a plurality of first serrations; a second body including a plurality of second serrations; and characterised in that it comprises a third body including a plurality of third serrations to be engaged with the first serrations using a first number of teeth, and the third body includes a plurality of fourth serrations to be engaged with the second serrations using a second number of teeth different in number from the first number of teeth to lock the first body relative to the second body; wherein the third serrations and the fourth serrations are each disposed on an outer surface of the third body. a first body including a plurality of first serrations; a second body including a plurality of second serrations; and characterised in that it comprises a third body including a plurality of third serrations to be engaged with the first serrations using a first number of teeth, and the third body includes a plurality of fourth serrations to be engaged with the second serrations using a second number of teeth different in number from the first number of teeth to lock the first body relative to the second body; wherein the third serrations and the fourth serrations are each disposed on an outer surface of the third body.
A light-diffuser comprising: a transparent resin; and transparent particles dispersed in the transparent resin, wherein the transparent resin has a refractive index that is different from a refractive index of the transparent particles, and at least one portion of an outer periphery of each of the transparent particles is compatibilized with the transparent resin disposed in a vicinity of each of the transparent particles, respectively, wherein the transparent resin infiltrates a portion of the outer periphery of each of the transparent particles, the refractive index of the transparent particles continuously changes at the interface between the transparent particles and the transparent resin, and a refractive index gradient exists between a refractive index n 1 of each of the transparent particles and a refractive index n M of surfaces of the transparent particles, characterised in that a glass transition temperature (Tg) of the transparent resin is in a range of -60°C to 200°C, and wherein the refractive index n 1 of each of the transparent particles, the refractive index n 2 of the transparent resin, and the refractive index n M of the surfaces of the transparent particles in the compatibilized state with the transparent resin satisfy a relationship n 2 < n M < n 1. a transparent resin; and transparent particles dispersed in the transparent resin, wherein the transparent resin has a refractive index that is different from a refractive index of the transparent particles, and at least one portion of an outer periphery of each of the transparent particles is compatibilized with the transparent resin disposed in a vicinity of each of the transparent particles, respectively, wherein the transparent resin infiltrates a portion of the outer periphery of each of the transparent particles, the refractive index of the transparent particles continuously changes at the interface between the transparent particles and the transparent resin, and a refractive index gradient exists between a refractive index n 1 of each of the transparent particles and a refractive index n M of surfaces of the transparent particles, characterised in that a glass transition temperature (Tg) of the transparent resin is in a range of -60°C to 200°C, and wherein the refractive index n 1 of each of the transparent particles, the refractive index n 2 of the transparent resin, and the refractive index n M of the surfaces of the transparent particles in the compatibilized state with the transparent resin satisfy a relationship n 2 < n M < n 1.
An agitator ball mill with fluid circuit, wherein the agitator ball mill exhibits a machine housing, a grinding container and a jacket container with an outer jacket surface arranged around the grinding container in an axial direction, wherein the jacket container and grinding container are arranged coaxially and spaced radially apart one inside the other, and a cavity is formed between the two containers (1, 2), which is suitable for receiving a fluid flow, and wherein the jacket container and grinding container are fastened at their axial ends to a housing-side flange that abuts against the machine housing or against a receiving flange arranged in the machine housing, and to a floor-side flange lying remote from the machine housing, characterized in that at least one of the flanges (16, 17) has at least one flange passage, which is part of the fluid circuit, wherein the at least one flange passage has a first opening and a second opening, and wherein at least one of the first openings of the respective flange passage is arranged on a side wall (41, 42, 43) of the respective flange (16, 17) lying orthogonally to the outer jacket surface.
A recombinant adeno-associated virus comprising a MYOT miRNA-encoding DNA set out in SEQ ID NO: 11286, 11287 or 11288, wherein the recombinant adeno-associated virus lacks rep and cap genes.
An electromagnet assembly for an MRI apparatus, the electromagnet assembly being generally rotationally symmetrical, thereby defining an assembly axis, a radial direction and a circumferential direction, the electromagnet assembly comprising: a pair of electromagnets and a support structure configured to carry the electromagnets, each electromagnet comprising: a coil configured to generate a magnetic field, the coil having a first axially outer surface (112; 114), and a support element (120; 120') configured for mounting the coil in the MRI apparatus; wherein the support element (120; 120') is bonded only to the first axially outer surface (112; 114) of the coil; wherein the electromagnets are mounted to at least two brackets (201, 202) of the support structure, each bracket comprising a single support plate; wherein each support plate extends from a first electromagnet of said pair of electromagnets to a second electromagnet of said pair of electromagnets or wherein each electromagnet is provided with its own single support plate, wherein a bracing element is provided to each single support plate and a rod extends between the bracing elements; the support structure being configured such that the support plates of said brackets are located either on the radially outer or radially inner side of said coils; wherein each support element is mechanically secured to the single support plate of each bracket. a coil configured to generate a magnetic field, the coil having a first axially outer surface (112; 114), and a support element (120; 120') configured for mounting the coil in the MRI apparatus; wherein the support element (120; 120') is bonded only to the first axially outer surface (112; 114) of the coil; wherein the electromagnets are mounted to at least two brackets (201, 202) of the support structure, each bracket comprising a single support plate; wherein each support plate extends from a first electromagnet of said pair of electromagnets to a second electromagnet of said pair of electromagnets or wherein each electromagnet is provided with its own single support plate, wherein a bracing element is provided to each single support plate and a rod extends between the bracing elements; the support structure being configured such that the support plates of said brackets are located either on the radially outer or radially inner side of said coils; wherein each support element is mechanically secured to the single support plate of each bracket.
Turning device for window and door handles, having a housing (20, 20') and a clamping device for fastening the housing (20, 20') to a wall of a hollow profile and having a polygonal socket for a polygonal pin of the window or door handle, wherein in the housing (20, 20') is provided a latching mechanism which interacts with the polygonal pin of the window or door handle, with which latching mechanism the window or door handle can be adjusted in a latching manner into predetermined angle steps corresponding to different functional positions, wherein the clamping device has at least two clamping tabs which can be actuated via screws, which clamping tabs protrude slightly in a mounting position of the housing (20, 20') and in a fastening position rest on an inner side of the wall of the hollow profile and achieve a clamping effect with a housing flange arranged on the outer side of the wall of the hollow profile, characterised in that the clamping tabs are held in the mounting position in the housing (20, 20') with a removable safety element.
An electric storage device, comprising: - an aprotic organic electrolyte solution of lithium salt serving as electrolyte solution; - an electrode unit having a positive electrode and a negative electrode, which are wound or stacked through a separator; and - an ion source that supplies lithium ions, which are pre-doped into the negative electrode, - wherein a plurality of through-holes (22a, 32a) are formed in a current collector (22, 32) of the positive electrode and the negative electrode, - wherein the negative electrode contains a negative electrode material that allows lithium ions to be doped thereinto or de-doped therefrom, wherein a mesopore/macropore specific surface area represented by a weight average of the negative electrode material is between 10 m 2 /g and 85 m 2 /g, - wherein an index X on the basis of the number of the negative electrodes per the opposite surface of the ion source facing the electrode unit and the summing air permeability, which is obtained by combining the average air permeability of the positive electrode, the average air permeability of the negative electrode and the average air permeability of the separator after the completion of pre-doping, is represented by the following equation of: X = number of the negative electrodes per the opposite surface of the ion source facing the electrode unit × log combined air permeability, and wherein the index X is 50 or less. - an aprotic organic electrolyte solution of lithium salt serving as electrolyte solution; - an electrode unit having a positive electrode and a negative electrode, which are wound or stacked through a separator; and - an ion source that supplies lithium ions, which are pre-doped into the negative electrode, - wherein a plurality of through-holes (22a, 32a) are formed in a current collector (22, 32) of the positive electrode and the negative electrode, - wherein the negative electrode contains a negative electrode material that allows lithium ions to be doped thereinto or de-doped therefrom, wherein a mesopore/macropore specific surface area represented by a weight average of the negative electrode material is between 10 m 2 /g and 85 m 2 /g, - wherein an index X on the basis of the number of the negative electrodes per the opposite surface of the ion source facing the electrode unit and the summing air permeability, which is obtained by combining the average air permeability of the positive electrode, the average air permeability of the negative electrode and the average air permeability of the separator after the completion of pre-doping, is represented by the following equation of: X = number of the negative electrodes per the opposite surface of the ion source facing the electrode unit × log combined air permeability, and wherein the index X is 50 or less.
A refrigerator comprising: a refrigerator cabinet; a storage chamber located within the refrigerator cabinet; a first drawer located in the storage chamber at a rear retracted position and configured to move to a rear extended position by moving forward in a direction toward a front of the storage chamber; a second drawer arranged in front of the first drawer at a front retracted position and configured to move to a front extended position by moving forward in a direction toward the front of the storage chamber and downward in a direction toward a bottom of the storage chamber; a rail unit configured to support the first drawer and the second drawer and guide movement of the first drawer and the second drawer; characterized by a link unit (230, 240) comprising a shaft (232, 242) coupled to the second drawer, the link unit (230, 240) being connectedly provided between the second drawer and the rail unit and configured to pivot the second drawer forward and downward to the front extended position. a refrigerator cabinet; a storage chamber located within the refrigerator cabinet; a first drawer located in the storage chamber at a rear retracted position and configured to move to a rear extended position by moving forward in a direction toward a front of the storage chamber; a second drawer arranged in front of the first drawer at a front retracted position and configured to move to a front extended position by moving forward in a direction toward the front of the storage chamber and downward in a direction toward a bottom of the storage chamber; a rail unit configured to support the first drawer and the second drawer and guide movement of the first drawer and the second drawer; characterized by a link unit (230, 240) comprising a shaft (232, 242) coupled to the second drawer, the link unit (230, 240) being connectedly provided between the second drawer and the rail unit and configured to pivot the second drawer forward and downward to the front extended position.
A build material spreading apparatus (26, 36) for additive manufacturing, including a movable spreader (32, 66) to spread build material over a build area, a build material dispenser to provide the movable spreader with build material, a camera to visualize at least partially the layer of build material provided by the build material dispenser, and a controller (34, 78) configured to calibrate the amount of build material needed to form a layer to be spread over the build area, wherein the controller is configured to: control the build material dispenser to dispense a predetermined amount of build material; control the movable spreader to spread the dispensed build material to form a layer of build material on the build area; use an image taken by the camera to determine an amount of build material remaining after spreading; and modify, based on the determined amount of remaining build material, the predetermined amount of build material to be subsequently provided by the build material dispenser. a movable spreader (32, 66) to spread build material over a build area, a build material dispenser to provide the movable spreader with build material, a camera to visualize at least partially the layer of build material provided by the build material dispenser, and a controller (34, 78) configured to calibrate the amount of build material needed to form a layer to be spread over the build area, wherein the controller is configured to: control the build material dispenser to dispense a predetermined amount of build material; control the movable spreader to spread the dispensed build material to form a layer of build material on the build area; use an image taken by the camera to determine an amount of build material remaining after spreading; and modify, based on the determined amount of remaining build material, the predetermined amount of build material to be subsequently provided by the build material dispenser. control the build material dispenser to dispense a predetermined amount of build material; control the movable spreader to spread the dispensed build material to form a layer of build material on the build area; use an image taken by the camera to determine an amount of build material remaining after spreading; and modify, based on the determined amount of remaining build material, the predetermined amount of build material to be subsequently provided by the build material dispenser.
Fixing device for mounting an object on a building, having a shaft with a first end and a second end, the shaft being designed to transfer forces introduced into the fixing device by the object via the building, as well as having a safety catch, characterized in that the safety catch runs along the shaft and is designed to transfer the forces introduced into the fixing device by the object via the building in the event of failure of the shaft, the safety catch having a greater length and/or a smaller cross-sectional area than the shaft.