mhurhangee/ep-ind-claims huggingface dataset:
Operating device for the manual movement of a robot arm, comprising - a controller which is configured to generate signals for controlling a movement of at least one robot arm (M1-M3) provided for treating a living being, and - at least one manual mechanical input device (E1-E3) coupled to the controller, which input device comprises an axis, a lever mounted to move rotatably about the axis and/or along the axis, wherein the controller produces the signals on the basis of a manual movement of the input device (EI-E3) so that the robot arm (M1-M3) performs a movement corresponding to the manual movement, characterised in that the input device (E1, E2) comprises at least one mechanical damping device, which during a manual movement of the input device (E1, E2) produces a force and/or a torque for at least partly suppressing a partial movement resulting from a tremor of the person operating the input device (E1, E2), and the input device (E1, E2) comprises an electric motor for this, which is configured during a manual movement of the lever along the axis to produce the force directed against said manual movement on the lever and/or during a manual movement of the lever about the axis to produce the torque directed against said manual movement on the lever. - a controller which is configured to generate signals for controlling a movement of at least one robot arm (M1-M3) provided for treating a living being, and - at least one manual mechanical input device (E1-E3) coupled to the controller, which input device comprises an axis, a lever mounted to move rotatably about the axis and/or along the axis, wherein the controller produces the signals on the basis of a manual movement of the input device (EI-E3) so that the robot arm (M1-M3) performs a movement corresponding to the manual movement, characterised in that the input device (E1, E2) comprises at least one mechanical damping device, which during a manual movement of the input device (E1, E2) produces a force and/or a torque for at least partly suppressing a partial movement resulting from a tremor of the person operating the input device (E1, E2), and the input device (E1, E2) comprises an electric motor for this, which is configured during a manual movement of the lever along the axis to produce the force directed against said manual movement on the lever and/or during a manual movement of the lever about the axis to produce the torque directed against said manual movement on the lever.
A process comprising the following steps: (a) centrifuging a microorganism-containing suspension to provide a first microorganism-containing concentrate and a supernatant liquid; (b) filtering said first microorganism-containing concentrate, to provide a permeate and a second microorganism-containing concentrate. (a) centrifuging a microorganism-containing suspension to provide a first microorganism-containing concentrate and a supernatant liquid; (b) filtering said first microorganism-containing concentrate, to provide a permeate and a second microorganism-containing concentrate.
An adhesive composition containing an organic-solvent-soluble polyimide, an epoxy resin and a thermally conductive filler, an organic-solvent-soluble polyimide containing a structure represented by the following general formula as a component derived from a diamine, and the content of a thermally conductive filler in the adhesive composition being not less than 60% by volume, the thermally conductive filler includes two or more fillers differing in the average particle diameter and contains at least a filler with an average particle diameter of 6 μm or more and 15 μm or less and a filler with an average particle diameter of 30 μm or more, the content of the thermally conductive filler with an average particle diameter of 30 μm or more is not less than 10% by volume and not more than 35% by volume, and the average particle diameter is measured by a method of directly observing the particles with a SEM (scanning electron microscope) or a TEM (transmission electron microscope) and calculating a number average of particle diameter wherein in general formula, X represents an integer of 1 to 10 inclusive and n represents an integer of 1 to 20 inclusive.
An electrode tip for sensing bioelectrical potential, comprising: an electrode tip body; electrode arms coupled to the electrode tip body; and electrode legs coupled to the electrode arms, wherein the electrode legs have a non-biased configuration and a splayed configuration, wherein the electrode legs are configured to translate into the splayed configuration when a compressive force is applied to the electrode tip body and the one or more electrode legs, wherein each of the electrode legs has a leg longitudinal axis, and wherein the leg longitudinal axes of the electrode legs are substantially non-parallel to one another when the electrode legs are in the splayed configuration, characterized in that the leg longitudinal axes of the electrode legs are substantially parallel to one another when the electrode legs are in the non-biased configuration. an electrode tip body; electrode arms coupled to the electrode tip body; and electrode legs coupled to the electrode arms, wherein the electrode legs have a non-biased configuration and a splayed configuration, wherein the electrode legs are configured to translate into the splayed configuration when a compressive force is applied to the electrode tip body and the one or more electrode legs, wherein each of the electrode legs has a leg longitudinal axis, and wherein the leg longitudinal axes of the electrode legs are substantially non-parallel to one another when the electrode legs are in the splayed configuration, wherein the electrode legs have a non-biased configuration and a splayed configuration, wherein the electrode legs are configured to translate into the splayed configuration when a compressive force is applied to the electrode tip body and the one or more electrode legs, wherein each of the electrode legs has a leg longitudinal axis, and wherein the leg longitudinal axes of the electrode legs are substantially non-parallel to one another when the electrode legs are in the splayed configuration, characterized in that the leg longitudinal axes of the electrode legs are substantially parallel to one another when the electrode legs are in the non-biased configuration.
A wireless subwoofer for use in a surround sound system, the wireless subwoofer comprising: a receiver for wirelessly receiving a signal including both subwoofer and surround components; and an extractor for extracting the subwoofer component from the received signal to drive the subwoofer; wherein the subwoofer is adapted to provide the surround component and power to a surround speaker (148 or 150) to drive the surround speaker (148 or 150). a receiver for wirelessly receiving a signal including both subwoofer and surround components; and an extractor for extracting the subwoofer component from the received signal to drive the subwoofer; wherein the subwoofer is adapted to provide the surround component and power to a surround speaker (148 or 150) to drive the surround speaker (148 or 150).
A method for reading a physical characteristic on an object, characterized in that it comprises: - a step (240, 315, 405) of capturing a first image of at least one portion of said object, with a first resolution; - a step (245, 320, 415, 420) of determining the position of an area of the object to be processed, as a function of said first image, which comprises: - a step of determining at least one position of a printed mark, wherein a request is sent to a database, said request comprising positions of characteristic points and/or lines of the object, said characteristic points and/or lines being extracted from the first image, and an item of information is received in return from the database, with the shape of the object and the position of each printed mark in said shape of the object; - a step of capturing an image of at least one said mark; and - a step of reading an item of information represented by said mark and representative of the position of the area to be processed; - a step (255, 330, 430) of capturing a second image of said object area to be processed, with a second resolution, higher than said first resolution; and - a step (260, 335, 440) of determining said physical characteristic as a function of said second image. - a step (240, 315, 405) of capturing a first image of at least one portion of said object, with a first resolution; - a step (245, 320, 415, 420) of determining the position of an area of the object to be processed, as a function of said first image, which comprises: - a step of determining at least one position of a printed mark, wherein a request is sent to a database, said request comprising positions of characteristic points and/or lines of the object, said characteristic points and/or lines being extracted from the first image, and an item of information is received in return from the database, with the shape of the object and the position of each printed mark in said shape of the object; - a step of capturing an image of at least one said mark; and - a step of reading an item of information represented by said mark and representative of the position of the area to be processed; - a step of determining at least one position of a printed mark, wherein a request is sent to a database, said request comprising positions of characteristic points and/or lines of the object, said characteristic points and/or lines being extracted from the first image, and an item of information is received in return from the database, with the shape of the object and the position of each printed mark in said shape of the object; - a step of capturing an image of at least one said mark; and - a step of reading an item of information represented by said mark and representative of the position of the area to be processed; - a step (255, 330, 430) of capturing a second image of said object area to be processed, with a second resolution, higher than said first resolution; and - a step (260, 335, 440) of determining said physical characteristic as a function of said second image.
A control device for controlling a machine tool based on a machining program, characterized by: a program analyzing section configured to analyse the machining program which has been input; a process chart creating section configured to determine whether or not the machining program includes a tool changing command and/or a command for changing an angle of a surface to be machined, based on the results of the analysis conducted by the program analysing section, and to create a schedule by arranging the respective processes of the machining program in the execution sequence of the machining program, and to create a paragraph for each tool to be changed if a tool changing command is included and/or for each surface to be machined if a command for changing the angle of the machined surface is included; and a displaying section configured to display the schedule created by the process chart creating section. a program analyzing section configured to analyse the machining program which has been input; a process chart creating section configured to determine whether or not the machining program includes a tool changing command and/or a command for changing an angle of a surface to be machined, based on the results of the analysis conducted by the program analysing section, and to create a schedule by arranging the respective processes of the machining program in the execution sequence of the machining program, and to create a paragraph for each tool to be changed if a tool changing command is included and/or for each surface to be machined if a command for changing the angle of the machined surface is included; and a displaying section configured to display the schedule created by the process chart creating section.
A two-card assembly comprising: a first printed wiring board, PWB, on a first side of the two-card assembly; a first stiffener secured to the first PWB; a second PWB on a second side of the two-card assembly; a second stiffener secured to the second PWB; a center stiffener disposed between the first stiffener and the second stiffener, wherein the center stiffener is disposed in a slot that is formed within the second stiffener; and one or more electronic modules secured to the center stiffener, wherein the center stiffener dissipates heat from the one or more electronic modules, wherein the first PWB and the second PWB are stacked with the one or more electronic modules between them. a first printed wiring board, PWB, on a first side of the two-card assembly; a first stiffener secured to the first PWB; a second PWB on a second side of the two-card assembly; a second stiffener secured to the second PWB; a center stiffener disposed between the first stiffener and the second stiffener, wherein the center stiffener is disposed in a slot that is formed within the second stiffener; and one or more electronic modules secured to the center stiffener, wherein the center stiffener dissipates heat from the one or more electronic modules, wherein the first PWB and the second PWB are stacked with the one or more electronic modules between them.
A method for preparing a delayed release delivery system comprising at least one treated particle comprising a core particle having surface pores and a liquid absorbed therein, wherein a ratio of the weight of the liquid to the weight of the core particle is at least about 400:1, said method comprising: (a) providing the core particle; (b) contacting the core particle with the liquid under conditions sufficient for the liquid to be absorbed into the core particle in the weight ratio of the liquid to the core particle of at least about 400:1; and wherein the contacting conditions comprise applying a pressure of from about 100 psi [690 kPa] to about 1000 psi [6.9 MPa] for from about 30 minutes up to about 2 hours. (a) providing the core particle; (b) contacting the core particle with the liquid under conditions sufficient for the liquid to be absorbed into the core particle in the weight ratio of the liquid to the core particle of at least about 400:1; and
A valve timing control device in an internal combustion engine, the valve timing control device for controlling valve timing of at least one of an intake valve and an exhaust valve opened/closed by a cam shaft through torque transmission from a crank shaft, the valve timing control device comprising: an electric motor including a motor shaft, the electric motor generating a magnetic retaining torque (Th) and a motor torque (Tm) in the motor shaft based on a power supply supplied thereto; a control unit coupled to the electric motor and controlling the motor torque (Tm) by controlling the power supply supplied to the electric motor; and a phase control mechanism coupled to the cam shaft and the motor shaft, the phase control mechanism transmitting a cam torque (Tca) alternating between a positive and a negative direction in response to rotation of the cam shaft to the motor shaft and controlling a relative phase between the crank shaft and the cam shaft in accordance with a torque balance in the motor shaft, characterized in that the control unit includes: balancing means for balancing the motor torque (Tm) with the magnetic retaining torque (Th) and the cam torque (Tca) after a stop of the internal combustion engine; and eliminating means for eliminating the motor torque (Tm) that is balanced by the balancing means with the magnetic retaining torque (Th) and the cam torque (Tca). an electric motor including a motor shaft, the electric motor generating a magnetic retaining torque (Th) and a motor torque (Tm) in the motor shaft based on a power supply supplied thereto; a control unit coupled to the electric motor and controlling the motor torque (Tm) by controlling the power supply supplied to the electric motor; and a phase control mechanism coupled to the cam shaft and the motor shaft, the phase control mechanism transmitting a cam torque (Tca) alternating between a positive and a negative direction in response to rotation of the cam shaft to the motor shaft and controlling a relative phase between the crank shaft and the cam shaft in accordance with a torque balance in the motor shaft, balancing means for balancing the motor torque (Tm) with the magnetic retaining torque (Th) and the cam torque (Tca) after a stop of the internal combustion engine; and eliminating means for eliminating the motor torque (Tm) that is balanced by the balancing means with the magnetic retaining torque (Th) and the cam torque (Tca).
Dental implant, comprising: - an external thread arranged on an outside of the dental implant for fastening the dental implant to a jawbone; - an opening extending along a longitudinal axis of the dental implant, in which opening an internal thread for fastening a superstructure to the dental implant is arranged; and - an interface for fastening the superstructure to the dental implant, which interface is arranged at a front end of the dental implant; wherein the interface comprises a convex, rounded curvature extending around the longitudinal axis over an angular range of at least 90°, and a support surface disposed radially outwardly relative to the convex curvature, wherein the support surface has at least one annular portion oriented transversely to the longitudinal axis, characterized in that, in a longitudinal section along the longitudinal axis of the dental implant, a tangent to a radially outer edge of the convex curvature which faces the annular portion of the support surface is oriented parallel to the annular portion of the support surface, and in that at least a part of the convex curvature is arranged in the opening. - an external thread arranged on an outside of the dental implant for fastening the dental implant to a jawbone; - an opening extending along a longitudinal axis of the dental implant, in which opening an internal thread for fastening a superstructure to the dental implant is arranged; and - an interface for fastening the superstructure to the dental implant, which interface is arranged at a front end of the dental implant;
A method for informing a serving cell handover, comprising: setting up (12; 21), by a radio network controller, RNC, a radio link with a candidate cell, and setting configuration for the candidate cell during the process of setting up the radio link; sending (14; 22), by the RNC, configuration information of the candidate cell to a user equipment, UE; and informing (16; 23), by the RNC, after acquiring an optimum cell, through an Iub interface signaling message, a target base station of sending a serving cell handover instruction to the UE, wherein the serving cell handover instruction is used to instruct the UE to hand over to the optimum cell according to the configuration information, characterized in that the Iub interface signaling message comprises asynchronous mode indication information, a Shared Control Channel for High-Speed Downlink Shared Channel, HS-SCCH, channelized code, a Media Access Control entity, MAC-ehs, reset instruction and repeated times of HS-SCCH order; or the Iub interface signaling message comprises synchronous mode indication information, a value of active time Connection Frame Number, CFN, a HS-SCCH channelized code, a MAC-ehs reset instruction and repeated times of HS-SCCH order. setting up (12; 21), by a radio network controller, RNC, a radio link with a candidate cell, and setting configuration for the candidate cell during the process of setting up the radio link; sending (14; 22), by the RNC, configuration information of the candidate cell to a user equipment, UE; and informing (16; 23), by the RNC, after acquiring an optimum cell, through an Iub interface signaling message, a target base station of sending a serving cell handover instruction to the UE, wherein the serving cell handover instruction is used to instruct the UE to hand over to the optimum cell according to the configuration information, characterized in that the Iub interface signaling message comprises asynchronous mode indication information, a Shared Control Channel for High-Speed Downlink Shared Channel, HS-SCCH, channelized code, a Media Access Control entity, MAC-ehs, reset instruction and repeated times of HS-SCCH order; or the Iub interface signaling message comprises synchronous mode indication information, a value of active time Connection Frame Number, CFN, a HS-SCCH channelized code, a MAC-ehs reset instruction and repeated times of HS-SCCH order.
A medical device, comprising: a catheter shaft having an inner surface defining a lumen; a liner disposed within the lumen and along the inner surface; wherein at least a section of the liner is radially spaced from the inner surface of the catheter shaft so that a space is defined therebetween; wherein the liner includes an inner layer, an outer layer, and a polymeric reinforcing member; wherein at least a portion of the polymeric reinforcing member is disposed between an outer surface of the inner layer and an outer surface of the outer layer; wherein the polymeric reinforcing member has a melting temperature lower than the melting temperature of the inner layer and/or the outer layer; and wherein the polymeric reinforcing member is at least partially embedded within the outer layer of the liner. a catheter shaft having an inner surface defining a lumen; a liner disposed within the lumen and along the inner surface; wherein at least a section of the liner is radially spaced from the inner surface of the catheter shaft so that a space is defined therebetween; wherein the liner includes an inner layer, an outer layer, and a polymeric reinforcing member; wherein at least a portion of the polymeric reinforcing member is disposed between an outer surface of the inner layer and an outer surface of the outer layer; wherein the polymeric reinforcing member has a melting temperature lower than the melting temperature of the inner layer and/or the outer layer; and wherein the polymeric reinforcing member is at least partially embedded within the outer layer of the liner.
Method for monitoring a security-related system which is constructed at least from a plurality of layers with at least a hardware layer, an operating system layer and an application layer, having the following steps of: - transmitting a monitoring result (b) of a first process from a monitoring apparatus, which is provided for the purpose of monitoring the security-related system, to an apparatus which forms at least one part of the security-related system, the first process being determined from a set of processes stored in the monitoring apparatus; - evaluating the monitoring result (b) by means of a second process, the second process forming a process of the security-related system and being a process of the operating system layer; - calculating a processing result (a) on the basis of the monitoring result (b); and - checking the calculated processing result (a). - transmitting a monitoring result (b) of a first process from a monitoring apparatus, which is provided for the purpose of monitoring the security-related system, to an apparatus which forms at least one part of the security-related system, the first process being determined from a set of processes stored in the monitoring apparatus; - evaluating the monitoring result (b) by means of a second process, the second process forming a process of the security-related system and being a process of the operating system layer; - calculating a processing result (a) on the basis of the monitoring result (b); and - checking the calculated processing result (a).