mhurhangee/patent-ind-claim-en huggingface dataset:
Method for generating a composition for paints, varnishes, printing inks, grinding resins, pigment concentrates or other coating materials, where the composition is generated by a computer system , where the computer system has access to a database , where known compositions are stored with their components and properties in the database, and where the computer system is connected to a facility for producing and testing compositions for paints, varnishes, printing inks, grinding resins, pigment concentrates or other coating materials, where the computer system comprises a convolutional neural network and an active learning module , comprising the following steps: a. use of known compositions stored in the database for training the convolutional neural network, where a loss function is minimized for the training, b. testing to determine whether the value of the loss function meets a specified criterion, where selectively, in the event that the criterion is not met, the following steps are carried out: i. selection of a trial composition from a quantity of specified trial compositions by the active learning module, ii. driving of the facility by the computer system for producing and testing the selected trial composition, iii. training of the convolutional neural network using the selected trial composition and the properties thereof captured by the facility, iv. repeated implementation of step b, c. generation of a forecast composition for paints, varnishes, printing inks, grinding resins, pigment concentrates or other coating materials by input of an input vector into the convolutional neural network, d. output of the forecast composition by the convolutional neural network . a. use of known compositions stored in the database for training the convolutional neural network, where a loss function is minimized for the training, b. testing to determine whether the value of the loss function meets a specified criterion, where selectively, in the event that the criterion is not met, the following steps are carried out: i. selection of a trial composition from a quantity of specified trial compositions by the active learning module, ii. driving of the facility by the computer system for producing and testing the selected trial composition, iii. training of the convolutional neural network using the selected trial composition and the properties thereof captured by the facility, iv. repeated implementation of step b, i. selection of a trial composition from a quantity of specified trial compositions by the active learning module, ii. driving of the facility by the computer system for producing and testing the selected trial composition, iii. training of the convolutional neural network using the selected trial composition and the properties thereof captured by the facility, iv. repeated implementation of step b, c. generation of a forecast composition for paints, varnishes, printing inks, grinding resins, pigment concentrates or other coating materials by input of an input vector into the convolutional neural network, d. output of the forecast composition by the convolutional neural network .
An electronic device for supporting carrier aggregation, the electronic device comprising: a radio frequency integrated circuit, RFIC, comprising a plurality of mixers (224-1, 224-2, ... 22-N) and a feedback circuit ; at least one antenna (250-1); a coupler disposed between the RFIC and the at least one antenna and transferring a reflected signal of a transmission signal to the feedback circuit ; and at least one processor operatively connected to the RFIC, wherein the at least one processor is configured to: identify whether there is a mixer which is not in use among the plurality of mixers, when a first mixer which is not in use among the plurality of mixers is identified, perform antenna impedance tuning through the first mixer and the feedback circuit, and when the plurality of mixers are all identified as in use, perform the antenna impedance tuning through a second mixer assigned to a secondary cell, Scell, among the plurality of mixers and the feedback circuit. a radio frequency integrated circuit, RFIC, comprising a plurality of mixers (224-1, 224-2, ... 22-N) and a feedback circuit ; at least one antenna (250-1); a coupler disposed between the RFIC and the at least one antenna and transferring a reflected signal of a transmission signal to the feedback circuit ; and at least one processor operatively connected to the RFIC, wherein the at least one processor is configured to: identify whether there is a mixer which is not in use among the plurality of mixers, when a first mixer which is not in use among the plurality of mixers is identified, perform antenna impedance tuning through the first mixer and the feedback circuit, and when the plurality of mixers are all identified as in use, perform the antenna impedance tuning through a second mixer assigned to a secondary cell, Scell, among the plurality of mixers and the feedback circuit. identify whether there is a mixer which is not in use among the plurality of mixers, when a first mixer which is not in use among the plurality of mixers is identified, perform antenna impedance tuning through the first mixer and the feedback circuit, and when the plurality of mixers are all identified as in use, perform the antenna impedance tuning through a second mixer assigned to a secondary cell, Scell, among the plurality of mixers and the feedback circuit.
A glass comprising in mole percent on an oxide basis: SiO 2 69-73, Al 2 O 3 12-14, B 2 O 3 0-3, MgO 4-7, CaO 5-6, SrO 3-4, and other oxides including Y 2 O 3 , ZrO 2 , and ZnO 0-1. SiO 2 69-73, Al 2 O 3 12-14, B 2 O 3 0-3, MgO 4-7, CaO 5-6, SrO 3-4,
Connection device (2; 102; 202) for gas appliance, comprising: a valve pusher configured to be moved between a retracted position in which the valve pusher is retracted for closing a flap of a valve of a gas cartridge and an extended position in which the valve pusher is extended for pushing back the flap of the valve of the gas cartridge and for thus opening the flap of the valve of the gas cartridge ; and a first control member configured to be moved between a closing position in which the first control member moves the valve pusher into the retracted position and an opening position in which the first control member moves the valve pusher into the extended position. a valve pusher configured to be moved between a retracted position in which the valve pusher is retracted for closing a flap of a valve of a gas cartridge and an extended position in which the valve pusher is extended for pushing back the flap of the valve of the gas cartridge and for thus opening the flap of the valve of the gas cartridge ; and a first control member configured to be moved between a closing position in which the first control member moves the valve pusher into the retracted position and an opening position in which the first control member moves the valve pusher into the extended position.
A waterproof solenoid valve in which one or more solenoid valve main bodies including a valve member that switches a channel, an electromagnetically driving mechanism that drives the valve member , and one or more manual buttons capable of manually switching the valve member are mounted on a manifold with a waterproof structure and covered with a waterproof cover attached to the manifold in a liquidtight manner, wherein the waterproof cover includes, at a portion covering the manual button of the solenoid valve main body , an operation unit for pressing the manual button in a direction of a central axis (L), wherein the operation unit includes a cap with flexibility attached to the waterproof cover in a liquidtight manner, and one or more operation pins inserted in a guide hole of a pin guide so as to be displaceable in the direction of the central axis (L), wherein the cap includes a hollow body and a head that covers one end of the body , and a flexible pressing portion elastically deformed at a pressing operation is formed in the head , and wherein one end of the operation pin is in contact with or close to the pressing portion of the cap , and another end of the operation pin is in contact with the manual button , wherein the pin guide is interposed between the cap and the solenoid valve main body , and in that the pin guide is fitted in the body of the cap and engages with the body , wherein the pin guide includes a first guide that is press-fitted in the body and a second guide connecting to the first guide , wherein an outside diameter of the second guide is larger than an outside diameter of the first guide , wherein the guide hole passes through the first guide and the second guide , wherein the first guide has a locking groove around its outer periphery, and wherein part of the body of the cap is fitted and retained in the locking groove . wherein the waterproof cover includes, at a portion covering the manual button of the solenoid valve main body , an operation unit for pressing the manual button in a direction of a central axis (L), wherein the operation unit includes a cap with flexibility attached to the waterproof cover in a liquidtight manner, and one or more operation pins inserted in a guide hole of a pin guide so as to be displaceable in the direction of the central axis (L), wherein the cap includes a hollow body and a head that covers one end of the body , and a flexible pressing portion elastically deformed at a pressing operation is formed in the head , and wherein one end of the operation pin is in contact with or close to the pressing portion of the cap , and another end of the operation pin is in contact with the manual button , wherein the pin guide is interposed between the cap and the solenoid valve main body , and in that the pin guide is fitted in the body of the cap and engages with the body ,
A method of detecting a change in a parameter of interest incident along the length of an optical fiber sensor deployed in a region of interest, comprising: providing a first optical signal output by a narrowband optical source in a first optical path and a second optical signal output by the narrowband optical source in a second optical path ; modulating the first optical signal to generate a plurality of probe pulses; launching the probe pulses into an optical fiber sensor deployed in a region of interest, the optical fiber sensor configured to respond along its length to a parameter of interest; mixing Rayleigh backscatter signals generated by the optical fiber sensor in response to probe pulses with the second optical signal to generate intermediate frequency, hereby referred as IF, signals; the method being characterized in that it further comprises: determining phase of the IF signals at a plurality of locations along the optical fiber sensor; and detecting a change in the parameter of interest along the length of the optical fiber sensor based on differences in the determined phases across a selected interval between the plurality of locations. providing a first optical signal output by a narrowband optical source in a first optical path and a second optical signal output by the narrowband optical source in a second optical path ; modulating the first optical signal to generate a plurality of probe pulses; launching the probe pulses into an optical fiber sensor deployed in a region of interest, the optical fiber sensor configured to respond along its length to a parameter of interest; mixing Rayleigh backscatter signals generated by the optical fiber sensor in response to probe pulses with the second optical signal to generate intermediate frequency, hereby referred as IF, signals; the method being characterized in that it further comprises: determining phase of the IF signals at a plurality of locations along the optical fiber sensor; and detecting a change in the parameter of interest along the length of the optical fiber sensor based on differences in the determined phases across a selected interval between the plurality of locations. determining phase of the IF signals at a plurality of locations along the optical fiber sensor; and detecting a change in the parameter of interest along the length of the optical fiber sensor based on differences in the determined phases across a selected interval between the plurality of locations.
A method for producing an electrode catalyst, the method comprising: a dispersion preparation step of mixing (i) at least one solvent selected from the group consisting of sulfoxide compounds and amide compounds, (ii) a catalyst support powder comprising a metal oxide, (iii) a platinum compound, and (iv) a transition metal compound, to thereby prepare a dispersion; a supporting step of heating the dispersion, to thereby support a platinum alloy of platinum and the transition metal on the catalyst support powder; a solid-liquid separation step of separating a dispersoid from the dispersion after the supporting step, to thereby obtain a catalyst powder comprising the catalyst support powder and the platinum alloy supported thereon; and a heat treatment step of heating the catalyst powder under vacuum or in a reducing gas atmosphere; wherein the heat treatment step is performed under vacuum at a temperature equal to or higher than the heating temperature of the supporting step; and wherein the heat treatment step is performed in a reducing gas atmosphere at a temperature below 200°C. a dispersion preparation step of mixing (i) at least one solvent selected from the group consisting of sulfoxide compounds and amide compounds, (ii) a catalyst support powder comprising a metal oxide, (iii) a platinum compound, and (iv) a transition metal compound, to thereby prepare a dispersion; a supporting step of heating the dispersion, to thereby support a platinum alloy of platinum and the transition metal on the catalyst support powder; a solid-liquid separation step of separating a dispersoid from the dispersion after the supporting step, to thereby obtain a catalyst powder comprising the catalyst support powder and the platinum alloy supported thereon; and a heat treatment step of heating the catalyst powder under vacuum or in a reducing gas atmosphere;
A powered vehicle including a spring-applied hydraulic release (SAHR) vehicle brake comprising first and second mutually engageable brake elements the first of which is secured to or forms part of a rotatable element of the drive train of the vehicle and the second of which is non-rotatably moveably mounted on the vehicle such that the first and second elements are mutually engageable with and separable from one another, mutual engagement of the brake elements causing braking of rotation of the rotatable element, the SAHR vehicle brake including (i) a resiliently deformable member acting on the second brake element so as to urge the first and second brake elements into mutual engagement and (ii) a hydraulic control circuit for applying hydraulic pressure to the second brake element so as to oppose the action of the resiliently deformable member and thereby normally maintain the first and second brake elements separated from one another, wherein the vehicle includes a hydraulic release valve that is alterable between a one-way valve configuration that permits the application of pressure to the second brake element and prevents venting thereof; and a pressure relief configuration that provides two-way flow of hydraulic fluid via the hydraulic release valve , the hydraulic release valve including a biasser , characterised in that the hydraulic release valve is part of a non-electric fail-safe of the vehicle, in that the one-way valve configuration is effective when a driving mode of the vehicle is selected, and by having said biasser biasing the hydraulic release valve to the one-way valve configuration.
Connection system for electronic components comprising a plurality of insulating layers and conductive layers and further comprising at least one embedded electronic component embedded within at least one of the plurality of insulating layers and conductive layers , characterized in that the at least one embedded electronic component is at least one first transistor having a bulk terminal thereof in thermal contact with a thermal duct formed by a plurality of thermal vias , wherein said bulk terminal thereof is connected by said plurality of thermal vias and wherein said plurality of thermal vias reaching through at least one of an insulating layer and a conductive layer of the connection system for electronic components and emerging on a first outer surface of the connection system for electronic components under a first surface-mounted electronic component , which plurality of thermal vias are adapted to guide heat from the at least one first transistor to the first surface-mounted electronic component so that the heat guided away from the embedded component by the thermal duct is distributed on the first outer surface and is conveyed into the first surface mounted component , wherein the first surface-mounted component is an antiferroelectric capacitor and is adapted to absorb and dissipate the heat energy, and the connection system for electronic components further comprises an embedded electronic component in form of at least one second transistor arranged opposite the first transistor relative to a central insulating layer of the connection system for electronic components and having a bulk terminal thereof connected by a plurality of thermal vias to at least one second surface-mounted electronic component arranged on a second outer surface of the connection system for electronic components opposite the first outer surface , wherein the second surface-mounted electronic component is an integrated circuit adapted to drive the at least one first and second transistors, and wherein the second surface-mounted electronic component absorbs and dissipates the heat energy that is conveyed by the thermal duct from the at least one second transistor into the second surface mounted component .
A device for receiving at least one consignment of a letter or a parcel and/or a shipment of goods, in particular a letter box , comprising a housing , a receiving space formed in the housing , which receiving space is accessible via an opening of the housing , wherein the opening can be closed by means of a door , wherein the door can be pivoted between a closed position and an open position by means of at least one hinge , wherein the hinge is composed of metal strips corresponding to each other and being integrally formed with the housing and/or the door , wherein the door is limited with respect to the motion path thereof and/or the movement speed thereof in at least a part of the motion path by means of an essentially rod-shaped dampening element that can be moved with the door in a translational manner with respect to the housing , which dampening element is arranged on the housing, on the one hand, and on the door , on the other hand, characterized in that a first metal strip of the hinge is formed into a roll and a second metal strip corresponding to this one is formed into a bracket , and wherein at least one roll and at least one bracket comprise openings that correspond to each other for passing a hinge pin therethrough.
A double wing gate comprising: - a lock gate wing and a striker gate wing , each gate wing having an outer rectangular frame which is constructed from a plurality of tubular members including an upper member , a lower member , a post member , and a latch member ; - a lock inserted in the latch member of the lock gate wing, the latch member of the lock gate comprising an elongated opening through which the lock can be inserted, the lock comprising a face plate which covers said elongated opening; - a lock handle assembly and lock key cylinder inserted through the latch member of the lock gate and the lock, the latch member of the lock gate comprising a first set of mutually opposing openings through which the lock handle assembly extends and a second set of mutually opposing openings through which the lock key cylinder extends; and - a striker assembly mounted to the latch member of the striker gate wing, characterized in that the latch member of the striker gate wing comprises an elongated opening , a first set of mutually opposing openings and a second set of mutually opposing openings which are identical to respective ones in the latch member of the lock gate wing with the striker assembly covering the elongated opening of the latch member of the striker gate wing and in that the double wing gate further comprises: - a first covering mounted on the latch member of the striker gate wing and covering one opening of said first set of mutually opposing openings and one opening of said second set of mutually opposing openings; and - a second covering mounted on the latch member of the striker gate wing and covering the other opening of said first set of mutually opposing openings and the other opening of said second set of mutually opposing openings. - a lock gate wing and a striker gate wing , each gate wing having an outer rectangular frame which is constructed from a plurality of tubular members including an upper member , a lower member , a post member , and a latch member ; - a lock inserted in the latch member of the lock gate wing, the latch member of the lock gate comprising an elongated opening through which the lock can be inserted, the lock comprising a face plate which covers said elongated opening; - a lock handle assembly and lock key cylinder inserted through the latch member of the lock gate and the lock, the latch member of the lock gate comprising a first set of mutually opposing openings through which the lock handle assembly extends and a second set of mutually opposing openings through which the lock key cylinder extends; and - a striker assembly mounted to the latch member of the striker gate wing, - a first covering mounted on the latch member of the striker gate wing and covering one opening of said first set of mutually opposing openings and one opening of said second set of mutually opposing openings; and - a second covering mounted on the latch member of the striker gate wing and covering the other opening of said first set of mutually opposing openings and the other opening of said second set of mutually opposing openings.
A gas turbine engine comprising: a fan nacelle and a core nacelle providing a bypass flow path radially between, the fan nacelle having an inlet including a throat , the inlet having an inlet forward-most point ; a fan arranged in the bypass flow path and rotatable about an axis (X), the fan having a leading edge recessed from the inlet forward-most point by an inlet length (L1) in an axial direction; a spinner having a spinner length (L2) from a spinner forward-most point to the leading edge ; a plane (B) at the throat ; and a fan hub supporting the fan , the spinner mounted on the fan hub forward of the fan , characterised in that : a ratio of the spinner length to the inlet length (L2/L1) is equal to or greater than about 0.5; at least a portion of the spinner is arranged forward of the plane (B); and the spinner forward-most point is arranged forward of the plane (B) and aft of a forward-most point of the inlet . a fan nacelle and a core nacelle providing a bypass flow path radially between, the fan nacelle having an inlet including a throat , the inlet having an inlet forward-most point ; a fan arranged in the bypass flow path and rotatable about an axis (X), the fan having a leading edge recessed from the inlet forward-most point by an inlet length (L1) in an axial direction; a spinner having a spinner length (L2) from a spinner forward-most point to the leading edge ; a plane (B) at the throat ; and a fan hub supporting the fan , the spinner mounted on the fan hub forward of the fan ,