mhurhangee/patent-ind-claim-en huggingface dataset:
An arrangement for a gas turbine engine, comprising an electromechanical component and a firewall, a mechanical component of the electromechanical component being disposed at a first side of the firewall ; wherein: an electronic module of the electromechanical component is connected to the mechanical component by a module cable , the electronic module being inserted through a module opening in the firewall from the first side to a second side , the second side in operation having a lower operating temperature than the first side ; and a cover plate installed over the module opening after the electronic module is inserted therethrough. an electronic module of the electromechanical component is connected to the mechanical component by a module cable , the electronic module being inserted through a module opening in the firewall from the first side to a second side , the second side in operation having a lower operating temperature than the first side ; and a cover plate installed over the module opening after the electronic module is inserted therethrough.
A food processing device , comprising: a container for receiving an ingredient to be processed; a blending blade located in the container; a sensor for sensing characteristics of the ingredient received at the container; a processor for analyzing the characteristics and/or a communications system for sending the characteristics to a remote data processing resource for analyzing or further analyzing, wherein the analyzing is for identifying ingredient types for a plurality of added ingredients and for identifying a recipe consistent with the added ingredient types; and an output device for guiding a user to follow the remainder of the identified recipe, wherein the sensor comprises a weight sensor and wherein the characteristics of the ingredient comprise a response curve generated by the weight sensor, wherein the response curve represents the weight detected by the weight sensor over time from receiving the ingredient at the container until equilibrium in the detected weight is reached, wherein the response curve includes oscillations in the detected weight of the ingredient between receiving the ingredient at the container and equilibrium in the detected weight being reached, and wherein identifying the ingredient types comprises analyzing the oscillations in the detected weight of the ingredient. a container for receiving an ingredient to be processed; a blending blade located in the container; a sensor for sensing characteristics of the ingredient received at the container; a processor for analyzing the characteristics and/or a communications system for sending the characteristics to a remote data processing resource for analyzing or further analyzing, wherein the analyzing is for identifying ingredient types for a plurality of added ingredients and for identifying a recipe consistent with the added ingredient types; and an output device for guiding a user to follow the remainder of the identified recipe, wherein the sensor comprises a weight sensor and wherein the characteristics of the ingredient comprise a response curve generated by the weight sensor, wherein the response curve represents the weight detected by the weight sensor over time from receiving the ingredient at the container until equilibrium in the detected weight is reached, wherein the response curve includes oscillations in the detected weight of the ingredient between receiving the ingredient at the container and equilibrium in the detected weight being reached, and wherein identifying the ingredient types comprises analyzing the oscillations in the detected weight of the ingredient.
A method of crosslinking a silicon carbide fiber precursor polymer , comprising: exposing a first portion of silicon carbide fiber precursor polymer provided on a platform to e-beam radiation from an e-beam radiation mechanism , wherein the platform comprises a drum-like base including a processing surface which carry the silicon carbide fiber precursor polymer ; translating at least one of the platform and the e-beam radiation with respect to the other and exposing a second portion of the silicon carbide fiber precursor polymer to e-beam radiation, wherein translating at least one of the platform and the e-beam radiation with respect to the other includes rotating the platform about an axis of rotation; and regulating the temperature of the platform to thereby prevent the temperature of the first and second portions (16A,B) of the silicon carbide fiber precursor polymer from reaching their softening point due to the e-beam radiation; and characterized in that the drum-like base forms a drum-like surface such that the processing surface is arcuate and extends, at least partially, about the axis of rotation, wherein the silicon carbide fiber precursor polymer is provided on the processing surface of the drum-like base of the platform by winding the silicon carbide fiber precursor polymer on the platform. exposing a first portion of silicon carbide fiber precursor polymer provided on a platform to e-beam radiation from an e-beam radiation mechanism , wherein the platform comprises a drum-like base including a processing surface which carry the silicon carbide fiber precursor polymer ; translating at least one of the platform and the e-beam radiation with respect to the other and exposing a second portion of the silicon carbide fiber precursor polymer to e-beam radiation, wherein translating at least one of the platform and the e-beam radiation with respect to the other includes rotating the platform about an axis of rotation; and regulating the temperature of the platform to thereby prevent the temperature of the first and second portions (16A,B) of the silicon carbide fiber precursor polymer from reaching their softening point due to the e-beam radiation; and characterized in that
A vacuum circuit breaker comprising: - a movable side contact and a fixed side contact which are arranged in the inside of a vacuum valve ; - a fixed side energization shaft to which the fixed side contact is fixed; - a movable side energization shaft to which the movable side contact is fixed; - an energization connection portion provided at a position where the movable side energization shaft protrudes from the vacuum valve ; and - a coupling body provided at the outside tip portion of the movable side energization shaft , - wherein the coupling body at the outside tip portion of the movable side energization shaft is coupled to an insulation operating rod , - wherein the energization connection portion includes: an energization contact surface formed along the shaft center direction of the movable side energization shaft at the position where the movable side energization shaft protrudes from the vacuum valve ; and a split terminal which crosses at right angle to the shaft center of the movable side energization shaft and is fastened by coming in contact with the energization contact surface , characterized in that the split terminal is connected by coming in contact with the energization contact surface and is formed so as to cover the outer peripheral portion of the coupling body . - a movable side contact and a fixed side contact which are arranged in the inside of a vacuum valve ; - a fixed side energization shaft to which the fixed side contact is fixed; - a movable side energization shaft to which the movable side contact is fixed; - an energization connection portion provided at a position where the movable side energization shaft protrudes from the vacuum valve ; and - a coupling body provided at the outside tip portion of the movable side energization shaft , - wherein the coupling body at the outside tip portion of the movable side energization shaft is coupled to an insulation operating rod , - wherein the energization connection portion includes: an energization contact surface formed along the shaft center direction of the movable side energization shaft at the position where the movable side energization shaft protrudes from the vacuum valve ; and a split terminal which crosses at right angle to the shaft center of the movable side energization shaft and is fastened by coming in contact with the energization contact surface , characterized in that the split terminal is connected by coming in contact with the energization contact surface and is formed so as to cover the outer peripheral portion of the coupling body . an energization contact surface formed along the shaft center direction of the movable side energization shaft at the position where the movable side energization shaft protrudes from the vacuum valve ; and a split terminal which crosses at right angle to the shaft center of the movable side energization shaft and is fastened by coming in contact with the energization contact surface , characterized in that the split terminal is connected by coming in contact with the energization contact surface and is formed so as to cover the outer peripheral portion of the coupling body .
Windscreen wiper motor with a motor housing of an electric motor being connectable with a transmission housing , the electric motor which comprises an anchor with a collector and a carbon brush holder plate working together with the collector , wherein the carbon brush holder plate has a guide element for a carbon brush , wherein the carbon brush is arranged in the guide element so as to be longitudinally displaceable in a longitudinal axis of the carbon brush , with a first end surface of the carbon brush which is designed to be in contact with the collector , with, opposite the first end surface , a second end surface , on which, in an operating position, a spring element is in spring-pretensioned contact in order to press the carbon brush in the direction of the collector , wherein the spring element , when the carbon brush holder is assembled, is in spring-pretensioned contact on a side surface of the carbon brush and presses the carbon brush against the guide element forming a frictional connection , so that the first end surface of the carbon brush is positioned at a distance from the collector and wherein an activation device is provided which interacts with the second end surface of the carbon brush and which in the case of contact and a relative movement between the activation device and the second end face is designed to displace the carbon brush in the guide element in the direction of the longitudinal axis so that the spring element comes into operative connection with the second end face of the carbon brush , characterised in that the activation device is designed as a component part of the transmission housing .
A communication device , comprising; a metal casing ; an antenna ; a tunable capacitor connected between the antenna and a side wall of the metal casing; wherein the side wall of the metal casing is configured to function as a radiating plane of the antenna; and a control unit configured to determine proximity of a user to the communication device and adjust the tunable capacitor to control a radiation pattern of the antenna based on the determined proximity. a metal casing ; an antenna ; a tunable capacitor connected between the antenna and a side wall of the metal casing; wherein the side wall of the metal casing is configured to function as a radiating plane of the antenna; and a control unit configured to determine proximity of a user to the communication device and adjust the tunable capacitor to control a radiation pattern of the antenna based on the determined proximity.
A vehicle driving simulator platform comprising a base element , a pivoting frame , arranged at the top of the base element, and pivotally attached to the base element, a first pivoting actuator attached to the base element and to the pivoting frame for causing the pivoting frame to pivot about a first horizontal axis, a first rotator pivotally attached to the pivoting frame and arranged on top of the pivoting frame , a second pivoting actuator attached to the pivoting frame and to the first rotator for causing the first rotator to pivot about a second horizontal axis, which is perpendicular to the first horizontal axis, and a vehicle compartment connection , which is attached to the first rotator, and thereby is rotatable about a centre axis of the first rotator .
An information processing apparatus that consumes resources of an amount that depends on how many libraries are open, locations of the libraries being described in a configuration file as class paths, the apparatus comprising: determining means for determining whether the number of libraries including classes used for an installed program is two or more; and integrating means for integrating, in a case where it is determined that the number of libraries is two or more, the libraries into integrated libraries of smaller number than the number of libraries before integration, wherein the information processing apparatus is configured to open the integrated libraries, characterized in that the integrating means is configured to extract classes from all libraries set in any class path of the class paths, which indicates library locations, in reverse order in which the libraries are described by the class path in the configuration file and in case a conflict occurs due to classes with the same name, overwriting the class file of a library extracted earlier with the class file of a library extracted later, compressing the extracted classes into an integrated library and adding the integrated library to the configuration file followed by deletion of the description of libraries other than the integrated library from the class path. determining means for determining whether the number of libraries including classes used for an installed program is two or more; and integrating means for integrating, in a case where it is determined that the number of libraries is two or more, the libraries into integrated libraries of smaller number than the number of libraries before integration, wherein the information processing apparatus is configured to open the integrated libraries, characterized in that the integrating means is configured to extract classes from all libraries set in any class path of the class paths, which indicates library locations, in reverse order in which the libraries are described by the class path in the configuration file and in case a conflict occurs due to classes with the same name, overwriting the class file of a library extracted earlier with the class file of a library extracted later, compressing the extracted classes into an integrated library and adding the integrated library to the configuration file followed by deletion of the description of libraries other than the integrated library from the class path.
Method for tactile interaction between a user and an electronic device , for example a smartphone or a tablet PC, having at least one processor for data processing and having a touch-sensitive user interface , wherein the device has a vibration device for producing a vibration, and wherein the user interface is designed to have a scanning device for generating a scan signal on the basis of a position of a touch on the user interface , wherein a vibration is produced at least in the user interface on the basis of a speed of a change of position of the touch on the user interface , wherein the speed of the change of position of the touch on the user interface is detected by virtue of a first position (P1) being determined at a first time (T1) and a second position (P2) being determined at a second time (T2) by means of the scanning device to generate the scan signal, characterized in that an ascertained value for the speed of the change of position is multiplied by a prescribed factor and is then converted into an interval duration by forming the reciprocal, wherein the timing between the first time (T1) and the second time (T2) is 10 milliseconds to 30 milliseconds, preferably 15 milliseconds to 25 milliseconds and particularly preferably 20 milliseconds.
A method comprising the steps: (a) running a tool string downhole in a casing in a well bore , the tool string including a casing cutter ; (b) passing a fluidised plugging material through the casing cutter; (c) depositing a quantity of the fluidised plugging material into the casing to form a plug ; (d) using the casing cutter to part an upper length of the casing from a lower length of the casing above the plug; and (e) pulling the upper length of casing out of the well on the same trip into the well bore. (a) running a tool string downhole in a casing in a well bore , the tool string including a casing cutter ; (b) passing a fluidised plugging material through the casing cutter; (c) depositing a quantity of the fluidised plugging material into the casing to form a plug ; (d) using the casing cutter to part an upper length of the casing from a lower length of the casing above the plug; and (e) pulling the upper length of casing out of the well on the same trip into the well bore.
A solid-state image sensor comprising: a logic circuit configured to process an analog signal; a pixel circuit configured to generate the analog signal by photoelectric conversion and output the analog signal to the logic circuit via a predetermined signal line (229-1,...,229-n); a negative capacitance circuit connected to the predetermined signal line (229-1,...,229-n); a current source connected to the predetermined signal line (229-1,...,229-n), characterized in that the negative capacitance circuit includes an inserted transistor (313, 321-1) that is inserted between the current source and the predetermined signal line (229-1,...,229-n), an amplifier including a pair of transistors connected in a cascode configuration between a power source (VDD) and a reference terminal, and a capacitor having one terminal connected to a junction of the pair of transistors and another terminal connected to a junction of the current source and the inserted transistor (313, 321-1), and a gate of the transistor connected to the power source (VDD) from among the pair of transistors is connected to the predetermined signal line (229-1,...,229-n). a logic circuit configured to process an analog signal; a pixel circuit configured to generate the analog signal by photoelectric conversion and output the analog signal to the logic circuit via a predetermined signal line (229-1,...,229-n); a negative capacitance circuit connected to the predetermined signal line (229-1,...,229-n); a current source connected to the predetermined signal line (229-1,...,229-n), characterized in that the negative capacitance circuit includes an inserted transistor (313, 321-1) that is inserted between the current source and the predetermined signal line (229-1,...,229-n), an amplifier including a pair of transistors connected in a cascode configuration between a power source (VDD) and a reference terminal, and a capacitor having one terminal connected to a junction of the pair of transistors and another terminal connected to a junction of the current source and the inserted transistor (313, 321-1), and a gate of the transistor connected to the power source (VDD) from among the pair of transistors is connected to the predetermined signal line (229-1,...,229-n).
An airfoil for a gas turbine engine , the airfoil comprising: an airfoil body extending between a platform and a tip , the airfoil body having a leading edge , a trailing edge , a pressure side , and a suction side ; a serpentine cavity formed within the airfoil body and having an up-pass serpentine cavity , a down-pass serpentine cavity , and a trailing edge cavity ; and a dead-end tip flag cavity extending in a direction between the leading edge and the trailing edge, the dead-end tip flag cavity arranged between the serpentine cavity and the tip, wherein the dead-end tip flag cavity ends at a dead-end wall located at a position between the leading edge and the trailing edge of the airfoil body, wherein the dead-end tip flag cavity is defined by an outer wall , an inner wall , and the dead-end wall , with the outer wall and the inner wall extending in a direction between the leading edge and the trailing edge and the dead-end wall extending in a direction between the platform and the tip , characterized by a squealer pocket arranged at the tip of the airfoil body, wherein the outer wall of the dead-end tip flag cavity forms a pocket surface of the squealer pocket, and at least one tip cooling hole formed within the outer wall and configured to enable fluid connection between the dead-end tip flag cavity and the squealer pocket . an airfoil body extending between a platform and a tip , the airfoil body having a leading edge , a trailing edge , a pressure side , and a suction side ; a serpentine cavity formed within the airfoil body and having an up-pass serpentine cavity , a down-pass serpentine cavity , and a trailing edge cavity ; and a dead-end tip flag cavity extending in a direction between the leading edge and the trailing edge, the dead-end tip flag cavity arranged between the serpentine cavity and the tip, wherein the dead-end tip flag cavity ends at a dead-end wall located at a position between the leading edge and the trailing edge of the airfoil body, wherein the dead-end tip flag cavity is defined by an outer wall , an inner wall , and the dead-end wall , with the outer wall and the inner wall extending in a direction between the leading edge and the trailing edge and the dead-end wall extending in a direction between the platform and the tip , characterized by a squealer pocket arranged at the tip of the airfoil body, wherein the outer wall of the dead-end tip flag cavity forms a pocket surface of the squealer pocket, and at least one tip cooling hole formed within the outer wall and configured to enable fluid connection between the dead-end tip flag cavity and the squealer pocket .
A method of applying a hydrophobic coating to a surface of a substrate, the method comprising the following steps: applying a coating composition to the surface by an application method selected from the group consisting of flowing, dipping, and spraying; and heating the coated surface at a cure temperature from about 300°C to about 600°C for a time from about 2 hours to about 48 hours; and wherein the coating composition comprises: a yttrium compound, an additive selected from the group consisting of a cerium compound and a dispersion of yttrium oxide nanoparticles, a water-soluble polymer, and a solvent solution of de-ionized water and a water-soluble alcohol. applying a coating composition to the surface by an application method selected from the group consisting of flowing, dipping, and spraying; and heating the coated surface at a cure temperature from about 300°C to about 600°C for a time from about 2 hours to about 48 hours; and wherein the coating composition comprises: a yttrium compound, an additive selected from the group consisting of a cerium compound and a dispersion of yttrium oxide nanoparticles, a water-soluble polymer, and a solvent solution of de-ionized water and a water-soluble alcohol. a yttrium compound, an additive selected from the group consisting of a cerium compound and a dispersion of yttrium oxide nanoparticles, a water-soluble polymer, and a solvent solution of de-ionized water and a water-soluble alcohol.