mhurhangee/ep-ind-claims huggingface dataset:
A touch panel, comprising: an array of pixels comprising a plurality of sets of scan lines, a plurality of sets of data lines intersecting orthogonally with the plurality of sets of scan lines, and a plurality of pixel elements coupled respectively with the plurality of sets of scan lines and the plurality of sets of data lines, wherein the plurality of sets of data lines comprises a first type of sets and a second type of sets disposed apart from each other; a first scan drive circuit electrically connected with the plurality of sets of scan lines to provide each set of the plurality of sets of scan lines with a first scan drive signal sequentially set by set, wherein, when the first scan drive circuit provides a set of scan lines with the first scan drive signal, pixel elements coupled with the set of scan lines enter into a touch mode; and a touch detection circuit electrically connected with the plurality of sets of data lines and configured to provide the first type of sets of the plurality of sets of data lines with a touch drive signal and to detect a touch sense signal from the second type of sets of the plurality of sets of data lines when each set of the plurality of sets of scan lines receives the first scan drive signal. an array of pixels comprising a plurality of sets of scan lines, a plurality of sets of data lines intersecting orthogonally with the plurality of sets of scan lines, and a plurality of pixel elements coupled respectively with the plurality of sets of scan lines and the plurality of sets of data lines, wherein the plurality of sets of data lines comprises a first type of sets and a second type of sets disposed apart from each other; a first scan drive circuit electrically connected with the plurality of sets of scan lines to provide each set of the plurality of sets of scan lines with a first scan drive signal sequentially set by set, wherein, when the first scan drive circuit provides a set of scan lines with the first scan drive signal, pixel elements coupled with the set of scan lines enter into a touch mode; and a touch detection circuit electrically connected with the plurality of sets of data lines and configured to provide the first type of sets of the plurality of sets of data lines with a touch drive signal and to detect a touch sense signal from the second type of sets of the plurality of sets of data lines when each set of the plurality of sets of scan lines receives the first scan drive signal.
Curvature sensor comprising: - at least one optical fiber comprising a core and at least one first sheath surrounding said core, said core and said at least one first sheath having different refractive indexes, said at least one optical fiber further comprising an end for receiving polychromatic light, - a first grating with periodic longitudinal modulation of the refractive index of the optical fiber core, called first grating, inscribed in the core of said at least one optical fiber and configured to reflect a wavelength λ 1 of the light, said wavelength λ 1 being shifted by a quantity Δλ B1 with respect to a reference wavelength λ B and said quantity Δλ B1 being sensitive to the temperature, to deformations and to the curvature of the optical fiber, characterised in that it further comprises at least one second grating with periodic longitudinal modulation of the refractive index of the optical fiber core, called second grating, inscribed in the core of said at least one optical fiber and configured to reflect a wavelength λ 2 of the light, said wavelength λ 2 being shifted by a quantity Δλ B2 with respect to said reference wavelength λ B and said quantity Δλ B2 being sensitive to the temperature, to deformations and to the curvature of the optical fiber, - said first and second gratings being defined so that the quantities Δλ B1 and Δλ B2 have substantially identical sensitivities to temperature and to deformations and substantially opposite sensitivities to curvature. - at least one optical fiber comprising a core and at least one first sheath surrounding said core, said core and said at least one first sheath having different refractive indexes, said at least one optical fiber further comprising an end for receiving polychromatic light, - a first grating with periodic longitudinal modulation of the refractive index of the optical fiber core, called first grating, inscribed in the core of said at least one optical fiber and configured to reflect a wavelength λ 1 of the light, said wavelength λ 1 being shifted by a quantity Δλ B1 with respect to a reference wavelength λ B and said quantity Δλ B1 being sensitive to the temperature, to deformations and to the curvature of the optical fiber, characterised in that it further comprises at least one second grating with periodic longitudinal modulation of the refractive index of the optical fiber core, called second grating, inscribed in the core of said at least one optical fiber and configured to reflect a wavelength λ 2 of the light, said wavelength λ 2 being shifted by a quantity Δλ B2 with respect to said reference wavelength λ B and said quantity Δλ B2 being sensitive to the temperature, to deformations and to the curvature of the optical fiber, - said first and second gratings being defined so that the quantities Δλ B1 and Δλ B2 have substantially identical sensitivities to temperature and to deformations and substantially opposite sensitivities to curvature.
An exhaust gas heat exchanger of the shell and tube type, said heat exchanger comprising a shell having a hollow interior between opposite ends, an exhaust gas manifold secured to one end of the shell, and thermally conductive tube means extending through the interior of the shell from said one end of the shell, the exhaust gas manifold comprising-first and second exhaust gas chambers which are mutually adjacent, each of said exhaust gas chambers comprising a respective exhaust gas inlet and an exhaust gas outlet, said tube means providing an exhaust gas flow path between the exhaust gas outlet of said first exhaust gas chamber and the exhaust gas inlet of said second exhaust gas chamber, a valve means providing a gas flow path directly between said first and second exhaust gas chambers when said valve means is open, said valve means substantially closing a direct gas flow path between said first and second exhaust gas chambers when said valve means is closed, whereby when a source of flowing exhaust gas is coupled to the exhaust gas inlet of said first exhaust gas chamber and said valve means is closed, exhaust gas is constrained to flow from the exhaust gas inlet of said first exhaust gas chamber to the adjacent exhaust gas outlet of said second exhaust gas chamber by way of said thermally conductive tube means to exchange heat with fluid in the interior of the shell and surrounding said tube means thus cooling the exhaust gas, whereas when said valve means is open, exhaust gas is allowed to flow from the exhaust gas inlet of said first exhaust gas chamber directly to the adjacent exhaust gas outlet of said second exhaust gas chamber and so bypass said tube means, characterised in that the manifold comprises a tapered conical portion and a tubular portion, the diameter of the tubular portion being less than the diameter of the shell.
A display device comprising: a substrate; a first conductive layer disposed on the substrate; a first insulating layer disposed on the first conductive layer, the first insulating layer including a contact hole exposing the first conductive layer; a second conductive layer disposed on the first insulating layer and electrically connected to the first conductive layer through the contact hole; a second insulating layer disposed on the first insulating layer and on the same layer as at least a portion of the second conductive layer; a first electrode disposed on the second insulating layer and the second conductive layer, the first electrode being electrically connected to the second conductive layer; a light emitting layer disposed on the first electrode; and a second electrode disposed on the light emitting layer, wherein an average distance between an upper surface of the second conductive layer and a surface of the substrate is substantially equal to an average distance between an upper surface of the second insulating layer and the surface of the substrate; wherein a portion of a lower surface of the second conductive layer is disposed on an upper surface of the first insulating layer, and first electrode and the light emitting layer are formed flat with a uniform thickness, characterized in that the second insulating layer overlaps the upper surface of the second conductive layer at a boundary area therebetween. a substrate; a first conductive layer disposed on the substrate; a first insulating layer disposed on the first conductive layer, the first insulating layer including a contact hole exposing the first conductive layer; a second conductive layer disposed on the first insulating layer and electrically connected to the first conductive layer through the contact hole; a second insulating layer disposed on the first insulating layer and on the same layer as at least a portion of the second conductive layer; a first electrode disposed on the second insulating layer and the second conductive layer, the first electrode being electrically connected to the second conductive layer; a light emitting layer disposed on the first electrode; and a second electrode disposed on the light emitting layer, wherein an average distance between an upper surface of the second conductive layer and a surface of the substrate is substantially equal to an average distance between an upper surface of the second insulating layer and the surface of the substrate; wherein a portion of a lower surface of the second conductive layer is disposed on an upper surface of the first insulating layer, and first electrode and the light emitting layer are formed flat with a uniform thickness, characterized in that the second insulating layer overlaps the upper surface of the second conductive layer at a boundary area therebetween.
A method using a camera mountable in a motor vehicle, the method including the steps of: acquiring a plurality of image frames from the camera at known time intervals; selecting a patch in at least one of the image frames; tracking optical flow between the image frames of a plurality of image points of said patch to produce a tracked optical flow; for a plurality of models selected from the group consisting of: (i) a road surface model wherein a portion of the image points is modeled to be imaged from a road surface (ii) vertical surface model wherein a portion of the image points is modeled to be imaged from a substantially vertical object and (iii) a mixed model wherein a first portion of the image points is modeled to be imaged from a road surface and a second portion of the image points is modeled to be imaged from a substantially vertical object, fitting the tracked optical flow of at least a portion of the image points to produce a plurality of fits to the models; using at least a portion of the image points, scoring the fits of the tracked optical flow to the respective models to produce respective scores; and determining if a collision is expected and a time-to-collision by selecting the model with a score which corresponds to a best fit of the image points to the tracked optical flow. acquiring a plurality of image frames from the camera at known time intervals; selecting a patch in at least one of the image frames; tracking optical flow between the image frames of a plurality of image points of said patch to produce a tracked optical flow; for a plurality of models selected from the group consisting of: (i) a road surface model wherein a portion of the image points is modeled to be imaged from a road surface (ii) vertical surface model wherein a portion of the image points is modeled to be imaged from a substantially vertical object and (iii) a mixed model wherein a first portion of the image points is modeled to be imaged from a road surface and a second portion of the image points is modeled to be imaged from a substantially vertical object, fitting the tracked optical flow of at least a portion of the image points to produce a plurality of fits to the models; using at least a portion of the image points, scoring the fits of the tracked optical flow to the respective models to produce respective scores; and determining if a collision is expected and a time-to-collision by selecting the model with a score which corresponds to a best fit of the image points to the tracked optical flow.
A method of providing an application service in a telecommunications network which is accessible to a user equipment via at least a first access node (110A; 130A) or a second access node (110B; 130B), the method comprising: at the first access node (110A; 130A), providing an application service platform for supporting an application environment for hosting of one or more application services which are accessible to the user equipment via the first access node (110A; 130A); at the second access node (110B; 130B), providing an application service platform for supporting an application environment for hosting of one or more application services which are accessible to the user equipment via the second access node (110B; 130B); and via the application service platform at the first access node (110A; 130A), providing an application service to the user equipment connected to the first access node (110A; 130A); at a handover of the user equipment from the first access node (110A; 130A) to the second access node (110B; 130B), moving a context of the user equipment from the application service platform at the first access node (110A; 130A) to the application service platform at the second access node (110B; 130B), wherein the context of the user equipment is radio related and includes information related to the user equipment which is available at the first access node (110A; 130A), and wherein the context of the user equipment is moved using handover related control signalling. at the first access node (110A; 130A), providing an application service platform for supporting an application environment for hosting of one or more application services which are accessible to the user equipment via the first access node (110A; 130A); at the second access node (110B; 130B), providing an application service platform for supporting an application environment for hosting of one or more application services which are accessible to the user equipment via the second access node (110B; 130B); and via the application service platform at the first access node (110A; 130A), providing an application service to the user equipment connected to the first access node (110A; 130A); at a handover of the user equipment from the first access node (110A; 130A) to the second access node (110B; 130B), moving a context of the user equipment from the application service platform at the first access node (110A; 130A) to the application service platform at the second access node (110B; 130B), wherein the context of the user equipment is radio related and includes information related to the user equipment which is available at the first access node (110A; 130A), and wherein the context of the user equipment is moved using handover related control signalling.
A base station comprising: an acquisition unit configured to acquire information on power allocation to a data signal for a terminal device among a plurality of data signals that are being multiplexed using power allocation; and a reporting unit configured to report the information on the power allocation to the terminal device, wherein the information on the power allocation is information indicating a difference between power allocated to the data signal and power allocated to a user-specific reference signal, and wherein the user-specific reference signal is a reference signal unique to the terminal device and transmitted using the same antenna port as the data signal for the terminal device, and wherein power allocated to the user-specific reference signal is higher than power allocated to the respective data signal for the terminal device. an acquisition unit configured to acquire information on power allocation to a data signal for a terminal device among a plurality of data signals that are being multiplexed using power allocation; and a reporting unit configured to report the information on the power allocation to the terminal device, wherein the information on the power allocation is information indicating a difference between power allocated to the data signal and power allocated to a user-specific reference signal, and wherein the user-specific reference signal is a reference signal unique to the terminal device and transmitted using the same antenna port as the data signal for the terminal device, and wherein power allocated to the user-specific reference signal is higher than power allocated to the respective data signal for the terminal device.
An installation kit of a door of a motor vehicle, comprising: - a hinge including a first hinge element and a second hinge element, the first hinge element being articulated to the second hinge element about a hinge axis (γ1); and - a positioning element configured to be fixed to a body of the motor vehicle; wherein: - the first hinge element is configured to be fixed to the door of the motor vehicle; and - the second hinge element is configured to be fixed to the body of the motor vehicle and comprises a coupling element configured to engage said positioning element so as to position the hinge with respect to the body of the motor vehicle upon fixing the second hinge element on the body of the motor vehicle, and wherein said positioning element is a piece that can be fixed to the body of the motor vehicle, preferably by means of screws (42, 44), the installation kit being characterized in that the coupling element of said second hinge element is provided as a fork-shaped plate configured to engage said positioning element. - a hinge including a first hinge element and a second hinge element, the first hinge element being articulated to the second hinge element about a hinge axis (γ1); and - a positioning element configured to be fixed to a body of the motor vehicle; - the first hinge element is configured to be fixed to the door of the motor vehicle; and - the second hinge element is configured to be fixed to the body of the motor vehicle and comprises a coupling element configured to engage said positioning element so as to position the hinge with respect to the body of the motor vehicle upon fixing the second hinge element on the body of the motor vehicle, and
A method of preparing an electrode slurry for secondary batteries, comprising: a) preparing a binder solution first such that the binder is sufficiently dissolved in the solvent and then an electrode active material and a conductive material are added thereto. The binder solution has a weight ratio of solvent to solid content between 94:6 and 92:8. b) primarily mixing a first electrode slurry including an electrode active material, and a first binder solution under shear stress mixing conditions; the viscosity of the first electrode slurry is in a range of 10,000 to 60,000 cps; c) Secondarily mixing a second electrode slurry including the first electrode slurry and a second binder solution, wherein the content ratio of the first binder and the second binder is in a range between 9:1 and 6:4, therein the viscosity of the second electrode slurry is in a range of 8,000 to 12,000 cps and when preparing the electrode slurry for secondary batteries, viscoelasticity of the electrode slurry is adjusted by controlling the amount of the binder; wherein the first binder and the second binder are one or more selected from the group consisting of non-aqueous binders selected from vinylidene fluoride-hexafluoropropylene copolymer (PVDF-co-HEP), polyvinylidenefluoride, polyacrylonitrile, polymethyl methacrylate, polyvinyl alcohol, carboxymethylcellulose, starch, hydroxypropylcellulose, regenerated cellulose, polyvinyl pyrrolidone, tetrafluoroethylene, polyethylene, polypropylene, polyacrylic acid, an ethylene-propylene-diene monomer (EPDM), a sulfonated EPDM, polytetrafluoroethylene (PTFE), polyvinylidene fluoride (PVdF); aqueous binders selected from an acrylonitrile-butadiene rubber, a styrene butadiene rubber, an acrylic rubber; and polymer resins selected from a hydroxyethyl cellulose, carboxymethyl cellulose, polyvinylidene fluoride. a) preparing a binder solution first such that the binder is sufficiently dissolved in the solvent and then an electrode active material and a conductive material are added thereto. The binder solution has a weight ratio of solvent to solid content between 94:6 and 92:8. b) primarily mixing a first electrode slurry including an electrode active material, and a first binder solution under shear stress mixing conditions; the viscosity of the first electrode slurry is in a range of 10,000 to 60,000 cps; c) Secondarily mixing a second electrode slurry including the first electrode slurry and a second binder solution, wherein the content ratio of the first binder and the second binder is in a range between 9:1 and 6:4, therein the viscosity of the second electrode slurry is in a range of 8,000 to 12,000 cps and when preparing the electrode slurry for secondary batteries, viscoelasticity of the electrode slurry is adjusted by controlling the amount of the binder;
A method for producing a squirrel-cage rotor of an electric induction machine comprising the steps of • making two circumferentially separated cuts (30, 31) in each of a plurality of steel sheets from each of a plurality of openings uniformly distributed around said sheet and separated from a periphery of said sheet by a sheet portion, said cuts being made substantially radially into said sheet portion towards said periphery of the sheet while ending at a predetermined distance to said periphery, • stacking said sheets onto each other while aligning said openings so as to form rotor slots extending substantially axially, • die casting a rotor body while filling each said rotor slot with material forming a rotor conductor, and • machining said rotor body by peripherally removing material of said stack of sheets to a depth of at least said predetermined distance so as to, for each rotor conductor and therealong, form a slot extending substantially radially from the periphery of the rotor body to said rotor conductor. • making two circumferentially separated cuts (30, 31) in each of a plurality of steel sheets from each of a plurality of openings uniformly distributed around said sheet and separated from a periphery of said sheet by a sheet portion, said cuts being made substantially radially into said sheet portion towards said periphery of the sheet while ending at a predetermined distance to said periphery, • stacking said sheets onto each other while aligning said openings so as to form rotor slots extending substantially axially, • die casting a rotor body while filling each said rotor slot with material forming a rotor conductor, and • machining said rotor body by peripherally removing material of said stack of sheets to a depth of at least said predetermined distance so as to, for each rotor conductor and therealong, form a slot extending substantially radially from the periphery of the rotor body to said rotor conductor.