mhurhangee/ep-ind-claims huggingface dataset:
A titanium alloy product consisting of: Al: more than 1.0% (% by mass, the same hereinafter) and 4.5% or less, and O: 0.60% or less, so that Al equivalent represented by (Al+10O (oxygen)) being 3.5 to 7.2%; one or more elements selected from the group consisting of Fe, Cr, Ni, Co and Mn, so that Fe equivalent represented by (Fe+0.5Cr+0.5Ni+0.67Co+0.67Mn) being 0.8% or more and less than 2.0%; one or more elements selected from the group consisting of Cu: 0.4 to 3.0% and Sn: 0.4 to 10%, optionally one or more elements selected from the group consisting of Si and C, so that Si+5C < 1.0% being satisfied, wherein Si and C represent the contents (% by mass) of the respective elements in the titanium alloy product; and the balance being Ti and unavoidable impurities. Al: more than 1.0% (% by mass, the same hereinafter) and 4.5% or less, and O: 0.60% or less, so that Al equivalent represented by (Al+10O (oxygen)) being 3.5 to 7.2%; one or more elements selected from the group consisting of Fe, Cr, Ni, Co and Mn, so that Fe equivalent represented by (Fe+0.5Cr+0.5Ni+0.67Co+0.67Mn) being 0.8% or more and less than 2.0%; one or more elements selected from the group consisting of Cu: 0.4 to 3.0% and Sn: 0.4 to 10%, optionally one or more elements selected from the group consisting of Si and C, so that Si+5C < 1.0% being satisfied, wherein Si and C represent the contents (% by mass) of the respective elements in the titanium alloy product; and the balance being Ti and unavoidable impurities.
Active substance combination of N-(4-amino-2-methylquinolin-6-yl)-2-((4-ethylphenoxy)methyl)benzamide and one or more cosmetically or dermatologically acceptable preservatives and/or preservative auxiliaries.
A shoe sole comprising an elastomeric composition characterized in that it comprises: 100 phr of a mixture of rubbers comprising: i. from 40 to 70% by weight of an isoprene polymer; ii. from 20 to 50% by weight of polybutadiene; iii. from 10 to 40% by weight of an SBR having a glass transition temperature (Tg) from -60 to -40 °C; and, based on 100 parts by weight (phr) of elastomeric component: from 50 to 100 phr of amorphous carbon black having a surface area greater than 85 m 2 / g measured with the ASTM D6556 method, and a dibutyl phthalate absorption index (DBPA) greater than 90 measured with the ASTM D2414 method; from 1 to 30 phr of graphene nano-platelets, wherein at least 90% of said graphene nano-platelets has a side dimension (x, y) from 50 to 50000 nm and a thickness (z) of 0.34 to 50 nm, and wherein said graphene nano-platelets have a C / O ratio ≥ 100: 1. 100 phr of a mixture of rubbers comprising: i. from 40 to 70% by weight of an isoprene polymer; ii. from 20 to 50% by weight of polybutadiene; iii. from 10 to 40% by weight of an SBR having a glass transition temperature (Tg) from -60 to -40 °C; and, based on 100 parts by weight (phr) of elastomeric component: i. from 40 to 70% by weight of an isoprene polymer; ii. from 20 to 50% by weight of polybutadiene; iii. from 10 to 40% by weight of an SBR having a glass transition temperature (Tg) from -60 to -40 °C; from 50 to 100 phr of amorphous carbon black having a surface area greater than 85 m 2 / g measured with the ASTM D6556 method, and a dibutyl phthalate absorption index (DBPA) greater than 90 measured with the ASTM D2414 method; from 1 to 30 phr of graphene nano-platelets,
A method for use in managing a transfer of content to a user device that is communicatively linked to a computer network, comprising: determining capabilities of the user device to download content over the computer network and to process content received over the computer network; determining what upgrade to the configuration of the user device would be necessary to make an additional service level available to the user device that is currently unavailable; automatically selecting a service level that is available to the user device for transferring content thereto based upon the determined capabilities of the user device; and transmitting a message to the user device that causes a notice having a link to be displayed on the user device; wherein the link allows the user to obtain the upgrade from a provider that is selected based on what upgrade to the user device configuration is necessary to make an additional service level available to the user device. determining capabilities of the user device to download content over the computer network and to process content received over the computer network; determining what upgrade to the configuration of the user device would be necessary to make an additional service level available to the user device that is currently unavailable; automatically selecting a service level that is available to the user device for transferring content thereto based upon the determined capabilities of the user device; and transmitting a message to the user device that causes a notice having a link to be displayed on the user device; wherein the link allows the user to obtain the upgrade from a provider that is selected based on what upgrade to the user device configuration is necessary to make an additional service level available to the user device.
A bone fixing system for holding a bone in a position comprising: - a conformable ligature comprising a first end and a second end and a loop portion; - a blocking body comprising: - a loop passage; - an exit passage, wherein the loop portion passes through the loop passage and the first and second ends extend from the exit passage; and - an engagement portion; - a closure member for engagement with the blocking body engagement portion; and - a compression member having a first surface and a second surface; wherein the blocking body comprises a compression member opening for receiving the compression member; wherein the closure member comprises a bottom surface for contact with the second surface of the compression member and engages with the blocking body so that the closure member biases the bottom surface of the closure member with the second surface of the compression member and the first surface of the compression member contacts the conformable ligature, to create a friction force between the conformable ligature and the blocking body; characterized in that: the compression member comprises an extension for maintaining the position of the compression member in the blocking body. - a conformable ligature comprising a first end and a second end and a loop portion; - a blocking body comprising: - a loop passage; - an exit passage, wherein the loop portion passes through the loop passage and the first and second ends extend from the exit passage; and - an engagement portion; - a loop passage; - an exit passage, wherein the loop portion passes through the loop passage and the first and second ends extend from the exit passage; and - an engagement portion; - a closure member for engagement with the blocking body engagement portion; and - a compression member having a first surface and a second surface; the compression member comprises an extension for maintaining the position of the compression member in the blocking body.
A pump assembly (1, 5, 6, 6') comprising: a plurality of pumps (10, 20, 30, 40, 50, 60), each of the pumps (10, 20, 30, 40, 50, 60) comprising a pump body (100, 500), a first opening (102, 502), a second opening (104, 504), a first connecting member (106, 506) and a second connecting member (108, 508), the first opening (102, 502) and the second opening (104, 504) being located at a periphery of the pump body (100, 500), the first connecting member (106, 506) being disposed on the first opening (102, 502), the second connecting member (108, 508) being disposed on the second opening (104, 504), the first connecting member (106, 506) of one of the pumps (10, 20, 30, 40, 50, 60) being detachably connected to the second connecting member (108, 508) of another of the pumps (10, 20, 30, 40, 50, 60), such that each of the pumps (10, 20, 30,40,50, 60) is detachably connected to any of the pumps (10, 20, 30, 40, 50, 60); characterized by each of the pumps (20, 50, 60) further comprising a first electrical pad (200, 510, 610) and a second electrical pad (202, 512, 612), the first electrical pad (200, 510, 610) being disposed on the first connecting member (106, 506), the second electrical pad (202, 512, 612) corresponding to the first electrical pad (200, 510, 610) and being disposed on the second connecting member (108, 508), the first electrical pad (200, 510, 610) being electrically connected to the second electrical pad (202, 512, 612) when the first connecting member (106, 506) is connected to the second connecting member (108, 508). a plurality of pumps (10, 20, 30, 40, 50, 60), each of the pumps (10, 20, 30, 40, 50, 60) comprising a pump body (100, 500), a first opening (102, 502), a second opening (104, 504), a first connecting member (106, 506) and a second connecting member (108, 508), the first opening (102, 502) and the second opening (104, 504) being located at a periphery of the pump body (100, 500), the first connecting member (106, 506) being disposed on the first opening (102, 502), the second connecting member (108, 508) being disposed on the second opening (104, 504), the first connecting member (106, 506) of one of the pumps (10, 20, 30, 40, 50, 60) being detachably connected to the second connecting member (108, 508) of another of the pumps (10, 20, 30, 40, 50, 60), such that each of the pumps (10, 20, 30,40,50, 60) is detachably connected to any of the pumps (10, 20, 30, 40, 50, 60); characterized by each of the pumps (20, 50, 60) further comprising a first electrical pad (200, 510, 610) and a second electrical pad (202, 512, 612), the first electrical pad (200, 510, 610) being disposed on the first connecting member (106, 506), the second electrical pad (202, 512, 612) corresponding to the first electrical pad (200, 510, 610) and being disposed on the second connecting member (108, 508), the first electrical pad (200, 510, 610) being electrically connected to the second electrical pad (202, 512, 612) when the first connecting member (106, 506) is connected to the second connecting member (108, 508).
A gear motor for a motor vehicle wiper system, comprising: - a brushless direct-current electric motor comprising: - a rotor comprising magnetic elements, - a stator having electromagnetic rotor excitation coils, - a rotation shaft secured to the rotor, - a speed-reducing mechanism linking the rotation shaft and an output shaft of the gear motor, - a casing enclosing the electric motor and said speed-reducing mechanism, the casing comprises, on the one hand, a jacket part receiving at least the rotor and the stator of the electric motor, offering a lateral opening to the electric motor, and, on the other hand, a closing flange ensuring the removable closure of said lateral opening, and in which a rolling bearing ensures the guiding of the rotation shaft at one of the longitudinal ends of the rotation shaft, said rolling bearing, arranged internal to the rotor and stator assembly, housed in a recess internal to the rotor, and in which the casing comprises an inwardly-protruding part borne by the closing flange, penetrating into said internal recess, and supporting a seat for said rolling bearing, the protruding part comprises a tubular wall, extending coaxially to the rotation shaft, the seat for the rolling bearing being formed at the distal end of the protruding part by a housing for the rolling bearing defined by the inner cylindrical surface of the tubular wall, and a shoulder extending radially inward from the cylindrical surface of the tubular wall. - a brushless direct-current electric motor comprising: - a rotor comprising magnetic elements, - a stator having electromagnetic rotor excitation coils, - a rotation shaft secured to the rotor, - a rotor comprising magnetic elements, - a stator having electromagnetic rotor excitation coils, - a rotation shaft secured to the rotor, - a speed-reducing mechanism linking the rotation shaft and an output shaft of the gear motor, - a casing enclosing the electric motor and said speed-reducing mechanism, the casing comprises, on the one hand, a jacket part receiving at least the rotor and the stator of the electric motor, offering a lateral opening to the electric motor, and, on the other hand, a closing flange ensuring the removable closure of said lateral opening,
A method of forming a tunnel structure which, once formed, includes a new transport route for use instead of, or in addition to, an existing transport route, said method comprising the steps of forming at least two spaced apart access tunnels (11,13), said access tunnels spaced apart along an axis perpendicular to the longitudinal axes of the said access tunnels, forming at least one guide surface along each of the access tunnels, introducing a plurality of units from at least one end of the said access tunnels and successively sliding the said units along the said at least one guide surface of said access tunnels, said units successively introduced and moved along a linear path as the material in which the tunnel structure is to be formed is excavated in advance of the leading one of the said units with respect to the direction of movement of the units, until the required length of tunnel structure is formed and the path along which the tunnel structure is formed is located under said existing transport route and characterised in that a first access ramp is formed at a first end of the said tunnel structure and a second access ramp is formed at a second end of the said tunnel structure to link the respective ends of said new transport route formed in the said tunnel structure to the existing transport route and allow the passage of trains or vehicles from the existing transport route along the said new transport route through the tunnel structure once formed and said tunnel structure lies at a depth under a surface on which the existing transport route is formed in the range of 2-10 metres
A method of surface treatment of a subject body by an electric spark machine, comprising: obtaining a mixed powder by mixing a powder of aluminum at a ratio of 5-18 weight % to the total of the mixed powder with a powder of titanium hydride and optionally a powder of titanium carbide at a ratio of from 0 weight % to not greater than 30 weight % to the total of the mixed powder; obtaining a molded body by molding and sintering the mixed powder to form a structure so dimensioned as to be incorporated in the electric spark machine as an electrode therefor; incorporating the molded body into the electric spark machine; and generating a coating on the subject body by bringing the molded body close to the subject body in an oil and generating electric discharge therebetween, wherein the mixed powder consists of aluminum, titanium hydride, optionally titanium carbide, and unavoidable impurities. obtaining a mixed powder by mixing a powder of aluminum at a ratio of 5-18 weight % to the total of the mixed powder with a powder of titanium hydride and optionally a powder of titanium carbide at a ratio of from 0 weight % to not greater than 30 weight % to the total of the mixed powder; obtaining a molded body by molding and sintering the mixed powder to form a structure so dimensioned as to be incorporated in the electric spark machine as an electrode therefor; incorporating the molded body into the electric spark machine; and generating a coating on the subject body by bringing the molded body close to the subject body in an oil and generating electric discharge therebetween, wherein the mixed powder consists of aluminum, titanium hydride, optionally titanium carbide, and unavoidable impurities.
Apparatus for transferring pods, each of which form part of a consumable unit for use with an inhalation device, from a storage tray in which each pod is supported in a pod receiving pocket, to a consumable unit manufacturing device, characterised in that the apparatus is adapted to transfer pods from said pod receiving pockets to corresponding pod receiving pockets of a machine cassette of said consumable unit manufacturing device, and in that the apparatus comprises: a transfer station to receive the storage tray and a machine cassette placed over the storage tray wherein the pods are received in the storage tray, the transfer station being configured to rotate the combined storage tray and machine cassette so that the pods in said pod receiving pockets in the tray are transferred into corresponding pod receiving pockets in the machine cassette. characterised in that the apparatus is adapted to transfer pods from said pod receiving pockets to corresponding pod receiving pockets of a machine cassette of said consumable unit manufacturing device, and in that the apparatus comprises: a transfer station to receive the storage tray and a machine cassette placed over the storage tray wherein the pods are received in the storage tray, the transfer station being configured to rotate the combined storage tray and machine cassette so that the pods in said pod receiving pockets in the tray are transferred into corresponding pod receiving pockets in the machine cassette.
A metal oxide coated with a conductive polymer, comprising: a metal oxide represented by Chemical Formula below; and a coating layer formed on the surface of the metal oxide and including a conductive polymer; wherein the conductive polymer is a polymer of protonated monomers, and the conductive polymer is polymerized in a state in which the protonated monomer is adhered to the surface of the metal oxide by electrostatic attraction; Li x Mn y 0 4-z A z wherein 0.7≤x≤1.3, 1.7<y<2.3, 0≤z<0.2, and A is one or more ions having a valence of -1 or -2. a metal oxide represented by Chemical Formula below; and a coating layer formed on the surface of the metal oxide and including a conductive polymer; wherein the conductive polymer is a polymer of protonated monomers, and the conductive polymer is polymerized in a state in which the protonated monomer is adhered to the surface of the metal oxide by electrostatic attraction; Li x Mn y 0 4-z A z wherein 0.7≤x≤1.3, 1.7<y<2.3, 0≤z<0.2, and A is one or more ions having a valence of -1 or -2.
Lightweight construction element which is capable of or is load-bearing, comprising one or more rows of parallel chambers, which are each surrounded by tube-like boundary walls, the boundary walls consisting at least partly of paper, the boundary walls of adjacent chambers being connected to one another and forming a multi-chamber hollow profile which, in the direction of the longitudinal central axes of the chambers, has a cross section that remains constant, the inner surfaces, facing the chambers, and the outer surfaces, facing away from the chambers, of the boundary walls being provided with a water-repellent coating and/or impregnation which increases the flexural and/or compressive strength of the paper, the multi-chamber hollow profile comprising one or more rows of cylindrical hollow bodies, each of the cylindrical hollow bodies bounding one of the chambers, and the chambers, and also the gaps or pockets between the adjacent hollow bodies, being filled with a rigid foam that connects the boundary walls of the adjacent chambers to one another, characterized in that the rigid foam is a hardening reactive foam material made of two or more components, specifically a highly cross-linked hard polyurethane foam, and in that the individual pores of the rigid foam are very small and have cross-sectional dimensions of less than 0.5 mm.
A method for wireless communications, comprising: generating a data packet comprising one or more data symbols; providing, in a preamble field of the data packet, a length field that may be used to calculate a number of data symbols by a receiving entity and a correction field that indicates whether or not the calculated number of symbols should be corrected; and transmitting the data packet. generating a data packet comprising one or more data symbols; providing, in a preamble field of the data packet, a length field that may be used to calculate a number of data symbols by a receiving entity and a correction field that indicates whether or not the calculated number of symbols should be corrected; and transmitting the data packet.
Method for measuring flow paths in valves for liquids and gases, such as e.g. fuels, for determining injection rates, having an injection pump, an injection valve and a measuring device for determining the injection rate of the injection valve, wherein the measuring device comprises a baffle plate for the fluid, which plate is orientated transversely to the injection direction and is allocated a sensor measuring the force acting on the baffle plate in the injection direction, wherein the sensor is allocated a data memory and possibly a computing unit, wherein the fluid is supplied to a measuring device via the injection valve, comprising the following method steps, injection of the fluid against a baffle plate, deflection of the fluid jet in a direction transverse to its injection direction, and measurement and recording of the force acting through the fluid jet on the baffle plate and corresponding to the pulse flow of the fluid jet striking the baffle plate, characterised in that, in a further method step, the fuel mass flow is determined from the pulse flow by calculating the root of the product of the pulse flow, fluid density and effective nozzle cross-section, and that the exit speed of the fluid from the injection valve is determined by calculating the root of the quotient of pulse flow and the product of the effective nozzle cross-section and fluid density.
Pharmaceutical composition containing (a) a parvovirus and (b) a Bcl-2 inhibitor, wherein said parvovirus is H-1 (H-1PV) or a related rodent parvovirus selected from LuIII, Mouse minute virus, Mouse parvovirus, Rat minute virus, Rat parvovirus or Rat virus.
An engine decompression device comprising: a camshaft including an intake valve cam and an exhaust valve cam; a decompression weight that is rotatably provided via a pivot provided on the camshaft; a decompression spring configured to bias the decompression weight; and a decompression shaft including an engagement pin that is guided by a guide groove formed in the decompression weight, a decompression cam that is provided on one cam surface of the intake valve cam and the exhaust valve cam so as to advance and retreat, and a connection portion that connects the engagement pin and the decompression cam, wherein, when the decompression weight rotates against a biasing force of the decompression spring due to a centrifugal force, the decompression shaft rotates such that the decompression cam moves from an advanced position where the decompression cam protrudes from the cam surface to a retracted position where the decompression cam is retracted from the cam surface, characterized in that the decompression weight is formed with a rotation restricting groove that restricts rotation of the decompression shaft when a force acts in a direction in which the decompression cam moves on the decompression shaft from the advanced position to the retracted position when the engine is stopped, that is continuous with the guide groove and that is provided at a connection portion between the guide groove and an inner peripheral portion of the decompression weight. a camshaft including an intake valve cam and an exhaust valve cam; a decompression weight that is rotatably provided via a pivot provided on the camshaft; a decompression spring configured to bias the decompression weight; and a decompression shaft including an engagement pin that is guided by a guide groove formed in the decompression weight, a decompression cam that is provided on one cam surface of the intake valve cam and the exhaust valve cam so as to advance and retreat, and a connection portion that connects the engagement pin and the decompression cam, wherein, when the decompression weight rotates against a biasing force of the decompression spring due to a centrifugal force, the decompression shaft rotates such that the decompression cam moves from an advanced position where the decompression cam protrudes from the cam surface to a retracted position where the decompression cam is retracted from the cam surface,