mhurhangee/patent-ind-claim-en huggingface dataset:
A non-rectangular display comprising: a plurality of semiconductors forming the transistors of a pixel circuit; a gate insulating layer on the plurality of semiconductors; a first scan signal line extending in a second direction and a first electrode of the pixel circuit capacitor on the gate insulating layer; a first interlayer insulating layer on the first electrode; a second electrode of the pixel circuit capacitor on the first interlayer insulating layer; a second interlayer insulating layer on the second electrode; and a data line, a DC voltage line, and a second scan signal line extending in a first direction crossing the second direction on the second interlayer insulating layer in a same layer wherein the DC voltage line is located between the second scan signal line and the data line; the second scan signal line extending in the first direction is coupled with the first scan signal line extending in the second direction via a contact hole; the data line and the DC voltage line are connected to the transistors of the pixel circuit via contact holes; and the DC voltage line is connected to the second electrode of the pixel circuit capacitor via a contact hole. a plurality of semiconductors forming the transistors of a pixel circuit; a gate insulating layer on the plurality of semiconductors; a first scan signal line extending in a second direction and a first electrode of the pixel circuit capacitor on the gate insulating layer; a first interlayer insulating layer on the first electrode; a second electrode of the pixel circuit capacitor on the first interlayer insulating layer; a second interlayer insulating layer on the second electrode; and a data line, a DC voltage line, and a second scan signal line extending in a first direction crossing the second direction on the second interlayer insulating layer in a same layer wherein the DC voltage line is located between the second scan signal line and the data line; the second scan signal line extending in the first direction is coupled with the first scan signal line extending in the second direction via a contact hole; the data line and the DC voltage line are connected to the transistors of the pixel circuit via contact holes; and the DC voltage line is connected to the second electrode of the pixel circuit capacitor via a contact hole.
A display apparatus comprising: a substrate ; a display area (DA) disposed on the substrate and comprising a plurality of pixels (P); a non-display area (NDA) disposed outside the display area (DA); a first power supply voltage line comprising: a first conductive layer disposed in the non-display area (NDA); and a second conductive layer disposed on the first conductive layer ; a second power supply voltage line disposed in the non-display area (NDA) and comprising: a third conductive layer spaced apart from the first conductive layer ; and a fourth conductive layer disposed on the third conductive layer ; a first dam portion surrounding the display area (DA) and overlapping the second power supply voltage line ; a second dam portion disposed adjacent to the first dam portion ; and a cladding layer covering a first end portion (ES1) of the fourth conductive layer formed in a direction intersecting a direction in which the first and second dam portions extend, wherein the third conductive layer and fourth conductive layer are separated by a first planarization film , and the third conductive layer is electrically connected to the fourth conductive layer through a second contact hole (CNT2) formed in the first planarization film . a substrate ; a display area (DA) disposed on the substrate and comprising a plurality of pixels (P); a non-display area (NDA) disposed outside the display area (DA); a first power supply voltage line comprising: a first conductive layer disposed in the non-display area (NDA); and a second conductive layer disposed on the first conductive layer ; a first conductive layer disposed in the non-display area (NDA); and a second conductive layer disposed on the first conductive layer ; a second power supply voltage line disposed in the non-display area (NDA) and comprising: a third conductive layer spaced apart from the first conductive layer ; and a fourth conductive layer disposed on the third conductive layer ; a third conductive layer spaced apart from the first conductive layer ; and a fourth conductive layer disposed on the third conductive layer ; a first dam portion surrounding the display area (DA) and overlapping the second power supply voltage line ; a second dam portion disposed adjacent to the first dam portion ; and a cladding layer covering a first end portion (ES1) of the fourth conductive layer formed in a direction intersecting a direction in which the first and second dam portions extend, wherein the third conductive layer and fourth conductive layer are separated by a first planarization film , and the third conductive layer is electrically connected to the fourth conductive layer through a second contact hole (CNT2) formed in the first planarization film .
A method for pooling resources between connected objects (202 1 -202 3 ), interconnected therebetween and forming a local network , said method comprising at least one iteration of the following steps: - transmission , by one of said connected objects (202 1 -202 3 ), referred to as a delegator, to a management unit connected to said connected objects (202 1 -202 3 ) within said local network , of a request to delegate a data processing operation, referred to as a delegated operation; - identification, by said management unit, of another connected object, called a delegate object, capable of performing the delegated operation, said identification being carried out based on parameters including the resources required to perform said delegated operation and the availability of each connected object, said delegate object having been identified as having resources required to perform the delegated operation and as having the availability to perform it; and - allocation , by said management unit , of the performance of said delegated operation to said identified delegate object, the method further comprising, for each connected object (202 1 -202 3 ), determining an availability schedule for said connected object (202 1 -202 3 ) for carrying out at least one operation delegated by another connected object (202 1 -202 3 ), said availability schedule enabling said management unit to establish the availability of resources within each connected object. - transmission , by one of said connected objects (202 1 -202 3 ), referred to as a delegator, to a management unit connected to said connected objects (202 1 -202 3 ) within said local network , of a request to delegate a data processing operation, referred to as a delegated operation; - identification, by said management unit, of another connected object, called a delegate object, capable of performing the delegated operation, said identification being carried out based on parameters including the resources required to perform said delegated operation and the availability of each connected object, said delegate object having been identified as having resources required to perform the delegated operation and as having the availability to perform it; and - allocation , by said management unit , of the performance of said delegated operation to said identified delegate object,
An aircraft landing gear , comprising: a shock strut including a rod with a first end slidably disposed within a cylinder ; a beam rotatably coupled to a second end of the rod, the beam being configured to have a forward wheel and an aft wheel rotatably mounted thereto; and a link assembly , comprising: an upper link having a first end rotatably connected to the cylinder ; and a lower link having a first end rotatably connected to the beam, a second end of the lower link being rotatably coupled to a second end of the upper link ; and a limiter , characterised in that the limiter comprises a first stop associated with the upper link and a second stop associated with the lower link, the first stop engaging the second stop to limit rotation of the upper link relative to the lower link, wherein the limiter is selectively adjustable to provide a predetermined maximum distance between the first end of the upper link and the first end of the lower link. a shock strut including a rod with a first end slidably disposed within a cylinder ; a beam rotatably coupled to a second end of the rod, the beam being configured to have a forward wheel and an aft wheel rotatably mounted thereto; and a link assembly , comprising: an upper link having a first end rotatably connected to the cylinder ; and a lower link having a first end rotatably connected to the beam, a second end of the lower link being rotatably coupled to a second end of the upper link ; and a limiter , characterised in that the limiter comprises a first stop associated with the upper link and a second stop associated with the lower link, the first stop engaging the second stop to limit rotation of the upper link relative to the lower link, wherein the limiter is selectively adjustable to provide a predetermined maximum distance between the first end of the upper link and the first end of the lower link.
An airfoil for a gas turbine engine, the airfoil comprising: a leading edge and a trailing edge , a wall having ; the leading edge and the trailing edge , and at least partially defining a boundary of a leading edge cavity radially along the leading edge ; and a cooling jet structure operatively associated with a portion of the wall proximate the leading edge and configured to direct a cooling fluid to the leading edge cavity tangent to the portion of the wall ; characterised in that : the airfoil further comprises at least one dividing wall separating the leading edge cavity into multiple segments (96a...96b) and configured to minimize radial flow of the cooling fluid through the leading edge cavity , wherein the cooling jet structure includes a protrusion operatively disposed opposite the portion of the wall to form a channel therebetween configured to accelerate flow of the cooling fluid, the cooling jet structure at least partially defined by the protrusion and the wall to form the channel. a leading edge and a trailing edge , a wall having ; the leading edge and the trailing edge , and at least partially defining a boundary of a leading edge cavity radially along the leading edge ; and a cooling jet structure operatively associated with a portion of the wall proximate the leading edge and configured to direct a cooling fluid to the leading edge cavity tangent to the portion of the wall ; characterised in that : the airfoil further comprises at least one dividing wall separating the leading edge cavity into multiple segments (96a...96b) and configured to minimize radial flow of the cooling fluid through the leading edge cavity , wherein the cooling jet structure includes a protrusion operatively disposed opposite the portion of the wall to form a channel therebetween configured to accelerate flow of the cooling fluid, the cooling jet structure at least partially defined by the protrusion and the wall to form the channel.
A variable magnification optical system comprising: a first lens group (G1) disposed at a most object side, a first focusing lens group (Ga) disposed at an image side of the first lens group, a second focusing lens group (Gb) disposed at an image side of the first focusing lens group (Ga), and a rear lens group (Gr) disposed at an image side of the second focusing lens group (Gb); upon varying magnification, the first lens group (G1) being moved, and an interval between said first lens group (G1) and said first focusing lens group (Ga), an interval between said first focusing lens group (Ga) and said second focusing lens group (Gb), and an interval between said second focusing lens group (Gb) and said rear lens group (Gr) being varied; upon focusing, said first focusing lens group (Ga) and said second focusing lens group (Gb) being moved along the optical axis with different trajectories from each other; and the following conditional expression being satisfied: 0.30 < fa / fb < 0.90 where fa denotes a focal length of said first focusing lens group (Ga), and fb denotes a focal length of said second focusing lens group (Gb), characterized by further comprising at least one intermediate lens group (Gm) having negative refractive power between said first lens group (G1) and said first focusing lens group (Ga), and upon varying magnification, an interval between the first lens group (G1) and the intermediate lens group (Gm) and an interval between the intermediate lens group (Gm) and the first focusing lens group (Ga) being varied. a first lens group (G1) disposed at a most object side, a first focusing lens group (Ga) disposed at an image side of the first lens group, a second focusing lens group (Gb) disposed at an image side of the first focusing lens group (Ga), and a rear lens group (Gr) disposed at an image side of the second focusing lens group (Gb); upon varying magnification, the first lens group (G1) being moved, and an interval between said first lens group (G1) and said first focusing lens group (Ga), an interval between said first focusing lens group (Ga) and said second focusing lens group (Gb), and an interval between said second focusing lens group (Gb) and said rear lens group (Gr) being varied; upon focusing, said first focusing lens group (Ga) and said second focusing lens group (Gb) being moved along the optical axis with different trajectories from each other; and the following conditional expression being satisfied: where fa denotes a focal length of said first focusing lens group (Ga), and fb denotes a focal length of said second focusing lens group (Gb), characterized by further comprising at least one intermediate lens group (Gm) having negative refractive power between said first lens group (G1) and said first focusing lens group (Ga), and upon varying magnification, an interval between the first lens group (G1) and the intermediate lens group (Gm) and an interval between the intermediate lens group (Gm) and the first focusing lens group (Ga) being varied.
Cathode composition for an alkali metal-sulfur cell comprising - elemental sulfur and - at least one polyacrylonitrile-sulfur composite material comprising covalently and/or ionically bound sulfur, characterized in that the polyacrylonitrile-sulfur composite material has sulfur domains having a diameter of less than 1000 nm. - elemental sulfur and - at least one polyacrylonitrile-sulfur composite material comprising covalently and/or ionically bound sulfur, characterized in that the polyacrylonitrile-sulfur composite material has sulfur domains having a diameter of less than 1000 nm.
Method for pairing a mobile telephone with a motor vehicle, said mobile telephone paired thus by means of said pairing method being able to be used to lock/unlock and/or start up said motor vehicle using an identification code, said mobile telephone comprising - a control unit , - a first memory , - a first communication interface configured to communicate according to an NFC protocol with a key for locking/unlocking the motor vehicle, said locking/unlocking key comprising: - a second communication interface configured to communicate according to an NFC protocol, - a second memory containing an encrypted authentication code, said mobile telephone carrying out, via said control unit , the following steps: - receiving a decryption key, - receiving, via the first and second communication interfaces , at least one portion of the encrypted authentication code from the locking/unlocking key , - decrypting the at least one portion of the authentication code using the decryption key, - storing, in the first memory , the at least one portion of the decrypted authentication code, - loading another portion of said code from a different medium from among the set consisting of a vehicle and a remote server, and - communicating with the motor vehicle via the first communication interface in order to lock/unlock and/or start up the motor vehicle on the basis of the authentication code. - a control unit , - a first memory , - a first communication interface configured to communicate according to an NFC protocol with a key for locking/unlocking the motor vehicle, - a second communication interface configured to communicate according to an NFC protocol, - a second memory containing an encrypted authentication code, - receiving a decryption key, - receiving, via the first and second communication interfaces , at least one portion of the encrypted authentication code from the locking/unlocking key , - decrypting the at least one portion of the authentication code using the decryption key, - storing, in the first memory , the at least one portion of the decrypted authentication code, - loading another portion of said code from a different medium from among the set consisting of a vehicle and a remote server, and - communicating with the motor vehicle via the first communication interface in order to lock/unlock and/or start up the motor vehicle on the basis of the authentication code.
A stress cell for applying a force on a sample , the cell comprising a frame ; an actuator arrangement coupled to the frame ; a coupler for coupling the actuator arrangement to the sample , the coupler comprising a first coupler portion connected to the actuator arrangement and a second coupler portion connectable to the sample, wherein the first coupler portion is flexibly coupled to the frame and wherein the actuator arrangement comprises a first element having a first variable length and a second element having a second variable length, the actuator arrangement being adapted to vary a difference between the first length and the second length to provide the force, the stress cell being characterised in that the second coupler portion comprises a guide member connectable to the sample , the guide member being pivotably coupled to the first coupler portion . a frame ; an actuator arrangement coupled to the frame ; a coupler for coupling the actuator arrangement to the sample , the coupler comprising a first coupler portion connected to the actuator arrangement and a second coupler portion connectable to the sample, wherein the first coupler portion is flexibly coupled to the frame and wherein the actuator arrangement comprises a first element having a first variable length and a second element having a second variable length, the actuator arrangement being adapted to vary a difference between the first length and the second length to provide the force, the stress cell being characterised in that the second coupler portion comprises a guide member connectable to the sample , the guide member being pivotably coupled to the first coupler portion .
An electronic device for subjecting a user to circadian lighting, such that the light exposure of the user follows the circadian rhythm of the user, the electronic device comprising: a frame configured to be worn on a head of a user; a first light emitter mounted on the frame and configured to illuminate a first eye of the user, wherein an intensity and a spectrum of the first light emitter is adjustable; a second light emitter mounted on the frame and configured to illuminate a second eye of the user, wherein an intensity and a spectrum of the second light emitter is adjustable; a clock configured to determine a time; characterized in that the electronic device further comprises a light sensor configured to sense ambient light; a memory configured to store a target light profile comprising time-resolved data on an amount of light to be accumulated over time by the first and/or second eye of the user, wherein the time-resolved data comprises information about spectrum and intensity; and a controller configured to control the intensity and spectrum of the first and second light emitter based on the time, the target light profile, and the sensed ambient light, such that an accumulated light exposure of the first eye and/or the second eye of the user is aligned with the target light profile over time. a frame configured to be worn on a head of a user; a first light emitter mounted on the frame and configured to illuminate a first eye of the user, wherein an intensity and a spectrum of the first light emitter is adjustable; a second light emitter mounted on the frame and configured to illuminate a second eye of the user, wherein an intensity and a spectrum of the second light emitter is adjustable; a clock configured to determine a time; characterized in that the electronic device further comprises a light sensor configured to sense ambient light; a memory configured to store a target light profile comprising time-resolved data on an amount of light to be accumulated over time by the first and/or second eye of the user, wherein the time-resolved data comprises information about spectrum and intensity; and a controller configured to control the intensity and spectrum of the first and second light emitter based on the time, the target light profile, and the sensed ambient light, such that an accumulated light exposure of the first eye and/or the second eye of the user is aligned with the target light profile over time. a light sensor configured to sense ambient light; a memory configured to store a target light profile comprising time-resolved data on an amount of light to be accumulated over time by the first and/or second eye of the user, wherein the time-resolved data comprises information about spectrum and intensity; and a controller configured to control the intensity and spectrum of the first and second light emitter based on the time, the target light profile, and the sensed ambient light, such that an accumulated light exposure of the first eye and/or the second eye of the user is aligned with the target light profile over time.