mhurhangee/ep-ind-claims huggingface dataset:
An in vitro method of identifying that a patient is at risk of developing osteoarthritis pain, said method comprising measuring the amount of stathmin 2 in a sample from the patient, wherein the sample is a blood, plasma, serum or synovial fluid sample and wherein an increased amount of stathmin 2 relative to a control amount derived from subjects known not to have osteoarthritis is indicative that a patient is at risk of developing osteoarthritis pain.
A municipal crossroads structure for solving the traffic jam issue, comprising a first artery and a second artery which cross each other and each are bidirectional lanes, wherein ground road surfaces of the first artery and the second artery form at an intersection a central platform sharing the ground road surface, the first artery is provided with bidirectional low tunnels passing underneath the central platform, the low tunnels rise to the ground surface again after passing beneath the central platform, a cross turning tunnel is diverged from an outside edge of a travel direction of the low tunnel, the cross turning tunnel makes a U turn underground the front of an upslope ramp of the low tunnel and is connected with the second artery in the same travel direction after a transition of a segment of a turning upslope ramp, a lane turning to an outside edge of the secondary artery is diverged from an outside edge of the travel direction of the ground road surface of the first artery, and a lane turning to an outside edge of the first artery is diverged from the outside edge of the travel direction of the second artery, characterized in that the height of the low tunnels enabling vehicles to pass therethrough is no less than 2 meters and no more than 3 meters and the ground road surface of the first artery is divided by the low tunnels into left and right ground surface lanes (7, 8) which are opposite in drive direction and intended for travel of large vehicles, the two left and right ground surface lanes (7, 8) being connected on the central platform to form two U-turn lanes (9, 10) which are opposite in U turn direction and intended for U turn of large vehicles, the two U-turn lanes (9, 10) are located on left and right sides of a straight-on lane of the second artery on the central platform, and a height of the cross turning tunnel enabling vehicles to pass therethrough is no less than 2 meters and no more than 3 meters.
Biological treatment process of an effluent, characterized in the fact that he(it) contains the following stages: - We analyze the effluent to determine a composition and a concentration in constituent substances of the effluent and their physical characteristics, and to determine micro-organisms contained in this effluent, - We select microorganisms capable of degrading constituent substances of the effluent, - We prepare a sample by mixing in a tank of preparation of samples of the water, a dose of the effluent, and the nutriments, - We introduce a contents of the tank as well as microorganisms selected in a tub(ferry, high school diploma) of fermentation, - We warm and we oxygenate the tub(ferry, high school diploma), - We incorporate a contents of the tub(ferry, high school diploma) into the effluent to be handled(treated). - We analyze the effluent to determine a composition and a concentration in constituent substances of the effluent and their physical characteristics, and to determine micro-organisms contained in this effluent, - We select microorganisms capable of degrading constituent substances of the effluent, - We prepare a sample by mixing in a tank of preparation of samples of the water, a dose of the effluent, and the nutriments, - We introduce a contents of the tank as well as microorganisms selected in a tub(ferry, high school diploma) of fermentation, - We warm and we oxygenate the tub(ferry, high school diploma), - We incorporate a contents of the tub(ferry, high school diploma) into the effluent to be handled(treated).
A superhigh strength gas shielded welding wire, characterized in that the contents of chemical elements of the superhigh strength gas shielded welding wire in percentage by mass are: C 0.06-0.12%, Si 0.55-0.80%, Mn 1.60-1.95%, 0 < Cu < 0.20%, Cr 0.10-0.35%, Mo 0.10-0.50%, Ni 1.00-1.60%, Ti 0.01-0.20%, B 0.0005-0.0060%, and the balance being Fe and other inevitable impurities; and in further satisfying: 0.30% Cr + Mo ≤ 0.60% and 0.15% ≤ Cr + Cu ≤ 0.40%.
Sound transducer (10; 10a to 10d) comprising a housing (15; 15a to 15d) for accommodating a vibratory piezo element in an interior space of the housing (15; 15a to 1 15d) and a piezo element which is arranged in operative connection with a diaphragm element (16; 16a) by way of the piezo element being in contact with a side of the diaphragm element (16; 16a) that faces the interior space of the housing (15; 15a to 15d), wherein the diaphragm element (16; 16a) forms an end side of the housing (15; 15a to 15d), and wherein the interior space of the housing has a lateral inner wall and wherein the housing (15; 15a to 15d) has a wall thickness (w) which, as viewed in the direction of a longitudinal axis of the housing (15; 15a to 15d) from the direction of the diaphragm element (16; 16a) in the direction of the interior space, increases in the direction of the interior space starting from a minimum in the plane of the piezo element, wherein the housing (15; 15a to 15c) has an outer wall which is arranged obliquely at an angle (α) in relation to the longitudinal axis, so that an outside diameter (d1, d2, d3) of the housing, which outside diameter runs in a perpendicular in relation to the plane of the piezo element, widens in the manner of a truncated cone to an outside diameter starting from a minimum in the plane of the piezo element, characterized in that the housing has, in the plane of the piezo element, on its inner wall, a radially encircling, groove-like cutout in the region of which the wall thickness (w) of the diaphragm element (16; 16a) is reduced.
An aerosol-generating device for use in an aerosol-generating system, the aerosol-generating device comprising: a cavity configured to receive an aerosol-generating article; a heat exchanger having a first portion proximate to the cavity and a second portion distal to the cavity for capturing heat from a lighter; and a retractable cover, wherein the retractable cover is movable from a first position in which the retractable cover covers the second portion of the heat-exchanger to a second position in which the second portion of the heat exchanger is exposed for heating by a lighter and wherein the retractable cover is configured to automatically return from the second position to the first position when the second portion of the heat exchanger reaches a threshold temperature. a cavity configured to receive an aerosol-generating article; a heat exchanger having a first portion proximate to the cavity and a second portion distal to the cavity for capturing heat from a lighter; and a retractable cover, wherein the retractable cover is movable from a first position in which the retractable cover covers the second portion of the heat-exchanger to a second position in which the second portion of the heat exchanger is exposed for heating by a lighter and wherein the retractable cover is configured to automatically return from the second position to the first position when the second portion of the heat exchanger reaches a threshold temperature.
One-component thermosetting epoxy resin adhesive, comprising a)at least one epoxy resin A having on average more than one epoxide group per molecule; b)at least one latent hardener for epoxy resins; and c)at least one carboxylic acid selected from substituted or unsubstituted succinic acid and substituted or unsubstituted phthalic acid, wherein the epoxy resin adhesive contains 1.7 to 15 mmol of the at least one carboxylic acid per 100 g of epoxy resin adhesive, and the epoxy resin adhesive has a viscosity of more than 10 000 Pas at 25°C, the viscosity being determined oscillographically by means of a rheometer with heatable plate (MCR 301, AntonPaar) (gap 1000 μm, measuring plate diameter: 25 mm (plate/plate), deformation 0.01 at 5 Hz, temperature: 25°C). a)at least one epoxy resin A having on average more than one epoxide group per molecule; b)at least one latent hardener for epoxy resins; and c)at least one carboxylic acid selected from substituted or unsubstituted succinic acid and substituted or unsubstituted phthalic acid, wherein the epoxy resin adhesive contains 1.7 to 15 mmol of the at least one carboxylic acid per 100 g of epoxy resin adhesive, and the epoxy resin adhesive has a viscosity of more than 10 000 Pas at 25°C, the viscosity being determined oscillographically by means of a rheometer with heatable plate (MCR 301, AntonPaar) (gap 1000 μm, measuring plate diameter: 25 mm (plate/plate), deformation 0.01 at 5 Hz, temperature: 25°C).
A photovoltaic roof module, comprising: a plurality of photovoltaic roof tiles (702/704/706), wherein each photovoltaic roof tile comprises: a glass front cover; a back cover comprising glass of photovoltaic backsheet; a plurality of photovoltaic structures (814/824) encapsulated between the glass front cover and the back cover by an encapsulant; wherein a respective photovoltaic structure comprises a first edge busbar positioned near an edge of a first surface and a second edge busbar positioned near an opposite edge of a second surface, and wherein the plurality of photovoltaic structures is arranged in such a way that the first edge busbar of a first photovoltaic structure overlaps the second edge busbar of an adjacent photovoltaic structure, thereby forming a cascaded string; and wherein the cascaded string within a first photovoltaic roof tile and the cascaded string within a second photovoltaic roof tile are electrically coupled to each other in parallel; and further comprising a metallic tab configured to couple corresponding edge busbars of the cascaded strings within the first and second photovoltaic roof tiles, wherein the metallic tab is coupled to a corresponding edge busbar via a strain-relief connector, which comprises an elongated member (802/810/820) and a plurality of laterally extended wires; wherein the photovoltaic roof tile is configured to function as a roof tile when placed on a rooftop of a building, thereby protecting the building from weather elements. a glass front cover; a back cover comprising glass of photovoltaic backsheet; a plurality of photovoltaic structures (814/824) encapsulated between the glass front cover and the back cover by an encapsulant; wherein a respective photovoltaic structure comprises a first edge busbar positioned near an edge of a first surface and a second edge busbar positioned near an opposite edge of a second surface, and wherein the plurality of photovoltaic structures is arranged in such a way that the first edge busbar of a first photovoltaic structure overlaps the second edge busbar of an adjacent photovoltaic structure, thereby forming a cascaded string; and wherein the cascaded string within a first photovoltaic roof tile and the cascaded string within a second photovoltaic roof tile are electrically coupled to each other in parallel; and further comprising
An apparatus for separating a dissolved contaminate from a flow of volatile fluid, said apparatus comprising a chamber (38, 78) defined by a canister, characterized in that the canister is provided with a threaded mouth on its top for receiving a threaded cap and valve assembly, said cap and valve assembly comprising a manifold; the apparatus further comprising an inlet port (43, 81) in the manifold for injecting the volatile fluid flow into said chamber (38, 78) in such a way that the fluid at least partially vaporizes while the contaminate remains at least partially liquid; an outlet port (44, 84) in the manifold communicating with said chamber (38, 78) for delivering partially vaporized fluid from said chamber (38, 78) to a downstream location, and a mist arrester (62, 86) in the manifold associated with said outlet (44, 84) and arranged such that said partially vaporized fluid passes through said mist arrester (62, 86) before exiting said chamber (38, 78), said mist arrester (62, 86) separating remaining traces of contaminate from said partially vaporized fluid; the cap and valve assembly comprising a bi-directional valve, said valve having a first configuration allowing fluid flow through said chamber (38, 78) and a second configuration wherein fluid flow bypasses said chamber (38, 78).
An internal antenna module comprising: a polyhedral chip antenna configured to include a polyhedral block, a first radiant pattern configured in a winding form along the external faces of the polyhedral block and a coupling pattern spaced apart from the first radiant pattern; and a flexible circuit board on which the chip antenna is mounted, and on which a first conductive pad connected to the first radiant pattern, a second conductive pad connected to the coupling pattern and a second radiant pattern connected to the first radiant pattern are formed; wherein the first conductive pad is electrically connected to an FM signal processing module and a Bluetooth signal processing module, and sends reception signals, received through the chip antenna and the flexible circuit board, to the FM signal processing module and the Bluetooth signal processing module, and wherein the second conductive pad is electrically connected to a ground. a polyhedral chip antenna configured to include a polyhedral block, a first radiant pattern configured in a winding form along the external faces of the polyhedral block and a coupling pattern spaced apart from the first radiant pattern; and a flexible circuit board on which the chip antenna is mounted, and on which a first conductive pad connected to the first radiant pattern, a second conductive pad connected to the coupling pattern and a second radiant pattern connected to the first radiant pattern are formed; wherein the first conductive pad is electrically connected to an FM signal processing module and a Bluetooth signal processing module, and sends reception signals, received through the chip antenna and the flexible circuit board, to the FM signal processing module and the Bluetooth signal processing module, and wherein the second conductive pad is electrically connected to a ground.
A heat exchange system (100; 200; 300) for a vehicle (Ve) including a battery, an electric motor as a propulsion power source, a transmission system, and a power control unit configured to convert electric power from the battery into an alternating current and supply the alternating current to the electric motor, the electric motor being configured to be driven with electric power supplied from the battery, the heat exchange system (100; 200; 300) comprising: a heat pump used for air conditioning, the heat pump including an electric compressor that compresses a refrigerant, the electric compressor being configured to be driven with electric power from the battery; and a heat exchanger (20; 40) configured to exchange heat between the refrigerant and lubricating oil that lubricates the transmission system, characterized in that the heat exchange system (200; 300) further comprises a cooling circuit through which a coolant for cooling the power control unit circulates, wherein the heat exchanger is configured to exchange heat among three types of fluids that are the coolant, the lubricating oil, and the refrigerant. a heat pump used for air conditioning, the heat pump including an electric compressor that compresses a refrigerant, the electric compressor being configured to be driven with electric power from the battery; and a heat exchanger (20; 40) configured to exchange heat between the refrigerant and lubricating oil that lubricates the transmission system, characterized in that the heat exchange system (200; 300) further comprises a cooling circuit through which a coolant for cooling the power control unit circulates, wherein the heat exchanger is configured to exchange heat among three types of fluids that are the coolant, the lubricating oil, and the refrigerant.
A lithium ion secondary battery characterized by comprising: a positive electrode sheet that includes a positive electrode active material layer containing a positive electrode active material particle; a negative electrode sheet; and a nonaqueous electrolytic solution that contains a compound containing fluorine, wherein a surface of the positive electrode active material particle includes a film containing fluorine and phosphorus, and a ratio Cf/Cp satisfies 1.89≤Cf/Cp≤2.61, wherein Cf/Cp is the proportion of Cf, the number of fluorine atoms in the film, and Cp, the number of phosphorus atoms in the film, based on the amounts of all the elements in wide scanning analysis of 0 eV to 1100 eV obtained by X-ray photoelectron spectroscopy, wherein a thickness α of the film satisfies 10 nm≤α≤15 nm, and wherein the positive electrode active material particle is formed of a lithium nickel manganese composite oxide having a spinel-type crystal structure, and an amount β of Mn-F on the surface measured by TOF-SIMS satisfies 8.2≤β≤8.7. a positive electrode sheet that includes a positive electrode active material layer containing a positive electrode active material particle; a negative electrode sheet; and a nonaqueous electrolytic solution that contains a compound containing fluorine, wherein a surface of the positive electrode active material particle includes a film containing fluorine and phosphorus, and a ratio Cf/Cp satisfies 1.89≤Cf/Cp≤2.61, wherein Cf/Cp is the proportion of Cf, the number of fluorine atoms in the film, and Cp, the number of phosphorus atoms in the film, based on the amounts of all the elements in wide scanning analysis of 0 eV to 1100 eV obtained by X-ray photoelectron spectroscopy, wherein a thickness α of the film satisfies 10 nm≤α≤15 nm, and wherein the positive electrode active material particle is formed of a lithium nickel manganese composite oxide having a spinel-type crystal structure, and an amount β of Mn-F on the surface measured by TOF-SIMS satisfies 8.2≤β≤8.7.
A downdraft gasification apparatus comprising: an elongated external vessel, having an upper end and a lower end, an elongated internal vessel. having an upper end and a lower end, wherein said internal vessel is located inside said elongated external vessel, thereby forming a void between said elongated internal vessel and said elongated external vessel, a stationary gasifier trunk with an inside surface, outside surface, interior space, an upper end and a lower end, wherein said gasifier trunk is located within said elongated internal vessel, a loading mechanism, comprising an elongated loading mechanism trunk and a feedstock feeder capable of moving said feedstock along said elongated loading mechanism trunk, wherein said loading mechanism is positioned so as to enable feeding of said feedstock into said upper end of said gasifier trunk, along the entire interior space of said gasifier trunk and down toward the fire chamber; a fire chamber, located in the lower end of the elongated internal vessel, a gas outlet, and a slag discharge mechanism. an elongated external vessel, having an upper end and a lower end, an elongated internal vessel. having an upper end and a lower end, wherein said internal vessel is located inside said elongated external vessel, thereby forming a void between said elongated internal vessel and said elongated external vessel, a stationary gasifier trunk with an inside surface, outside surface, interior space, an upper end and a lower end, wherein said gasifier trunk is located within said elongated internal vessel, a loading mechanism, comprising an elongated loading mechanism trunk and a feedstock feeder capable of moving said feedstock along said elongated loading mechanism trunk, wherein said loading mechanism is positioned so as to enable feeding of said feedstock into said upper end of said gasifier trunk, along the entire interior space of said gasifier trunk and down toward the fire chamber; a fire chamber, located in the lower end of the elongated internal vessel, a gas outlet, and a slag discharge mechanism.
A take-out system for injection molding machines, comprising: a) a take-out robot for injection molding machines, which takes a molding product obtained by filling a cavity space defined in a mold with a molding material out of the mold, the take-out robot comprising: a gas passage formation section that forms a gas passage (43, 44), wherein, when molding is stopped, the gas passage formation section allows dehumidified gas, having a dew point temperature which is less than a temperature of the mold, to be blown from the gas passage (43, 44) to the mold, b) a dehumidified gas source with which the take-out robot is connected and that is adapted to supply dehumidified gas to the gas passage (43, 44), c) a control unit that is adapted to control the dehumidified gas source so as to blow dehumidified gas to the gas passage (43, 44). a) a take-out robot for injection molding machines, which takes a molding product obtained by filling a cavity space defined in a mold with a molding material out of the mold, the take-out robot comprising: a gas passage formation section that forms a gas passage (43, 44), wherein, when molding is stopped, the gas passage formation section allows dehumidified gas, having a dew point temperature which is less than a temperature of the mold, to be blown from the gas passage (43, 44) to the mold, a gas passage formation section that forms a gas passage (43, 44), wherein, when molding is stopped, the gas passage formation section allows dehumidified gas, having a dew point temperature which is less than a temperature of the mold, to be blown from the gas passage (43, 44) to the mold, b) a dehumidified gas source with which the take-out robot is connected and that is adapted to supply dehumidified gas to the gas passage (43, 44), c) a control unit that is adapted to control the dehumidified gas source so as to blow dehumidified gas to the gas passage (43, 44).
Parking robot system for a motor vehicle with a plurality of wheels, wherein the parking robot system comprises a main robot and a plurality of auxiliary robots; wherein the auxiliary robots respectively have a pair of wheel support arms and are respectively designed to drive autonomously, with folded-in wheel support arms, from outside to next to a respective one of the wheels of the motor vehicle, and to lift the respective wheel by unfolding the respective pair of wheel support arms, and the main robot is designed to accompany the auxiliary robots with the raised motor vehicle during a travel to a prespecified target position; wherein the respective auxiliary robots are designed only with simple technical equipment, and a control device and a sensor device are provided only in the main robot; wherein the sensor device of the main robot is designed to detect an environment of the main robot as well as to localize, in the detected environment, obstacles to the main robot and the respective auxiliary robots with the raised motor vehicle, and the control device of the main robot is designed to provide a respective travel trajectory for the respective auxiliary robots as well as a travel trajectory for the main robot to the prespecified target position, taking into account map data provided by the control device, the detected vehicle environment, and/or the localized obstacles.