mhurhangee/ep-ind-claims huggingface dataset:
An apparatus (300, 400, 500, 600, 700) for acoustic measurement in a downhole environment comprising: a downhole tool (134, 204) having a body; a plurality of transmitters (302, 304) located on the body; a receiver located on the body at a distance from the plurality of transmitters (302, 304); and an attenuator integrally formed on the body between at least one of the plurality of transmitters (302, 304) and the receiver, characterized in that each of the plurality of transmitters (302, 304) is spaced at a different axial distance of the body, at least one of the plurality of transmitters (302, 304) is located on the attenuator section of the body, and at least another of the plurality of transmitters (302, 304) comprises a plurality of azimuthally spaced acoustic driver elements (630, 728, 730) and wherein each of the acoustic driver elements (630, 728, 730) is coupled to a respective one of a plurality of extended blocks of the body; characterized in that the plurality of extended blocks extend radially outward from the body to allow the acoustic driver elements (630, 728, 730) to excite a borehole at positions close to a borehole wall and wherein the plurality of extended blocks permit, therebetween, mud communication with the receiver and the at least one of the plurality of transmitters (302, 304) located on the attenuator section. a downhole tool (134, 204) having a body; a plurality of transmitters (302, 304) located on the body; a receiver located on the body at a distance from the plurality of transmitters (302, 304); and an attenuator integrally formed on the body between at least one of the plurality of transmitters (302, 304) and the receiver, characterized in that each of the plurality of transmitters (302, 304) is spaced at a different axial distance of the body, at least one of the plurality of transmitters (302, 304) is located on the attenuator section of the body, and at least another of the plurality of transmitters (302, 304) comprises a plurality of azimuthally spaced acoustic driver elements (630, 728, 730) and wherein each of the acoustic driver elements (630, 728, 730) is coupled to a respective one of a plurality of extended blocks of the body;
Method for measuring an electrical current delivered from a vehicle battery and conducted via an electrical measuring resistor, comprising: - recording an electrical measurement voltage dropped across the measuring resistor; the method characterized by - determining a temperature difference between two temperature points (47, 49) which are spatially at a distance in the direction of flow of the electrical current and between which at least one part of the electrical measuring resistor lies; and - determining the electrical current based on the recorded electrical measurement voltage and the determined temperature difference. - recording an electrical measurement voltage dropped across the measuring resistor; the method characterized by - determining a temperature difference between two temperature points (47, 49) which are spatially at a distance in the direction of flow of the electrical current and between which at least one part of the electrical measuring resistor lies; and - determining the electrical current based on the recorded electrical measurement voltage and the determined temperature difference.
A method of fabricating a high-voltage field-effect transistor comprising the steps of: (a) forming a well region (17, 123) of a first conductivity type in a substrate (16, 121) of a second conductivity type, the well region having a laterally extended portion with a lateral boundary; (b) successively implanting by high energy ion implantation in a plurality of K implantation steps a dopant of the second conductivity type into the substrate (16, 121) to form a plurality of K buried layers (60, 150) within the laterally extended portion of the well region, each successive implant being performed at a different energy such that the plurality of K buried layers (60, 150) are spaced-apart from one another thereby creating an associated plurality of K JFET channels (41, 160) within the well region, wherein an uppermost buried layer of the plurality of buried layers is contiguous with a surface of the substrate; (c) forming a gate insulated from the substrate (16, 121) by a gate oxide layer (36, 170), the gate extending over the substrate (16, 121) adjacent the well region (17, 123); (d) forming a source diffusion region (14, 128) in the substrate (16, 121) spaced-apart from the well region (17, 123), a channel region being formed between the source diffusion region (14, 128) and the well region (17, 123) under the gate; and (e) forming a drain diffusion region (19, 131) in the well region (17, 123). (a) forming a well region (17, 123) of a first conductivity type in a substrate (16, 121) of a second conductivity type, the well region having a laterally extended portion with a lateral boundary; (b) successively implanting by high energy ion implantation in a plurality of K implantation steps a dopant of the second conductivity type into the substrate (16, 121) to form a plurality of K buried layers (60, 150) within the laterally extended portion of the well region, each successive implant being performed at a different energy such that the plurality of K buried layers (60, 150) are spaced-apart from one another thereby creating an associated plurality of K JFET channels (41, 160) within the well region, wherein an uppermost buried layer of the plurality of buried layers is contiguous with a surface of the substrate; (c) forming a gate insulated from the substrate (16, 121) by a gate oxide layer (36, 170), the gate extending over the substrate (16, 121) adjacent the well region (17, 123); (d) forming a source diffusion region (14, 128) in the substrate (16, 121) spaced-apart from the well region (17, 123), a channel region being formed between the source diffusion region (14, 128) and the well region (17, 123) under the gate; and (e) forming a drain diffusion region (19, 131) in the well region (17, 123).
A zeolite having a CHA structure, the zeolite having a SiO 2 /Al 2 O 3 composition ratio which is a molar ratio of 5 to 14.9 and an average particle size of 0.1 to 0.5 μm, wherein Cu in an amount of 3.5 to 6.0% by mass of the zeolite is supported on the zeolite.
Packaging facility comprising a thermo-forming packaging machine which comprises a forming station, a loading stretch, a sealing station and a package separation device successively arranged in a direction of production, characterized in that a folding device is provided to fold a folding package about a fold line, and that a latching device is successively arranged downstream in said direction of production of said folding device, where said latching device is configured such that a first closure element being provided on a first package half of said folding package can be brought to interact with a second closure element of a second package half of said folding package such that said folding package is held together in a folded state, wherein said latching device comprises a latching unit for pressing ends (26a, 26b) of said first closure element and said latching unit comprises one latching pin for each end (26a, 26b) of said first closure element.
Method for the production of three-dimensional silk products, wherein a three-dimensional silk product is treated with a silk solvent for a limited period of time so that a partial disintegration of the silk product is obtained whereafter the partially disintegrated silk product is re-stabilised with physical β-sheet induction, by treatment with a re-stabilising solution, wherein the re-stabilising solution is formic acid, preferably 90 to 100% formic acid, especially 97 to 99% formic acid.
A method of precoding signals transmitted on a downlink from a base station to a plurality of user terminals (UE1, UE2, UE3,...) in a multi-user MIMO wireless communication system using a set of multiple subcarriers arranged in plural subsets of said set of multiple subcarriers, wherein said precoding involves acquiring channel state information on the connection channel between said base station and said user terminals in said plurality of user terminals (UE1, UE2, UE3,...), the method including: - detecting with the user terminals of said plurality of user terminals (UE1, UE2, UE3,...) channel quality indicators for respective subsets of said set of multiple subcarriers, by associating to each channel quality indicator a respective subset of said set of multiple subcarriers for which the channel quality indicator has been detected, - creating user/subset pairs having associated channel quality indicators, characterised by further comprising: - subjecting said user/subset pairs to selection as a function of the channel quality indicators associated therewith, - acquiring channel state information on the user/subset pairs resulting from said selection, and - performing said precoding using said channel state information. - detecting with the user terminals of said plurality of user terminals (UE1, UE2, UE3,...) channel quality indicators for respective subsets of said set of multiple subcarriers, by associating to each channel quality indicator a respective subset of said set of multiple subcarriers for which the channel quality indicator has been detected, - creating user/subset pairs having associated channel quality indicators, - subjecting said user/subset pairs to selection as a function of the channel quality indicators associated therewith, - acquiring channel state information on the user/subset pairs resulting from said selection, and - performing said precoding using said channel state information.
A computer-implemented method of generating function-level instructions for a managed server of a plurality of managed servers (130A, 130B) according to a communication policy that comprises a set of one or more rules, wherein - the managed servers communicate with user devices, - the managed servers processes services that execute on a specific network port using a specific network protocol, and - the rules of the communication policy identify relationships between the managed servers and the user devices, the method using a global manager, the method comprising: by the global manager, identifying a traffic midpoint device through which a particular managed server of the plurality of managed servers (130A, 130B) provides a particular service to a particular user device; by a relevant rules module that is part of the global manager, determining (520, 1430) a relevant rule from the set of one or more rules, wherein the relevant rule specifies the particular service and that is applicable to communication between the managed server and the user device; by the relevant rules module, generating, based on the relevant rule, a rule that specifies the service and that is applicable to communication between the managed server and the traffic midpoint device; by a function-level instruction generation module that is part of the global manager, generating (1450, 540), based on the generated rule, a function-level instruction including a reference to the traffic midpoint device; and by the function-level instruction generation module, sending the function-level instruction to the managed server to configure the managed server to enforce the generated rule on communication with the traffic midpoint device. - the managed servers communicate with user devices, - the managed servers processes services that execute on a specific network port using a specific network protocol, and - the rules of the communication policy identify relationships between the managed servers and the user devices, by the global manager, identifying a traffic midpoint device through which a particular managed server of the plurality of managed servers (130A, 130B) provides a particular service to a particular user device; by a relevant rules module that is part of the global manager, determining (520, 1430) a relevant rule from the set of one or more rules, wherein the relevant rule specifies the particular service and that is applicable to communication between the managed server and the user device; by the relevant rules module, generating, based on the relevant rule, a rule that specifies the service and that is applicable to communication between the managed server and the traffic midpoint device; by a function-level instruction generation module that is part of the global manager, generating (1450, 540), based on the generated rule, a function-level instruction including a reference to the traffic midpoint device; and by the function-level instruction generation module, sending the function-level instruction to the managed server to configure the managed server to enforce the generated rule on communication with the traffic midpoint device.
A liquid containing member, comprising: a liquid containing portion that at least partially has a flexible portion; and a liquid outlet portion that is in communication with an internal portion of the liquid containing portion; characterised in that the internal portion of the liquid containing portion is provided with a channel forming member, one of the ends of which is connected to the liquid outlet portion, and the other end of which extends in the liquid containing portion to the side opposite from the side where the liquid outlet portion is formed, the liquid containing member is an ink containing member for water-based ink, and at least the other end of the channel forming member is made of a material having a specific gravity larger than 1. a liquid containing portion that at least partially has a flexible portion; and a liquid outlet portion that is in communication with an internal portion of the liquid containing portion; characterised in that the internal portion of the liquid containing portion is provided with a channel forming member, one of the ends of which is connected to the liquid outlet portion, and the other end of which extends in the liquid containing portion to the side opposite from the side where the liquid outlet portion is formed, the liquid containing member is an ink containing member for water-based ink, and at least the other end of the channel forming member is made of a material having a specific gravity larger than 1.
A vehicle comprising: a vehicle body provided with three or more wheels (11, 12, 13), including a pair of steered wheels (11, 12) that are spaced apart from each other in the width direction; an input member that inputs a turning direction and a steering member that steers the steered wheels (11, 12), an inclination angle detection part that detects an inclination angle of the vehicle body about a roll axis thereof; and a torque applying part that applies a steering torque to the steered wheels (11, 12) in accordance with an inclination angular velocity or an inclination angular acceleration of the vehicle body calculated from the inclination angle, characterized in that the torque applying part adjusts a steering angle direction of the steered wheels (11, 12) and/or a steering operation speed in accordance with the inclination angular velocity of the vehicle body, the torque applying part applies a steering torque in the same direction as the direction of the inclination angular velocity of the vehicle body, and the input member and the steering member are mechanically completely separated from each other. a vehicle body provided with three or more wheels (11, 12, 13), including a pair of steered wheels (11, 12) that are spaced apart from each other in the width direction; an input member that inputs a turning direction and a steering member that steers the steered wheels (11, 12), an inclination angle detection part that detects an inclination angle of the vehicle body about a roll axis thereof; and a torque applying part that applies a steering torque to the steered wheels (11, 12) in accordance with an inclination angular velocity or an inclination angular acceleration of the vehicle body calculated from the inclination angle, characterized in that the torque applying part adjusts a steering angle direction of the steered wheels (11, 12) and/or a steering operation speed in accordance with the inclination angular velocity of the vehicle body, the torque applying part applies a steering torque in the same direction as the direction of the inclination angular velocity of the vehicle body, and the input member and the steering member are mechanically completely separated from each other.
A motor comprising a control unit, wherein said control unit is provided on a shaft-direction end surface of said motor, and a terminal connector formed by connecting each phase of a motor-side terminal of said motor and a unit-side terminal of said control unit for said motor, wherein processing sites of a hole, or a recess machining, or a convex surface created by using any suitable machine processing method, or a bending, or a thinning are formed on at least one of said motor-side terminal and said unit-side terminal, wherein junction sites of said motor-side terminal and said unit-side terminal are formed on plural places positioned at said processing sites with a machine work by abutting said motor-side terminal and said unit-side terminal, thereby forming an electrical connection portion between contact surfaces of said motor-side terminal and said unit-side terminal, wherein abutted portions of said motor-side terminal and said unit-side terminal are extending along a motor diameter direction and a direction of a machining is a direction perpendicular to said motor diameter direction, wherein positions in said shaft direction of each junction site of each respective phases are different, in a stair-like manner, an electrical contact is formed as well as a retaining mechanism of said junction sites is formed, and said motor-side terminal and said unit-side terminal are covered with an insulating case.
A process for producing a toner for electrophotography, comprising: step 1: melt-mixing a mixture comprising a crystalline resin and ester wax having a dipentaerythritol unit as a constitutional component, wherein a difference |C mp -W mp | between a melting point C mp of the crystalline resin and a melting point W mp of the ester wax is 30°C or less; a difference (K t -C mp) between K t and C mp is 25°C or more and 50°C or less; and the melt-mixing is performed at a temperature K t that is the melting point C mp or more and the melting point W mp or more. step 1: melt-mixing a mixture comprising a crystalline resin and ester wax having a dipentaerythritol unit as a constitutional component, wherein a difference |C mp -W mp | between a melting point C mp of the crystalline resin and a melting point W mp of the ester wax is 30°C or less; a difference (K t -C mp) between K t and C mp is 25°C or more and 50°C or less; and the melt-mixing is performed at a temperature K t that is the melting point C mp or more and the melting point W mp or more.
A method of treating a plastic substrate to accept electroless plating thereon, the method comprising the steps of: a) etching a surface of the plastic substrate by contacting the plastic substrate with an acidic solution containing nitrate ions and oxidizing metal ions, wherein the oxidizing metal ions are produced by electrochemical oxidation, wherein the acidic solution comprises silver nitrate and nitric acid; b) contacting the etched plastic substrate with a conditioning solution comprising an aqueous solution comprising ammonia, an amine or combinations thereof; c) activating the plastic substrate comprising contacting the plastic substrate with an activation solution comprising palladium; and d) contacting the activated plastic substrate with an electroless metal plating solution to deposit metal thereon, wherein the electroless metal plating solution comprises electroless nickel. a) etching a surface of the plastic substrate by contacting the plastic substrate with an acidic solution containing nitrate ions and oxidizing metal ions, wherein the oxidizing metal ions are produced by electrochemical oxidation, wherein the acidic solution comprises silver nitrate and nitric acid; b) contacting the etched plastic substrate with a conditioning solution comprising an aqueous solution comprising ammonia, an amine or combinations thereof; c) activating the plastic substrate comprising contacting the plastic substrate with an activation solution comprising palladium; and d) contacting the activated plastic substrate with an electroless metal plating solution to deposit metal thereon, wherein the electroless metal plating solution comprises electroless nickel.
Frame profile, in particular for the construction of a lamp housing or clamping frame for thin-walled image carriers made of plastic films or textile materials, consisting of first and second frames having chambers and grooves (13, 14, 15) and being detachable fixed together via a clamping body, wherein the frames (10, 11) each have at their ends a perpendicular to their longitudinal axis lying end face, the second frame being connected to the first frame via the clamping body, which is arranged to be clamped and detached comprehensively crossing in a chamber of the second frame and a groove of the first frame, characterized in that the frame profile has additionally a corner connector which has a L-shaped roof surface with a short and a long leg and at least one groove wall underneath, the short leg covers the groove below the long leg and the groove wall completely outwards, wherein further for the connection of corner connector to the first frame a plug body as a part of the corner connectors is provided, the plug body is insertable completely into the chamber of this first frame, and wherein the respective end face of the first and second frame (10, 11) rests against an end face of the corner connector so that the outer surface of the short leg of the corner connector are flush with the respective outer surface of the first frame, and that the outer surface of the long leg of the corner connections are flush with the respective outer surface of the second frame, so that the against each other adjacent outer surfaces of the frame and the abutting corner connectors form a flat surface.