mhurhangee/ep-ind-claims huggingface dataset:
Disc brake comprising a brake caliper, which overlaps at least one brake disc, and a brake actuation mechanism having - an amplification mechanism comprising a brake lever being rotatable around a pivot bearing for introducing a clamping force from an actuator, the brake lever having an arm extending between its actuator connection means and its transmission means, - a thrust element in connection with said transmission means for transmitting the amplified clamping force onto the brake disc, in which the brake lever is configured and arranged in relation to the thrust element so that the clamping force from the actuator is substantially directed perpendicularly to the axis of the brake disc upon brake actuation, and in which the amplification mechanism and the thrust element are mounted in functional cooperation in the brake caliper by means of a rod, which rod is supported in the housing of the brake caliper so as to be not displaceable in axial direction, characterized in that the brake lever is configured to be mounted at different angular positions around the axis of the rod. - an amplification mechanism comprising a brake lever being rotatable around a pivot bearing for introducing a clamping force from an actuator, the brake lever having an arm extending between its actuator connection means and its transmission means, - a thrust element in connection with said transmission means for transmitting the amplified clamping force onto the brake disc,
A graft copolymer (G F1) containing rubber is a graft copolymer containing rubber formed by performing graft polymerization of 1 or more vinyl monomers on a rubber containing a polyorganosiloxane, wherein a content of a component derived from a silane compound containing a vinyl-based polymerizable group in the polyorganosiloxane is 1 mass% to 10 mass%, a volume-average particle size of the graft copolymer containing rubber is 300 nm to 2000 nm, a content of the polyorganosiloxane in the graft copolymer containing rubber is 70 mass% to 85 mass%, and a grafting rate obtained from the following formula is 10 mass% or less, Grafting rate % = wa − wo × R / 100 wo × R / 100 × 100 wa: mass (g) of acetone insoluble matter of sample, wo: total amount (g) of sample, R: fraction (mass%) of rubber containing the polyorganosiloxane in an raw material added in a production of the graft copolymer, and a content of a component derived from a polyfunctional vinyl monomer in the graft copolymer containing rubber is 0.1 mass% or more and 1.5 mass% or less, based on 100 mass% of the graft copolymer. wa: mass (g) of acetone insoluble matter of sample, wo: total amount (g) of sample, R: fraction (mass%) of rubber containing the polyorganosiloxane in an raw material added in a production of the graft copolymer, and a content of a component derived from a polyfunctional vinyl monomer in the graft copolymer containing rubber is 0.1 mass% or more and 1.5 mass% or less, based on 100 mass% of the graft copolymer.
A photoelectrochemical cell comprising: a compartment divider (120,220) configured to divide a container (110,210) into a first compartment and a second compartment, the compartment divider having a first surface facing the first compartment and a second surface facing the second compartment; a first electrolyte (152,252) in the first compartment; a second electrolyte (154,254) in the second compartment; a first electrode (132,232) on the first surface of the compartment divider; a second electrode (134,234) on the second surface of the compartment divider; a first photocatalyst layer (142,242) on the first electrode; a second photocatalyst layer (144,244) on the second electrode; and an electrolyte passage (160,260) connecting the first compartment and the second compartment, characterized by further comprising a micropump (170, 270) in the electrolyte passage configured to control the first electrolyte and the second electrolyte to flow in one direction through the electrolyte passage (160, 260), wherein the micropump is one of an electric pump or an electroosmotic pump. a compartment divider (120,220) configured to divide a container (110,210) into a first compartment and a second compartment, the compartment divider having a first surface facing the first compartment and a second surface facing the second compartment; a first electrolyte (152,252) in the first compartment; a second electrolyte (154,254) in the second compartment; a first electrode (132,232) on the first surface of the compartment divider; a second electrode (134,234) on the second surface of the compartment divider; a first photocatalyst layer (142,242) on the first electrode; a second photocatalyst layer (144,244) on the second electrode; and an electrolyte passage (160,260) connecting the first compartment and the second compartment, characterized by further comprising a micropump (170, 270) in the electrolyte passage configured to control the first electrolyte and the second electrolyte to flow in one direction through the electrolyte passage (160, 260), wherein the micropump is one of an electric pump or an electroosmotic pump.
A prosthetic heart valve comprising: a base; a plurality of polymeric leaflets (94a-c), each leaflet having a root portion (96a-c) coupled to the base, each leaflet having an edge portion (98a-c) substantially opposite the root portion and movable relative to the root portion to coapt with a respective edge portion of at least one of the other leaflets of the plurality of leaflets, each leaflet comprising at least two polymers, and each leaflet having a composition gradient of each of the at least two polymers along at least one portion of the leaflet, wherein each of the plurality of leaflets further comprises fibers at least partially embedded in one or more of the at least two polymers, characterized in that the fibers are embedded in each respective leaflet such that a concentration of fibers decreases in a direction along each leaflet, wherein the concentration of fibers decreases in a direction from the respective root portion to the respective edge portion of the leaflet. a base; a plurality of polymeric leaflets (94a-c), each leaflet having a root portion (96a-c) coupled to the base, each leaflet having an edge portion (98a-c) substantially opposite the root portion and movable relative to the root portion to coapt with a respective edge portion of at least one of the other leaflets of the plurality of leaflets, each leaflet comprising at least two polymers, and each leaflet having a composition gradient of each of the at least two polymers along at least one portion of the leaflet, wherein each of the plurality of leaflets further comprises fibers at least partially embedded in one or more of the at least two polymers, characterized in that the fibers are embedded in each respective leaflet such that a concentration of fibers decreases in a direction along each leaflet, wherein the concentration of fibers decreases in a direction from the respective root portion to the respective edge portion of the leaflet.
A method for manufacturing a tubular cellulose-based foodstuff casing, comprising applying an aqueous impregnation mixture at least to the outside of the tubular foodstuff casing, wherein the impregnation mixture contains a micellized solubilizate and water, and wherein the micellized solubilizate comprises a biocidally active substance, a triglyceride and a solubilizer, wherein at least one other biocidally active substance is admixed to the biocidally active substance, and wherein the biocidally active substance and the other biocidally active substance are independently of each other selected from the group comprising citrus fruit extract, thyme extract, rosemary extract, sage extract, oregano extract, clove extract, cinnamon extract, currant extract, soy extract, green tea extract, garlic extract, olive extract, onion extract, leek extract, pumpkin seed extract, lemon balm extract, pelargonium root extract, chamomile extract, turmeric extract, grape seed oil.
A fungicidal composition comprising an emulsifier, a paraffinic oil, a pigment, and 2-chloro-N-(4'-chloro[1,1'-biphenyl]-2-yl)-3-pyridinecarboxamide (boscalid), wherein the paraffinic oil and boscalid are present in amounts that are synergistically effective when applied to a plant for controlling a fungal pathogen of the plant.
Modular transfigurable drilling rig comprising: a. multiple transfigurable shipping containers (10; 11; 24; 210) adapted to form an operational drilling rig, comprising a base transfigurable container and a mast transfigurable container; wherein one of the multiple transfigurable container comprises: i. a load bearing structure comprising a first load bearing support, a second load bearing support, and a load bearing bottom, wherein the load bearing bottom is disposed between the first and the second load bearing supports, thereby forming a space; and ii. drilling equipment (68; 74) connected to the load bearing structure; iii. a connector adapted to engage container at least two transfigurable containers; b. piping (78, 80, 82) adapted to connect the drilling equipment together; c. cabling (84, 86, 88) adapted to provide communication between the drilling equipment; and d. a power source connected to the drilling equipment, wherein the power source is adapted to provide power to the drilling equipment. a. multiple transfigurable shipping containers (10; 11; 24; 210) adapted to form an operational drilling rig, comprising a base transfigurable container and a mast transfigurable container; wherein one of the multiple transfigurable container comprises: i. a load bearing structure comprising a first load bearing support, a second load bearing support, and a load bearing bottom, wherein the load bearing bottom is disposed between the first and the second load bearing supports, thereby forming a space; and ii. drilling equipment (68; 74) connected to the load bearing structure; iii. a connector adapted to engage container at least two transfigurable containers; i. a load bearing structure comprising a first load bearing support, a second load bearing support, and a load bearing bottom, wherein the load bearing bottom is disposed between the first and the second load bearing supports, thereby forming a space; and ii. drilling equipment (68; 74) connected to the load bearing structure; iii. a connector adapted to engage container at least two transfigurable containers; b. piping (78, 80, 82) adapted to connect the drilling equipment together; c. cabling (84, 86, 88) adapted to provide communication between the drilling equipment; and d. a power source connected to the drilling equipment, wherein the power source is adapted to provide power to the drilling equipment.
An information processing device comprising: a distance obtaining unit that obtains a first horizontal distance and a first vertical distance which are respectively a component in a horizontal direction and a component in a vertical direction among distances from the unmanned aerial vehicle to a surface of a particular place where elevation gradually increases or decreases along a horizontal direction; the information processing device being characterised in that it further comprises: a decision unit that decides, based on a ratio of the first horizontal distance to the first vertical distance, a movement amount by which the unmanned aerial vehicle is to be moved simultaneously in the horizontal direction and the vertical direction; and a movement control unit that moves the unmanned aerial vehicle based on the movement amount. a distance obtaining unit that obtains a first horizontal distance and a first vertical distance which are respectively a component in a horizontal direction and a component in a vertical direction among distances from the unmanned aerial vehicle to a surface of a particular place where elevation gradually increases or decreases along a horizontal direction; the information processing device being characterised in that it further comprises: a decision unit that decides, based on a ratio of the first horizontal distance to the first vertical distance, a movement amount by which the unmanned aerial vehicle is to be moved simultaneously in the horizontal direction and the vertical direction; and a movement control unit that moves the unmanned aerial vehicle based on the movement amount. a decision unit that decides, based on a ratio of the first horizontal distance to the first vertical distance, a movement amount by which the unmanned aerial vehicle is to be moved simultaneously in the horizontal direction and the vertical direction; and a movement control unit that moves the unmanned aerial vehicle based on the movement amount.
Dynamic pressure pump for a hydrodynamic machine, comprising a first operating medium inlet with a first inlet opening and a second operating medium inlet with a second inlet opening, the first inlet opening and the second inlet opening being oriented in an opposed manner with respect to one another, and the first operating medium inlet and the second operating medium inlet being combined downstream of the two inlet openings (9, 11) in a manner which conducts operating medium to form a common operating medium duct; the first operating medium inlet and the second operating medium inlet extending, upstream of the common operating medium duct as viewed in the flow direction of the operating medium, oriented identically next to one another in a manner which is departed by way of a dividing wall.
A wavelength conversion device (5, 5a, 5b) comprising: a substrate including a phosphor layer in which a phosphor is included; a rotating device configured to rotate the substrate; a circulating device that is configured to circulate a cooling gas to the substrate; and a housing (51, 51b) configured to house the substrate and the circulating device, wherein the housing (51, 51b) includes a partition wall configured to separate a first space in which the cooling gas is circulated to the substrate by the circulating device and a second space in which the cooling gas radially delivered from the substrate according to the rotation of the substrate circulates; and the substrate includes, on a surface against which the cooling gas is blown, a plurality of first fins extending from a center side toward an outer side of the substrate. a substrate including a phosphor layer in which a phosphor is included; a rotating device configured to rotate the substrate; a circulating device that is configured to circulate a cooling gas to the substrate; and a housing (51, 51b) configured to house the substrate and the circulating device, wherein the housing (51, 51b) includes a partition wall configured to separate a first space in which the cooling gas is circulated to the substrate by the circulating device and a second space in which the cooling gas radially delivered from the substrate according to the rotation of the substrate circulates; and the substrate includes, on a surface against which the cooling gas is blown, a plurality of first fins extending from a center side toward an outer side of the substrate.
A device for neutralising a signal obtained by transposition to a high frequency of a useful signal supplied by a piece of equipment, said piece of equipment having a parasitic capacitance C parasitic that varies over time, the device being characterised in that it comprises a neutralisation capacitance C neut and means with adjustable gain G, the device comprising means for controlling the gain G such that, permanently, GXC neut =C parasitic, the control means including: - means for transposing the useful signal to the high frequency; - means for eliminating the non-DC component of the transposed signal; and - means for correcting the current value of the gain G on the basis of the DC component of the transposed signal. - means for transposing the useful signal to the high frequency; - means for eliminating the non-DC component of the transposed signal; and - means for correcting the current value of the gain G on the basis of the DC component of the transposed signal.
A radiator device for an IR emitter micro-hotplate, the radiator device comprising an IR emitter element and a plurality of support arms connected to the emitter element, wherein: the emitter element is suspended by the arms; and the emitter element is heatable to a predetermined IR emission temperature; characterized in that the arms and the emitter element are configured such that, when a current is passed through the arms to the emitter element, the emitter element is heatable by heat generated in the arms by resistive heating and transferred into the emitter element by thermal conduction. the emitter element is suspended by the arms; and the emitter element is heatable to a predetermined IR emission temperature; characterized in that the arms and the emitter element are configured such that, when a current is passed through the arms to the emitter element, the emitter element is heatable by heat generated in the arms by resistive heating and transferred into the emitter element by thermal conduction.
A refrigerator comprising: a main body; a storage compartment formed inside the main body; and a cold air supplier to supply cold air to the storage compartment, the cold air supplier including a compressor compressing a refrigerant, a condenser condensing the compressed refrigerant, a decompressor expanding the condensed refrigerant, an evaporator disposed at a rear of the storage compartment to evaporate the expanded refrigerant, and a refrigerant moving tube configured to connect the evaporator to the compressor and through which the evaporated refrigerant is moved to the compressor so that the refrigerant is recirculated, wherein the evaporator includes: a case coupled to a rear wall of the storage compartment; a plate forming a side of the case that faces the storage compartment; a refrigerant tube disposed inside the case such that the refrigerant introduced into the evaporator flows therethrough, characterized in that the refrigerant tube is coupled to the refrigerant moving tube inside of the case; and a heat insulating material arranged to fill the inside of the case to cover where the refrigerant tube and the refrigerant moving tube are coupled to each other, wherein the refrigerant tube and the refrigerant moving tube are coupled to each other on an inner surface of the plate, and wherein an outer surface of the plate is exposed to the inside of the storage compartment through an opening in the rear wall of the storage compartment. a main body; a storage compartment formed inside the main body; and a cold air supplier to supply cold air to the storage compartment, the cold air supplier including a compressor compressing a refrigerant, a condenser condensing the compressed refrigerant, a decompressor expanding the condensed refrigerant, an evaporator disposed at a rear of the storage compartment to evaporate the expanded refrigerant, and a refrigerant moving tube configured to connect the evaporator to the compressor and through which the evaporated refrigerant is moved to the compressor so that the refrigerant is recirculated, wherein the evaporator includes: a case coupled to a rear wall of the storage compartment; a plate forming a side of the case that faces the storage compartment; a refrigerant tube disposed inside the case such that the refrigerant introduced into the evaporator flows therethrough, a case coupled to a rear wall of the storage compartment; a plate forming a side of the case that faces the storage compartment; a refrigerant tube disposed inside the case such that the refrigerant introduced into the evaporator flows therethrough, characterized in that the refrigerant tube is coupled to the refrigerant moving tube inside of the case; and a heat insulating material arranged to fill the inside of the case to cover where the refrigerant tube and the refrigerant moving tube are coupled to each other, wherein the refrigerant tube and the refrigerant moving tube are coupled to each other on an inner surface of the plate, and wherein an outer surface of the plate is exposed to the inside of the storage compartment through an opening in the rear wall of the storage compartment.
Method for operating a technical system, which comprises a display device, wherein, in the method, a process image of the technical system is displayed on the display device, characterised in that - pixel information of the process image or pixel information of one or more auxiliary images (HB1-HB5) obtained from the process image is subjected to a vectorisation process with the formation of a vector-based image description or vector-based auxiliary image descriptions (VB1-VB5), and - the vector-based image description or the vector-based auxiliary image descriptions (VB1-VB5) are each subjected to a pattern detection process with the formation of status data, which describes the operating state of the technical system or of system components (K1-Kn) of the technical system. - pixel information of the process image or pixel information of one or more auxiliary images (HB1-HB5) obtained from the process image is subjected to a vectorisation process with the formation of a vector-based image description or vector-based auxiliary image descriptions (VB1-VB5), and - the vector-based image description or the vector-based auxiliary image descriptions (VB1-VB5) are each subjected to a pattern detection process with the formation of status data, which describes the operating state of the technical system or of system components (K1-Kn) of the technical system.
A thermoelectric power generator comprising: a thermoelectric power generation module that includes a heat receiver and a heat dissipater and generates electric power by a temperature difference between the heat receiver and the heat dissipater; a cooling device (40A, 40E, 40F) that cools the heat dissipater; and a control device, characterised in that generated power of the thermoelectric power generation module is distributed to consumption power used in the cooling device (40A, 40E, 40F) and effective power used in an external load, and the control device includes: a monitoring unit that monitors a state of the cooling device (40A, 40E, 40F) and outputs monitoring data; an adjustment unit capable of adjusting the effective power supplied to the external load; and a control command unit that outputs a control command that controls the adjustment unit based on the monitoring data. a thermoelectric power generation module that includes a heat receiver and a heat dissipater and generates electric power by a temperature difference between the heat receiver and the heat dissipater; a cooling device (40A, 40E, 40F) that cools the heat dissipater; and a control device, characterised in that generated power of the thermoelectric power generation module is distributed to consumption power used in the cooling device (40A, 40E, 40F) and effective power used in an external load, and the control device includes: a monitoring unit that monitors a state of the cooling device (40A, 40E, 40F) and outputs monitoring data; an adjustment unit capable of adjusting the effective power supplied to the external load; and a control command unit that outputs a control command that controls the adjustment unit based on the monitoring data. a monitoring unit that monitors a state of the cooling device (40A, 40E, 40F) and outputs monitoring data; an adjustment unit capable of adjusting the effective power supplied to the external load; and a control command unit that outputs a control command that controls the adjustment unit based on the monitoring data.