mhurhangee/patent-ind-claim-en huggingface dataset:
An ink composition comprising: a solid component, which contains a functional layer forming material for forming at least one of a hole injection layer, a hole transport layer, a light-emitting layer, an electron transport layer and an electron injection layer of a functional layer in which the hole injection layer, the hole transport layer, the light emitting layer, the electron transport layer, and the electron injection layer are stacked in this order from a pixel electrode side, a hydrophobic solvent A, which contains at least one compound selected from diisopropylbenzene, cyclohexylbenzene, diphenyl ether, 3-phenoxytoluene, bis(dimethylphenyl)ethane, decane, undecane, dodecane, tridecane, tetradecane, pentadecane, and hexadecane, a hydrophilic solvent B, which contains at least one compound selected from diethylene glycol, triethylene glycol, dipropylene glycol, tetraethylene glycol, 1,2-ethanediol, 1,2-propanediol, 1,3-butanediol, 1,4-butanediol, 2,3-butanediol, 1,5-pentanediol, 2-methyl-2,4-pentanediol, 1,6-hexanediol, and 2-ethyl-1,3-hexanediol, and an amphiphilic solvent C, wherein the solvent C is a monohydric alcohol having 8 or more carbon atoms, the content ratio of the solvent C being 1 mass% or more. a solid component, which contains a functional layer forming material for forming at least one of a hole injection layer, a hole transport layer, a light-emitting layer, an electron transport layer and an electron injection layer of a functional layer in which the hole injection layer, the hole transport layer, the light emitting layer, the electron transport layer, and the electron injection layer are stacked in this order from a pixel electrode side, a hydrophobic solvent A, which contains at least one compound selected from diisopropylbenzene, cyclohexylbenzene, diphenyl ether, 3-phenoxytoluene, bis(dimethylphenyl)ethane, decane, undecane, dodecane, tridecane, tetradecane, pentadecane, and hexadecane, a hydrophilic solvent B, which contains at least one compound selected from diethylene glycol, triethylene glycol, dipropylene glycol, tetraethylene glycol, 1,2-ethanediol, 1,2-propanediol, 1,3-butanediol, 1,4-butanediol, 2,3-butanediol, 1,5-pentanediol, 2-methyl-2,4-pentanediol, 1,6-hexanediol, and 2-ethyl-1,3-hexanediol, and an amphiphilic solvent C, wherein the solvent C is a monohydric alcohol having 8 or more carbon atoms, the content ratio of the solvent C being 1 mass% or more.
A driving control system for a vehicle, comprising - a sensor unit , - a data storage unit , - a user communication means , and - a control unit, the sensor unit being arrangeable in a first vehicle and configured to generate at least one user-specific driving parameter of at least one user travelling with the first vehicle , the at least one user-specific driving parameter being based on a driver's driving behavior of the first vehicle , the user communication means being configured to receive an input of the user to store the at least one user-specific driving parameter in the data storage unit and activate the stored at least one user-specific driving parameter in a second vehicle to be occupied by the user, the control unit being configured to transmit the at least one user-specific driving parameter of the user from the data storage unit to the second vehicle , the control unit being configured to control the second vehicle based on the transmitted at least one user-specific driving parameter, the control unit further being configured to generate a user profile of the user based on the at least one user-specific driving parameter, the control unit being configured to transmit the at least one user-specific driving parameter only if the user activates the at least one user-specific driving parameter in the second vehicle , and the user communication means being executable by a mobile application integrated in a mobile device of the user. - a sensor unit , - a data storage unit , - a user communication means , and - a control unit, the sensor unit being arrangeable in a first vehicle and configured to generate at least one user-specific driving parameter of at least one user travelling with the first vehicle , the at least one user-specific driving parameter being based on a driver's driving behavior of the first vehicle , the user communication means being configured to receive an input of the user to store the at least one user-specific driving parameter in the data storage unit and activate the stored at least one user-specific driving parameter in a second vehicle to be occupied by the user, the control unit being configured to transmit the at least one user-specific driving parameter of the user from the data storage unit to the second vehicle , the control unit being configured to control the second vehicle based on the transmitted at least one user-specific driving parameter, the control unit further being configured to generate a user profile of the user based on the at least one user-specific driving parameter, the control unit being configured to transmit the at least one user-specific driving parameter only if the user activates the at least one user-specific driving parameter in the second vehicle , and the user communication means being executable by a mobile application integrated in a mobile device of the user.
A fusion polypeptide comprising an amino acid sequence selected from the group consisting of SEQ ID NO: 3-16.
A mobile communication terminal device comprising: an answering unit configured to respond to an incoming voice call; a measurement unit configured to measure an orientation or a displacement of the mobile communication terminal device ; a proximity detection unit configured to detect when a head area of a user is near the mobile communication terminal device ; and an operation detection unit configured to detect an utterance being made by the user using the mobile communication terminal device , characterized in that the answering unit is configured to respond to the incoming call using an automatic response function in the case where, after the measured orientation or displacement has met a predetermined condition, the head area is detected as being near and the utterance is detected while the head area is detected as being near, and to specify the orientation as a rotation angle measured at the point in time when the incoming call was received as a reference orientation or the displacement as a direction and distance of a movement and/or a change in the orientation measured over time when the incoming call was received as a reference displacement; and a hangup control unit configured to terminate the voice call, in the case where the orientation or the change in the orientation or displacement measured after the voice call is started is determined as the reference orientation or the reverse of the reference displacement. an answering unit configured to respond to an incoming voice call; a measurement unit configured to measure an orientation or a displacement of the mobile communication terminal device ; a proximity detection unit configured to detect when a head area of a user is near the mobile communication terminal device ; and an operation detection unit configured to detect an utterance being made by the user using the mobile communication terminal device , characterized in that the answering unit is configured to respond to the incoming call using an automatic response function in the case where, after the measured orientation or displacement has met a predetermined condition, the head area is detected as being near and the utterance is detected while the head area is detected as being near, and to specify the orientation as a rotation angle measured at the point in time when the incoming call was received as a reference orientation or the displacement as a direction and distance of a movement and/or a change in the orientation measured over time when the incoming call was received as a reference displacement; and a hangup control unit configured to terminate the voice call, in the case where the orientation or the change in the orientation or displacement measured after the voice call is started is determined as the reference orientation or the reverse of the reference displacement.
An apparatus for imparting compressive residual stress to at least a surface portion of a first plurality of balls , the balls being spherical bearing elements having an initial surface hardness, the apparatus comprising: a first body having a first surface , the first surface being adapted to receive the first plurality of balls and including a smooth contact portion, the smooth contact portion being substantially flat a second body having a second surface overlying the first surface, wherein the smooth contact portion has a surface hardness greater than or equal to the initial surface hardness of the balls, characterized in that the apparatus further comprises at least one drive operably connected to the first body or to the second body and configured to move the first body relative to the second body at a substantially fixed distance from the second body or to move the second body relative to the first body at a substantially fixed distance from the first body, the at least one drive also being configured to move the first body toward the second body or to move the second body toward the first body, so as to compress the balls between the first and second surfaces with a force that causes surface hardening of the balls at the location where the compressive force is applied and imparts compressive residual stress, a first body having a first surface , the first surface being adapted to receive the first plurality of balls and including a smooth contact portion, the smooth contact portion being substantially flat a second body having a second surface overlying the first surface,
An electrical power conversion and control system comprising: a circuit protection device comprising: a housing ; a line-side terminal and a load-side terminal coupled to the housing; at least one solid state switching element operable in an arc-free manner to limit or preclude electrical current flow from the line-side terminal to the load-side terminal; and a load controller in the housing and including power converter circuitry operative to convert an alternating current (AC) power supply input to the line-side terminal to a direct current (DC) power output at the load side terminal; in combination with at least one DC load device, characterized in that : the at least one DC load device is light emitting diode (LED) luminaire or the at least one DC load device comprises a plurality of DC loads wherein the plurality of DC loads are each light emitting diode (LED) luminaires. a circuit protection device comprising: a housing ; a line-side terminal and a load-side terminal coupled to the housing; at least one solid state switching element operable in an arc-free manner to limit or preclude electrical current flow from the line-side terminal to the load-side terminal; and a load controller in the housing and including power converter circuitry operative to convert an alternating current (AC) power supply input to the line-side terminal to a direct current (DC) power output at the load side terminal; a housing ; a line-side terminal and a load-side terminal coupled to the housing; at least one solid state switching element operable in an arc-free manner to limit or preclude electrical current flow from the line-side terminal to the load-side terminal; and a load controller in the housing and including power converter circuitry operative to convert an alternating current (AC) power supply input to the line-side terminal to a direct current (DC) power output at the load side terminal; in combination with at least one DC load device, characterized in that : the at least one DC load device is light emitting diode (LED) luminaire or the at least one DC load device comprises a plurality of DC loads wherein the plurality of DC loads are each light emitting diode (LED) luminaires. the at least one DC load device is light emitting diode (LED) luminaire or the at least one DC load device comprises a plurality of DC loads wherein the plurality of DC loads are each light emitting diode (LED) luminaires.
A sample analyzer, comprising: an illuminator ; a support positioned to support a sample vessel containing an assay sample proximate the illuminator , such that the illuminator causes luminescence of the assay sample; a detector positioned along an optical axis extending from the illuminator , through the assay sample , to the detector , so as to detect luminescence of the assay sample; wherein the analyzer is configured with an illumination mode and a measurement mode, and is characterized in : a reflector disposed on a shuttle between the illuminator and the assay sample, the shuttle being moveable to align the reflector with, and perpendicular to the optical axis ; wherein during the illumination mode the shuttle positions the reflector off the optical axis, and the illuminator is operated to illuminate the assay sample, further wherein during the measurement mode the shuttle positions the reflector onto the optical axis , aligning the reflector with, and perpendicular to, the optical axis, such that luminescence from the assay sample is reflected off the reflector back through the assay sample towards the detector along the optical axis . an illuminator ; a support positioned to support a sample vessel containing an assay sample proximate the illuminator , such that the illuminator causes luminescence of the assay sample; a detector positioned along an optical axis extending from the illuminator , through the assay sample , to the detector , so as to detect luminescence of the assay sample; wherein the analyzer is configured with an illumination mode and a measurement mode, and is characterized in : a reflector disposed on a shuttle between the illuminator and the assay sample, the shuttle being moveable to align the reflector with, and perpendicular to the optical axis ; wherein during the illumination mode the shuttle positions the reflector off the optical axis, and the illuminator is operated to illuminate the assay sample, further wherein during the measurement mode the shuttle positions the reflector onto the optical axis , aligning the reflector with, and perpendicular to, the optical axis, such that luminescence from the assay sample is reflected off the reflector back through the assay sample towards the detector along the optical axis . a reflector disposed on a shuttle between the illuminator and the assay sample, the shuttle being moveable to align the reflector with, and perpendicular to the optical axis ; wherein during the illumination mode the shuttle positions the reflector off the optical axis, and the illuminator is operated to illuminate the assay sample, further wherein during the measurement mode the shuttle positions the reflector onto the optical axis , aligning the reflector with, and perpendicular to, the optical axis, such that luminescence from the assay sample is reflected off the reflector back through the assay sample towards the detector along the optical axis .
An apparatus for movement along a tower structure , the apparatus being configured to be arranged at least partly circumferentially around the tower structure , the apparatus comprising: - a plurality of sliding rails , - a frame structure comprising a plurality of frame elements , each frame element being slidably connected to at least one of the sliding rails , the frame elements and the sliding rails being interconnected to form a scissor structure, wherein the frame structure is connectable to a hoisting mechanism via connecting points of at least some of the frame elements at or near positions where the frame elements are connected to the sliding rails , and wherein an upwardly directed lifting force applied at the connecting points , in combination with gravity working on the frame structure, causes the frame elements to slide along the sliding rails , thereby causing the scissor structure to contract or expand to adjust a diameter of the frame structure to an outer diameter of a tower structure having the apparatus mounted thereon. - a plurality of sliding rails , - a frame structure comprising a plurality of frame elements , each frame element being slidably connected to at least one of the sliding rails , the frame elements and the sliding rails being interconnected to form a scissor structure,
Method for controlling power-transmission device in a forest machine comprising a harvester head , in which method A) measuring a selected property of a tree on the basis of electromagnetic radiation at a distance from the trees being measured using observation means in order to create measurement data (d), B) storing the measurement data (d) of the tree in a register belonging to a memory for control of the power-transmission device from the measurement data (d), C) controlling the power-transmission device using software means , on the basis of the measurement data (d) of at least one tree , to create a change in the state of the power-transmission device before the harvester head contacts the tree and the performance of an operation of the operating device , so that an amount of energy optimized on the basis of the measurement data (d) in terms of performing a selected operation is transferred to a first operating device belonging to the forest machine , D) performing a first operation of the operating device using energy to be transferred using the power-transmission device after the change in state of the power-transmission device , in which the operation of the first operating device creates a change in the attitude, location, or state of the harvester head , or a combination of the aforesaid, E) controlling the power-transmission device at the next tree in the register , on the basis of the measurement data (d) of the relevant tree in the register , F) repeating the steps A) to E), characterized in that , in the method a selected property of at least two trees is measured and stored as the measurement data (d), and the power-transmission device is controlled on the basis of the measurement data (d) of the at least two trees . A) measuring a selected property of a tree on the basis of electromagnetic radiation at a distance from the trees being measured using observation means in order to create measurement data (d), B) storing the measurement data (d) of the tree in a register belonging to a memory for control of the power-transmission device from the measurement data (d), C) controlling the power-transmission device using software means , on the basis of the measurement data (d) of at least one tree , to create a change in the state of the power-transmission device before the harvester head contacts the tree and the performance of an operation of the operating device , so that an amount of energy optimized on the basis of the measurement data (d) in terms of performing a selected operation is transferred to a first operating device belonging to the forest machine , D) performing a first operation of the operating device using energy to be transferred using the power-transmission device after the change in state of the power-transmission device , in which the operation of the first operating device creates a change in the attitude, location, or state of the harvester head , or a combination of the aforesaid, E) controlling the power-transmission device at the next tree in the register , on the basis of the measurement data (d) of the relevant tree in the register , F) repeating the steps A) to E),
A method for establishing a Bluetooth mesh network, comprising: broadcasting, by a control device , a configuration packet to a plurality of controlled devices (110-1, 110-2, 110-3) to establish a Bluetooth mesh network; receiving, by the control device , at least one response packet from at least one of the controlled devices (110-1, 110-2, 110-3); and transmitting, by the control device , control setting information to the at least one of the controlled devices (110-1, 110-2, 110-3) according to the received response packet wherein the method is characterized by further comprising: if the number of response packets is greater than or equal to a first default value, the control device entering a control state to transmit the control setting information; if the number of response packets is lower than a first default value and greater than or equal to a second default value, enabling a timer on the control device, and after the timer expires, the control device entering the control state, wherein the first default value is greater than the second default value; and if the number of response packets is lower than a second default value, resetting the control device. broadcasting, by a control device , a configuration packet to a plurality of controlled devices (110-1, 110-2, 110-3) to establish a Bluetooth mesh network; receiving, by the control device , at least one response packet from at least one of the controlled devices (110-1, 110-2, 110-3); and transmitting, by the control device , control setting information to the at least one of the controlled devices (110-1, 110-2, 110-3) according to the received response packet wherein the method is characterized by further comprising: if the number of response packets is greater than or equal to a first default value, the control device entering a control state to transmit the control setting information; if the number of response packets is lower than a first default value and greater than or equal to a second default value, enabling a timer on the control device, and after the timer expires, the control device entering the control state, wherein the first default value is greater than the second default value; and if the number of response packets is lower than a second default value, resetting the control device. if the number of response packets is greater than or equal to a first default value, the control device entering a control state to transmit the control setting information; if the number of response packets is lower than a first default value and greater than or equal to a second default value, enabling a timer on the control device, and after the timer expires, the control device entering the control state, wherein the first default value is greater than the second default value; and if the number of response packets is lower than a second default value, resetting the control device.
A method of forming conductive connections of an electronic chip, comprising the successive steps of: a) depositing an insulating layer on a surface of a wafer; b) forming a layer made up of at least one metal covering the insulating layer and provided with first openings ; c) etching second openings in the insulating layer in line with the first openings by etching with a plasma made up of at least one halogenated compound; d) exposing the assembly formed by structure obtained after step c) to oxygen, to a mixture of hydrogen and nitrogen, or to a mixture of methane and nitrogen; e) annealing said assembly in vacuum; and f) forming, after step e), the conductive connections in the second openings. a) depositing an insulating layer on a surface of a wafer; b) forming a layer made up of at least one metal covering the insulating layer and provided with first openings ; c) etching second openings in the insulating layer in line with the first openings by etching with a plasma made up of at least one halogenated compound; d) exposing the assembly formed by structure obtained after step c) to oxygen, to a mixture of hydrogen and nitrogen, or to a mixture of methane and nitrogen; e) annealing said assembly in vacuum; and f) forming, after step e), the conductive connections in the second openings.