mhurhangee/ep-ind-claims huggingface dataset:
Method for producing an electrode, comprising at least the steps of: a) providing constituent support material of the electrode, termed material, said material being capable of forming a current collector and consisting, at least on the surface, of at least one transition metal in zero oxidation state and/or of a transition metal oxide, b) contacting some or all of said material directly, in a reactor, with at least one lithium source, said contacting being carried out at a temperature at least equal to the melting temperature of said lithium source, and under conditions favouring the formation of a coating of at least one lithiated transition metal oxide, as active material, at the interface between said material and said lithium source, characterized in that the metal in zero oxidation state and/or the metal oxide present in contact with said material and with said lithium source form/forms the source of transition metal intended for thermal interaction with the lithium to form said active material, said method being carried out in molten salt. a) providing constituent support material of the electrode, termed material, said material being capable of forming a current collector and consisting, at least on the surface, of at least one transition metal in zero oxidation state and/or of a transition metal oxide, b) contacting some or all of said material directly, in a reactor, with at least one lithium source, said contacting being carried out at a temperature at least equal to the melting temperature of said lithium source, and under conditions favouring the formation of a coating of at least one lithiated transition metal oxide, as active material, at the interface between said material and said lithium source,
Surface burner having a distribution plate and a burner surface, which has at least a first fibre knit, and having a mixing chamber from which a fuel-air mixture is guided through the distribution plate to the burner surface, wherein the distribution plate has a monitoring region and a main region, wherein the fuel-air mixture flows through the first fibre knit in the main region, characterized in that the fuel-air mixture is uninfluenced by the first fibre knit in the monitoring region, wherein the monitoring region is free from the first fibre knit such that the distribution plate can be seen.
Blade arrangement for a motor-driven garden cutting device including a first blade and a second blade movable in an oscillating pivoting way around a blade pivot relative to this first blade, which second blade is formed by a flexibly bendable blade plate and has multiple cutting teeth in a cutting region, wherein the blade plate is pulled in the direction of the first blade transverse to its plate surface at the blade pivot and is supported on the one hand by elastic bending deformation at a first support position facing away from the blade axis relative to the cutting region and is supported on the other hand against the first blade in the cutting region, and thereby an opposing force is offered to a flexural force directed from the first blade perpendicularly away from the plate surface and caused by cutting through the material to be cut, characterized in that mechanical means for increasing the opposing force are provided.
A flexible OLED display (100, 200, 300, 400), comprising: a flexible substrate (110, 210, 310, 410) having a display area and a bending area adjacent to the display area; a display unit (120, 220, 320, 420) in the display area of the flexible substrate (110, 210, 310, 410), the display unit (120, 220, 320, 420) having a thin-film transistor (160, 460) and an OLED element (170, 470); a wire (140, 240, 340, 440) electrically connected to the display unit in the display area and extending into the bending area of the flexible substrate (110, 210, 310, 410), the wire (140, 240, 340, 440) having a trace pattern arranged in an orthogonal direction relative to a boundary between the display area and the bending area of the flexible substrate (110, 210, 310, 410); and an upper insulating pattern (151, 152, 153) on the wire (140, 240, 340, 440), the upper insulating pattern having substantially the same trace pattern (151, 152, 153; 251, 252, 253; 351, 352, 353; 451, 452, 453) as the wire (140, 240, 340, 440) thereunder, characterized in that the flexible OLED display further comprises a lower insulating layer (130, 230, 330, 430) between the flexible substrate and the wire in the bending area, wherein the lower insulating layer (230, 330, 430) includes a lower insulating pattern (131, 132, 133; 231, 232, 233, 234, 235; 341, 342, 343; 431, 432, 433, 434, 435) extending perpendicular to the bending direction, wherein the lower insulating pattern (431, 432, 433, 434, 435) has at least two insulating layers (436, 437) of different cross-sectional widths being stacked on each other, including a first base insulating layer and a second base insulating layer stacked on the first base insulating layer, wherein the cross-sectional width N 1 of the first base insulating layer is wider than the cross-sectional width N 2 of the second based insulating layer, so that the lower insulating pattern has a stair-like structure.
A battery module comprising: a battery cell stack in which a plurality of battery cells are stacked, and a frame member accommodating the battery cell stack and having an upper surface and a lower surface corresponding to each other, wherein an injection hole for injecting a thermally conductive resin is formed in the lower surface of the frame member, and wherein an insertion hole through which a protrusion of a supporting jig passes is formed in the upper surface of the frame member. a battery cell stack in which a plurality of battery cells are stacked, and a frame member accommodating the battery cell stack and having an upper surface and a lower surface corresponding to each other, wherein an injection hole for injecting a thermally conductive resin is formed in the lower surface of the frame member, and wherein an insertion hole through which a protrusion of a supporting jig passes is formed in the upper surface of the frame member.
A gas turbine engine comprising: a turbine section;; a main exhaust nozzle configured to direct a main exhaust from the turbine section a cowl disposed radially outward of the main exhaust nozzle, wherein an annular flow channel is defined between the cowl and a static structure, wherein the cowl comprises a static portion and a moveable portion, wherein the moveable portion is engaged to the static portion and is configured to rotate circumferentially and translate axially relative to the static portion, wherein movement of the moveable portion relative to the static portion changes a radial dimension of the annular flow channel, characterised in that the moveable portion is engaged to the static portion via helical threads and is thus configured to rotate circumferentially and translate axially relative to the static portion, wherein the static structure is a component of, or is disposed radially outward of the main exhaust nozzle. a turbine section;; a main exhaust nozzle configured to direct a main exhaust from the turbine section a cowl disposed radially outward of the main exhaust nozzle, wherein an annular flow channel is defined between the cowl and a static structure, wherein the cowl comprises a static portion and a moveable portion, wherein the moveable portion is engaged to the static portion and is configured to rotate circumferentially and translate axially relative to the static portion, wherein movement of the moveable portion relative to the static portion changes a radial dimension of the annular flow channel, characterised in that the moveable portion is engaged to the static portion via helical threads and is thus configured to rotate circumferentially and translate axially relative to the static portion, wherein the static structure is a component of, or is disposed radially outward of the main exhaust nozzle.
An imaging system mounted on an unmanned aerial vehicle, comprising: an image sensor; an imaging device including an optical member disposed in front of the image sensor and a determining unit for determining an orientation of the optical member; a first control unit for vibrating the optical member when the orientation of the optical member fulfills preset conditions; and a second control unit for controlling an orientation of the imaging device; the imaging system being characterized in that the determining unit is configured to identify an elevation of the UAV as the height of the imaging system, and in that the second control unit is configured to control the orientation of the imaging device to face downward when the height of the imaging system reaches at least a preset height, and in that the first control unit is configured to vibrate the optical member when the height of the imaging system reaches at least the preset height after the UAV takes off and when the optical member is below the image sensor in a vertical direction.; an image sensor; an imaging device including an optical member disposed in front of the image sensor and a determining unit for determining an orientation of the optical member; a first control unit for vibrating the optical member when the orientation of the optical member fulfills preset conditions; and a second control unit for controlling an orientation of the imaging device; the imaging system being characterized in that the determining unit is configured to identify an elevation of the UAV as the height of the imaging system, and in that the second control unit is configured to control the orientation of the imaging device to face downward when the height of the imaging system reaches at least a preset height, and in that the first control unit is configured to vibrate the optical member when the height of the imaging system reaches at least the preset height after the UAV takes off and when the optical member is below the image sensor in a vertical direction.;
A backpack comprising: a. a container; b. a frame; c. a hip belt, said hip belt comprising a buckle; d. a horizontal spring hip bar; characterized in that it further comprises e. a first vertical support rod; f. a second vertical support rod; g. a horizontal pivot shoulder bar; and h. a horizontal pivot shoulder bar channel; wherein: i. said container is mounted on said frame; j. each end of said horizontal spring hip bar is pivotally attached to said hip belt; k. the center of said horizontal spring hip bar is pivotally attached to said frame at about the centerline of said frame; l. said horizontal pivot shoulder bar passes through said horizontal pivot shoulder bar channel; m. said horizontal pivot shoulder bar is pivotally attached to about the center line of said frame such that the ends of said horizontal pivot shoulder bar may move in alternate vertical directions; n. said horizontal pivot shoulder bar channel is horizontally attached to said frame; o. the ends of said horizontal pivot shoulder bar extend beyond the sides of said frame; p. the top of said first vertical support bar is pivotally attached to one end of said horizontal pivot shoulder bar; q. the top of said second vertical support bar is pivotally attached to the other end of said horizontal pivot shoulder bar; r. the bottom of said first vertical support bar is pivotally attached to one end of said horizontal spring hip bar; and s. the bottom of said second vertical support bar is pivotally attached to the other end of said horizontal spring bar. a. a container; b. a frame; c. a hip belt, said hip belt comprising a buckle; d. a horizontal spring hip bar; characterized in that it further comprises e. a first vertical support rod; f. a second vertical support rod; g. a horizontal pivot shoulder bar; and h. a horizontal pivot shoulder bar channel; i. said container is mounted on said frame; j. each end of said horizontal spring hip bar is pivotally attached to said hip belt; k. the center of said horizontal spring hip bar is pivotally attached to said frame at about the centerline of said frame; l. said horizontal pivot shoulder bar passes through said horizontal pivot shoulder bar channel; m. said horizontal pivot shoulder bar is pivotally attached to about the center line of said frame such that the ends of said horizontal pivot shoulder bar may move in alternate vertical directions; n. said horizontal pivot shoulder bar channel is horizontally attached to said frame; o. the ends of said horizontal pivot shoulder bar extend beyond the sides of said frame; p. the top of said first vertical support bar is pivotally attached to one end of said horizontal pivot shoulder bar; q. the top of said second vertical support bar is pivotally attached to the other end of said horizontal pivot shoulder bar; r. the bottom of said first vertical support bar is pivotally attached to one end of said horizontal spring hip bar; and s. the bottom of said second vertical support bar is pivotally attached to the other end of said horizontal spring bar.
A method for processing an inputted perfusion sequence representing a stack of a plurality of images successively depicting passage of a fluid within a body part over time and presenting n≥3 dimensions including at least two spatial dimensions and one temporal dimension, by means of a convolutional neural network, CNN, the method comprising the implementation, by a data processor of a second server, of steps of: (b) extracting, using an encoder branch of the CNN, a plurality of initial n+1-dimensional features maps representative of the inputted perfusion sequence at different scales, said CNN further comprising a decoder branch and skip connections between the encoder branch and the decoder branch, wherein each skip connection projects one of the initial n+1-dimensional features maps into one of a plurality of initial n-dimensional feature maps; (c) generating, using said decoder branch of the CNN, a plurality of enriched n-dimensional feature maps also representative of the inputted perfusion sequence at different scales, each enriched n-dimensional feature map incorporating the information from the initial n-dimensional feature maps of smaller or equal scale; (d) generating at least one quantitative map of a parameter characterizing perfusion over the body part from the largest-scale enriched n-dimensional feature maps. (b) extracting, using an encoder branch of the CNN, a plurality of initial n+1-dimensional features maps representative of the inputted perfusion sequence at different scales, said CNN further comprising a decoder branch and skip connections between the encoder branch and the decoder branch, wherein each skip connection projects one of the initial n+1-dimensional features maps into one of a plurality of initial n-dimensional feature maps; (c) generating, using said decoder branch of the CNN, a plurality of enriched n-dimensional feature maps also representative of the inputted perfusion sequence at different scales, each enriched n-dimensional feature map incorporating the information from the initial n-dimensional feature maps of smaller or equal scale; (d) generating at least one quantitative map of a parameter characterizing perfusion over the body part from the largest-scale enriched n-dimensional feature maps.
Rotor stage of an axial turbine comprising a shaft, adapted to rotate around an axis, and a plurality of blades having at least one airfoil portion which extends in a substantially radial direction normal to the axis; at a first radial distance from the axis, there being arranged a number of airfoil portions lower than the number of airfoil portions which are arranged at a second radial distance from the axis; the first radial distance being smaller than the second radial distance; said rotor stage comprising a plurality of bearing blades (2, 20), each of which comprises a root (3, 30), a root top (13, 130), a blade tip (4, 40) and an airfoil portion (5, 50), having a suction side and a pressure side and extending from the root top (13, 130) to the blade tip (4, 40) in a substantially radial direction, said rotor stage further comprising a plurality of additional blades, each of which comprises a blade tip, a base, an airfoil portion, extending from the base to the blade tip in a substantially radial direction; said rotor stage being characterized in that said root (3, 30) is adapted to constrain the bearing blade to the shaft; and in each additional blade comprising a foot extending from the base in a substantially tangential direction normal to the axis and to the radial direction, said bearing blades (2, 20) comprising a first and second rest element (11, 12) extending from the suction and the pressure sides of the airfoil portion, respectively, in a substantially tangential direction, said foot being adapted to constrain to the rest elements (11, 120) of two subsequent bearing blades, to connect the additional blade to said two subsequent bearing blades (2, 20).
Loading method for a machine, in particular for a bending machine, having a tool transfer device, a tool holder of the machine tool, and a tool rack, wherein the tool holder and the tool rack are connected via a guide track, and the tool-transfer device is arranged so as to be movable along the guide track, and wherein machining tools, in particular bending tools, are arranged in the tool holder and/or in the tool rack, and the tool-transfer device has a magnetic holding device, comprising the steps: • moving the tool-transfer device to a machining tool, which is arranged in a pick-up position in the tool holder or in the tool rack; • picking up and holding the machining tool by means of a magnetic holding device of the tool-transfer device; • moving the picked-up machining tool along the guide track to a deposition position in the tool rack or in the tool holder; • depositing the machining tool by deactivation of the magnetic retaining force; characterized in that the magnetic holding device has an electromagnet having an electronic actuation device, wherein, upon deactivation of the magnetic retaining force, a demagnetization is performed by the actuation device and the tool-transfer device has an electrical energy reservoir connected to the actuation device and a charging contact connected to the energy reservoir, wherein, after moving the tool-transfer device along the guide track into a parked position, the charging contact of the tool-transfer device is brought into connection with a charging terminal of the waiting position. • moving the tool-transfer device to a machining tool, which is arranged in a pick-up position in the tool holder or in the tool rack; • picking up and holding the machining tool by means of a magnetic holding device of the tool-transfer device; • moving the picked-up machining tool along the guide track to a deposition position in the tool rack or in the tool holder; • depositing the machining tool by deactivation of the magnetic retaining force;
Method for providing a filter to organize graphical elements to be displayed on a screen of a mobile communication device, wherein the graphical elements are associated with data items, wherein the method comprises the following steps; - displaying a list of filter attributes on the screen, wherein the filter attributes are properties of the data items; - enabling a selection of individual filter attributes from the list to a user of the mobile communication device; - saving by means of the mobile communication device filter attributes selected by the user as a new filter wherein the method is characterized by the step of: - displaying a filter button on the screen of the mobile communication device enabling the user to filter all stored data items according to specific properties; wherein - the activation of the filter button calls up a quick menu containing soft keys associated with defined filter functions, wherein the rest of the screen and the icons outside the quick menu are disabled. - displaying a list of filter attributes on the screen, wherein the filter attributes are properties of the data items; - enabling a selection of individual filter attributes from the list to a user of the mobile communication device; - saving by means of the mobile communication device filter attributes selected by the user as a new filter wherein the method is characterized by the step of: - displaying a filter button on the screen of the mobile communication device enabling the user to filter all stored data items according to specific properties; wherein - the activation of the filter button calls up a quick menu containing soft keys associated with defined filter functions, wherein the rest of the screen and the icons outside the quick menu are disabled.
A steel strip that has a coating of an Al-Zn-Si alloy that contains: Al: 45 to 60 wt.% Zn: 35 to 50 wt.% Si: 1.2 to 2.5 wt.% Mg: 1.0 to 3.0 wt.% V: 0.01 to 0.2 wt.%; and Balance: optionally other deliberate alloy additions consisting of one or more of Fe, Cr, Mn, Sr, and Ca, and unavoidable impurities.
A communication signal transmission method, comprising: receiving (101, 301), by a multi-frequency receiver, Radio Frequency, RF, signals from an antenna, and dividing the RF signals into RF signals of different frequency bands by frequency bands, characterized in that the method further comprises: sending (102, 302), by the multi-frequency receiver, a first group of RF signals of a first frequency band to a first RF unit through a RF interface, thereby the first RF unit converts the received RF signals into first baseband digital signals and sends the first baseband digital signals to a baseband processing unit; and converting (102, 302), by the multi-frequency receiver, remaining RF signals of the first frequency band into second baseband digital signals, and sending the second baseband digital signals to the baseband processing unit through a Common Public Radio Interface, CPRI; wherein the first frequency band is one of the different frequency bands. sending (102, 302), by the multi-frequency receiver, a first group of RF signals of a first frequency band to a first RF unit through a RF interface, thereby the first RF unit converts the received RF signals into first baseband digital signals and sends the first baseband digital signals to a baseband processing unit; and converting (102, 302), by the multi-frequency receiver, remaining RF signals of the first frequency band into second baseband digital signals, and sending the second baseband digital signals to the baseband processing unit through a Common Public Radio Interface, CPRI; wherein the first frequency band is one of the different frequency bands.
A beverage cartridge for use with a container-based beverage dispensing system, the cartridge comprising: a pod that includes a chamber, an opening, and a sealing cover disposed over the opening, wherein the sealing cover is attached to edges of the opening; a beverage ingredient disposed within the chamber; characterized in that the beverage cartridge further comprises: a cap attached to the pod; wherein the cap includes a retainer with a cut-out portion creating one or more flaps on the retainer that fold with pressure thereby breaking the sealing cover and releasing the beverage ingredient. a pod that includes a chamber, an opening, and a sealing cover disposed over the opening, wherein the sealing cover is attached to edges of the opening; a beverage ingredient disposed within the chamber; characterized in that the beverage cartridge further comprises: a cap attached to the pod; wherein the cap includes a retainer with a cut-out portion creating one or more flaps on the retainer that fold with pressure thereby breaking the sealing cover and releasing the beverage ingredient. a cap attached to the pod; wherein the cap includes a retainer with a cut-out portion creating one or more flaps on the retainer that fold with pressure thereby breaking the sealing cover and releasing the beverage ingredient.