mhurhangee/ep-ind-claims huggingface dataset:
A method of motion estimation for processing images in an image sequence comprising at least a first image and a second image, a motion vector (MV) being associated to said first and second images and being defined in a coordinate system having at least a first direction and a second direction, said second direction being different from said first direction; said motion vector having a first previous component value (MV D1) in the first direction; said method comprising the steps of: /a/ defining a first image portion (3a; 3b) in the first image and a second image portion (4a; 4b) in the second image; /b/ determining a first characteristics vector (S c) for the first image in the first image portion and a second characteristics vector (S' c) for the second image in the second image portion; /c/ estimating a first shift value (k) between said first and second images by comparing said first and second characteristics vectors; /d/ obtaining a second current component value (MV D2) based on said first shift value; and /e/ obtaining a first current component value (MV D1); wherein the motion vector is defined by the first and second current component values. characterized in that said first and second image portions are defined based on said first previous component value of said motion vector. /a/ defining a first image portion (3a; 3b) in the first image and a second image portion (4a; 4b) in the second image; /b/ determining a first characteristics vector (S c) for the first image in the first image portion and a second characteristics vector (S' c) for the second image in the second image portion; /c/ estimating a first shift value (k) between said first and second images by comparing said first and second characteristics vectors; /d/ obtaining a second current component value (MV D2) based on said first shift value; and /e/ obtaining a first current component value (MV D1);
Rotating electrical machine, for example an alternator, comprising a rotor and a stator provided with a winding and notches receiving the winding, the winding having a number of phases Nphi, Nphi being greater than or equal to 5 and being odd and not divisible by 3, said rotor comprising north and south poles formed alternately in a direction of rotation of the rotor, said rotor having an angular pole pitch (theta) equal to 2n divided by 2P, P being the number of pairs of poles of the rotor; and said rotor comprising: - a rotor coil allowing a magnetic flux to be generated upon the passage of an electrical current; and - a pair of pole wheels (6, 7) composed of: - a cylindrical portion on which said rotor coil is wound; - plates extending radially outwards from the first and second end portions of said cylindrical portion; and - a plurality of claw-shaped magnetic poles (61, 62, 71) extending axially from said plates so as to cover said rotor coil, said claw-shaped magnetic poles (61, 62, 71) being magnetized with said north and south poles (N, S), said stator surrounding said rotor and an air gap being defined as being the minimum distance between the stator and the rotor in which each claw-shaped magnetic pole (61, 62, 71) comprises a first outer surface which faces said notches, said first outer surface has an angular aperture in a cutting plane of one of the claw-shaped poles, said maximum angular aperture (Obe) for all of the cutting planes of one of the claw-shaped poles is equal to Obe = K x theta, with K lying between 0.4 and 0.8, the cutting plane being defined as being at right angles to the axis of the machine, said angular aperture being defined as the maximum angle between two straight lines each passing through said axis of the machine and through a point of the central outer surface, said two straight lines being contained in said cutting plane. - a rotor coil allowing a magnetic flux to be generated upon the passage of an electrical current; and - a pair of pole wheels (6, 7) composed of: - a cylindrical portion on which said rotor coil is wound; - plates extending radially outwards from the first and second end portions of said cylindrical portion; and - a plurality of claw-shaped magnetic poles (61, 62, 71) extending axially from said plates so as to cover said rotor coil, said claw-shaped magnetic poles (61, 62, 71) being magnetized with said north and south poles (N, S),
A photovoltaic array, comprising: a plurality of photovoltaic modules arranged in an array, each photovoltaic module having a positive-voltage junction box being positioned at a first corner of an underside of the photovoltaic module and a negative-voltage junction box being positioned at a second corner on the underside of the photovoltaic module; wherein the array comprises a first row of photovoltaic modules electrically connected to each other and each photovoltaic module of the first row being oriented in a first direction; and wherein the array comprises a second row of photovoltaic modules electrically connected to each other and each photovoltaic module of the second row being oriented in a second direction that is 180° opposite relative to the first direction, and wherein one photovoltaic module of the first row is electrically connected to one photovoltaic module of the second row. a plurality of photovoltaic modules arranged in an array, each photovoltaic module having a positive-voltage junction box being positioned at a first corner of an underside of the photovoltaic module and a negative-voltage junction box being positioned at a second corner on the underside of the photovoltaic module; wherein the array comprises a first row of photovoltaic modules electrically connected to each other and each photovoltaic module of the first row being oriented in a first direction; and wherein the array comprises a second row of photovoltaic modules electrically connected to each other and each photovoltaic module of the second row being oriented in a second direction that is 180° opposite relative to the first direction, and wherein one photovoltaic module of the first row is electrically connected to one photovoltaic module of the second row.
A method for manufacturing a composite sheet of an absorbent article to manufacture a composite sheet including a first continuous sheet, a second continuous sheet, and an elastic string to be arranged between the first continuous sheet and the second continuous sheet, the method for manufacturing a composite sheet of an absorbent article comprising: transporting, in a direction of continuation, the first continuous sheet, the second continuous sheet, and the elastic string, being materials, in a state where the elastic string arranged between the first continuous sheet and the second continuous sheet is at least partially interposed between first protruding parts and second protruding parts, by causing a rotatable first rotation body to rotate, the first rotation body including the first protruding parts and the second protruding parts protruding radially outwardly; and performing processing to the first continuous sheet and the second continuous sheet by sandwiching the first continuous sheet and the second continuous sheet between a rotatable second rotation body and the first protruding parts and the second protruding parts, during transporting with the first rotation body; wherein a thickness direction of the materials, the direction of continuation, and a width direction are in an orthogonal relation with each other; and while rotation of the first rotation body is stopped, the first continuous sheet, positioned to the first rotation body side of the first continuous sheet and the second continuous sheet, and the elastic string are placed apart from the first rotation body and lifted up to an upper side in the thickness direction with a lifting part. transporting, in a direction of continuation, the first continuous sheet, the second continuous sheet, and the elastic string, being materials, in a state where the elastic string arranged between the first continuous sheet and the second continuous sheet is at least partially interposed between first protruding parts and second protruding parts, by causing a rotatable first rotation body to rotate, the first rotation body including the first protruding parts and the second protruding parts protruding radially outwardly; and performing processing to the first continuous sheet and the second continuous sheet by sandwiching the first continuous sheet and the second continuous sheet between a rotatable second rotation body and the first protruding parts and the second protruding parts, during transporting with the first rotation body; wherein a thickness direction of the materials, the direction of continuation, and a width direction are in an orthogonal relation with each other; and while rotation of the first rotation body is stopped, the first continuous sheet, positioned to the first rotation body side of the first continuous sheet and the second continuous sheet, and the elastic string are placed apart from the first rotation body and lifted up to an upper side in the thickness direction with a lifting part.
A method of applying an additive composition to a non-creped web product comprising: (a) presenting a substrate having a first surface and an opposite second surface, the substrate comprising less than 50% cellulosic fibers; (b) applying an additive composition in the form of a polyolefin dispersion on at least the first surface of the substrate, wherein the additive composition has a viscosity of equal or greater than a value calculated by an equation of y = 40 e 0.07x, wherein y represents viscosity in a unit of centipoise, and x is a percentage of the emulsifier content calculated without water; wherein the additive composition comprises particles having an average particle size diameter in the range of 0.1 to 3 μm (microns), and a solids level of 40 to 60%; wherein the dispersion comprises from 35 to 65 percent by weight of polyolefin, based on the total weight of the solid content of the dispersion; and (c) drying the substrate after the step of applying the additive composition. (a) presenting a substrate having a first surface and an opposite second surface, the substrate comprising less than 50% cellulosic fibers; (b) applying an additive composition in the form of a polyolefin dispersion on at least the first surface of the substrate, wherein the additive composition has a viscosity of equal or greater than a value calculated by an equation of y = 40 e 0.07x, wherein y represents viscosity in a unit of centipoise, and x is a percentage of the emulsifier content calculated without water; wherein the additive composition comprises particles having an average particle size diameter in the range of 0.1 to 3 μm (microns), and a solids level of 40 to 60%; wherein the dispersion comprises from 35 to 65 percent by weight of polyolefin, based on the total weight of the solid content of the dispersion; and (c) drying the substrate after the step of applying the additive composition.
An electrode comprising: a current collector; an active material layer disposed on the current collector, consisting of: an active material composition consisting of: active material consisting of at least one of lithium metal oxide, transition metal oxide and/or carbon based material, and at least one of a polar medium, moisturizing agent, conductive material, binder, dispersant, lithium salt and buffering agent; a conductive layer, disposed between the current collector and the active material layer, comprising a structural network comprising carbon nanotubes and a binder; and a mixed layer; characterized in that said structural network of the conductive layer is partially incorporated in the active material composition layer to form the mixed layer. a current collector; an active material layer disposed on the current collector, consisting of: an active material composition consisting of: active material consisting of at least one of lithium metal oxide, transition metal oxide and/or carbon based material, and at least one of a polar medium, moisturizing agent, conductive material, binder, dispersant, lithium salt and buffering agent; an active material composition consisting of: active material consisting of at least one of lithium metal oxide, transition metal oxide and/or carbon based material, and at least one of a polar medium, moisturizing agent, conductive material, binder, dispersant, lithium salt and buffering agent; active material consisting of at least one of lithium metal oxide, transition metal oxide and/or carbon based material, and at least one of a polar medium, moisturizing agent, conductive material, binder, dispersant, lithium salt and buffering agent; a conductive layer, disposed between the current collector and the active material layer, comprising a structural network comprising carbon nanotubes and a binder; and a mixed layer;
An apparatus comprising a guidance structure; and a housing which has a first flange for connecting the apparatus to a recipient having an inner space and which has a second flange for connecting the apparatus to a high-vacuum pump, characterized in that the guidance structure is arranged and designed as optically dense in such a manner that each molecule passing directly from the inner space through the first flange carries out at least two collisions with the apparatus on the way between the first and second flanges.
Use of a memory device (100; 226; 228; 230; 232; 312) for a replaceable supply component (102; 206; 208; 210; 212) of a printing device (104; 200) for generating a customized color table (110; 328), the memory device comprising: corrective data (106; 322) corresponding with a reference color table (108; 320) stored in another memory device, the another memory device being a memory device of the printing device (104; 200), in which the printing device (104; 200) includes a color saving mode and a standard mode; and the corrective data (106; 322) including a plurality of nodes to be applied to nodes of the reference color table (108; 320) to transform the reference color table (108; 320; 506a; 506b; 506c) to the customized color table (110; 328) for the color saving mode; wherein the memory device is used for generating, by a processor, the customized color table (110; 328) by applying said plurality of nodes of the corrective data (106; 322) comprised in the memory device to said nodes of the reference color table (108; 320) stored in the memory device of the printing device (104; 200) to transform the reference color table (108; 320; 506a; 506b; 506c) to the customized color table (110; 328). corrective data (106; 322) corresponding with a reference color table (108; 320) stored in another memory device, the another memory device being a memory device of the printing device (104; 200), in which the printing device (104; 200) includes a color saving mode and a standard mode; and the corrective data (106; 322) including a plurality of nodes to be applied to nodes of the reference color table (108; 320) to transform the reference color table (108; 320; 506a; 506b; 506c) to the customized color table (110; 328) for the color saving mode; wherein the memory device is used for generating, by a processor, the customized color table (110; 328) by applying said plurality of nodes of the corrective data (106; 322) comprised in the memory device to said nodes of the reference color table (108; 320) stored in the memory device of the printing device (104; 200) to transform the reference color table (108; 320; 506a; 506b; 506c) to the customized color table (110; 328).
A vehicle comprising friction and regenerative (3, 4, 5) braking systems, a sensor operative to detect an obstacle in the vehicle's path and a brake controller operable by a user in an automatic mode in which the brake controller automatically deploys either or both braking systems in order to decelerate the vehicle so that its speed corresponds to that of the obstacle when the vehicle is a predetermined distance from the obstacle, the brake controller being arranged to deploy the braking systems in order to optimise recovery of kinetic energy by the regenerative braking system, and characterised by a user operable brake control having a position part way along its travel at which resistance to further travel temporarily increases and in that initial operation of the brake control causes the brake controller to operate in the automatic mode and operation of the control beyond the position at which resistance to further travel temporarily increases causes the brake controller to operate in a standard mode in which it deploys the braking systems to provide a retarding force on the vehicle which depends on the user's input.
A position adjusting device comprising a component and a support body, whereby the position of the component is moveably adjustable along an axis with respect to the support body, in particular for adjusting the position of a float of a flushing valve of a flush tank; the device further comprising a guide, extending along the axis and attached or attachable to the support body; a releasable locking element, which is connected or joined to the component and engages the guide for locking the component on the guide; and a slide sliding along the axis with respect to the guide and cooperating with the locking element for moving the locking element in both directions along the axis and disengaging the locking element from the guide; the device being characterized in that the guide has a series of coupling seats axially spaced from one another along the axis; and the locking element comprises a substantially C-shaped clip body provided with end teeth apt to engage respective coupling seats.
A resource indication method, comprising: generating, by an access point, uplink resource mapping information, wherein the uplink resource mapping information comprises frame type information and resource indicator, the frame type information is used to indicate a station sends an uplink frame based on the frame type information, wherein a frame type of the uplink frame is indicated by the frame type information; the resource indicator is used to indicate a resource on which the station sends the uplink frame; and sending, by the access point, the uplink resource mapping information. generating, by an access point, uplink resource mapping information, wherein the uplink resource mapping information comprises frame type information and resource indicator, the frame type information is used to indicate a station sends an uplink frame based on the frame type information, wherein a frame type of the uplink frame is indicated by the frame type information; the resource indicator is used to indicate a resource on which the station sends the uplink frame; and sending, by the access point, the uplink resource mapping information.
A swirl ring for a plasma arc torch, the swirl ring comprising: a hollow body having a distal end and a proximal end and configured to receive at least a portion of an electrode within the hollow body, the proximal end configured to attach to a torch body of the plasma arc torch and the distal end configured to attach to a nozzle of the plasma arc torch, the hollow body defining a longitudinal axis extending from the proximal end to the distal end; characterised in that it further comprises a first set of flange segments circumferentially disposed on an interior surface of the hollow body, the first set of flange segments extending radially inward from the interior surface and shaped to retain a first surface of a sealing member; and a second set of flange segments circumferentially disposed on the interior surface of the hollow body, the second set of flange segments extending radially inward from the interior surface and shaped to retain a second surface of the sealing member, wherein the second set of flange segments are spaced distally from the first set of flange segments along the longitudinal axis, and flange segments of the second set of flange segments are radially offset from flange segments of the first set of flange segments. a hollow body having a distal end and a proximal end and configured to receive at least a portion of an electrode within the hollow body, the proximal end configured to attach to a torch body of the plasma arc torch and the distal end configured to attach to a nozzle of the plasma arc torch, the hollow body defining a longitudinal axis extending from the proximal end to the distal end; characterised in that it further comprises a first set of flange segments circumferentially disposed on an interior surface of the hollow body, the first set of flange segments extending radially inward from the interior surface and shaped to retain a first surface of a sealing member; and a second set of flange segments circumferentially disposed on the interior surface of the hollow body, the second set of flange segments extending radially inward from the interior surface and shaped to retain a second surface of the sealing member, wherein the second set of flange segments are spaced distally from the first set of flange segments along the longitudinal axis, and flange segments of the second set of flange segments are radially offset from flange segments of the first set of flange segments.
System for fracturing a plurality of assemblies of wafers, one of the wafers of each assembly comprising an embrittlement plane and each assembly comprising a peripheral lateral groove, the system comprising: - a pod for holding the assemblies of the plurality of assemblies spaced apart and parallel to each other along a storage axis; - a spreading device for applying spreading forces in the peripheral groove of an assembly arranged in a fracture zone of the spreading device, the spreading forces being intended to spread the wafers (2, 5) of the assembly apart so as to initiate the fracture thereof at the embrittlement plane, the system being characterized in that it further comprises: - a drive device configured to move the pod along the storage axis relative to the spreading device so as to successively place an assembly of the pod in the fracture zone of the spreading device. - a pod for holding the assemblies of the plurality of assemblies spaced apart and parallel to each other along a storage axis; - a spreading device for applying spreading forces in the peripheral groove of an assembly arranged in a fracture zone of the spreading device, the spreading forces being intended to spread the wafers (2, 5) of the assembly apart so as to initiate the fracture thereof at the embrittlement plane, - a drive device configured to move the pod along the storage axis relative to the spreading device so as to successively place an assembly of the pod in the fracture zone of the spreading device.