mhurhangee/ep-ind-claims huggingface dataset:
A negative electrode for a lithium secondary battery, comprising: a current collector; and a negative electrode active material layer including a first layer formed on both sides of the current collector and comprising a first carbon-based negative electrode active material, and a second layer formed on the first layer and comprising a second carbon-based negative electrode active material, a DD (Degree of Divergence) value of the first layer is 30 % to 90 % of a DD value of the negative electrode active material layer and, the DD value is defined by Equation 1: DD Degree of Divergence = I a / I total * 100 In Equation 1, I a is a sum of peak intensities at 2θ = 42.4±0.2°, 43.4±0.2°, 44.6±0.2°, and 77.5±0.2° measured by XRD using a CuKα ray, and I total is a sum of peak intensities at 2θ=26.5±0.2°, 42.4±0.2°, 43.4±0.2°, 44.6±0.2°, 54.7±0.2°, and 77.5±0.2° measured by XRD using a CuKα ray, wherein the peak intensities are a peak integral area value, and the first or the second carbon-based negative electrode active material is artificial graphite or a mixture of artificial graphite and natural graphite. a current collector; and a negative electrode active material layer including a first layer formed on both sides of the current collector and comprising a first carbon-based negative electrode active material, and a second layer formed on the first layer and comprising a second carbon-based negative electrode active material, a DD (Degree of Divergence) value of the first layer is 30 % to 90 % of a DD value of the negative electrode active material layer and, the DD value is defined by Equation 1: DD Degree of Divergence = I a / I total * 100 In Equation 1, I a is a sum of peak intensities at 2θ = 42.4±0.2°, 43.4±0.2°, 44.6±0.2°, and 77.5±0.2° measured by XRD using a CuKα ray, and I total is a sum of peak intensities at 2θ=26.5±0.2°, 42.4±0.2°, 43.4±0.2°, 44.6±0.2°, 54.7±0.2°, and 77.5±0.2° measured by XRD using a CuKα ray, wherein the peak intensities are a peak integral area value, and the first or the second carbon-based negative electrode active material is artificial graphite or a mixture of artificial graphite and natural graphite.
A system for image-guided surgery comprising: - a handheld medical tool (310, 320, 330) comprising a shaft and a tip, wherein the shaft of the tool includes an optically detectable non-periodic pattern that allows a position of the tip to be determined, the non-periodic pattern comprising a sequence of elements with a non-periodic pattern in which each subsequence of a given minimal length appears only once; - a visual imaging system configured to detect and track a position of the medical tool independent of which segment of the non-periodic pattern is visible, the visual imaging system being configured to determine the position of the tip based on at least a portion of the non-periodic pattern being detected; and - a display configured to display a real-time representation of the medical tool including the position of the tip based on data received from the visual imaging system, - wherein the visual imaging system is configured to calculate an insertion depth of the medical tool (310, 320, 330) and at least one candidate tip location - wherein the visual imaging system correctly calculates the insertion depth when at least n/k n of the non-periodic pattern is viewable by the visual imaging system, wherein each distinct element of the non-periodic pattern can have k different values and the non-periodic pattern is k n elements long. - a handheld medical tool (310, 320, 330) comprising a shaft and a tip, wherein the shaft of the tool includes an optically detectable non-periodic pattern that allows a position of the tip to be determined, the non-periodic pattern comprising a sequence of elements with a non-periodic pattern in which each subsequence of a given minimal length appears only once; - a visual imaging system configured to detect and track a position of the medical tool independent of which segment of the non-periodic pattern is visible, the visual imaging system being configured to determine the position of the tip based on at least a portion of the non-periodic pattern being detected; and - a display configured to display a real-time representation of the medical tool including the position of the tip based on data received from the visual imaging system, - wherein the visual imaging system is configured to calculate an insertion depth of the medical tool (310, 320, 330) and at least one candidate tip location - wherein the visual imaging system correctly calculates the insertion depth when at least n/k n of the non-periodic pattern is viewable by the visual imaging system, wherein each distinct element of the non-periodic pattern can have k different values and the non-periodic pattern is k n elements long.
A multi-layer card comprising: a central support comprising a central layer and two intermediate layers (4, 5), each adhering to a respective surface (σI, σII) of the central layer; two peripheral layers (6, 7), each adhering to a respective surface (σI, σII) of the central support; and two outer layers (8, 9), each adhering to a respective surface (σI, σII) of a respective peripheral layer (6, 7); the multi-layer card is characterized in that the central layer is provided with an antenna and in that the two intermediate layers (4, 5), the two peripheral layers (6, 7) and the two outer layers (8, 9) are made of recycled polyethylene terephthalate glycol-modified. a central support comprising a central layer and two intermediate layers (4, 5), each adhering to a respective surface (σI, σII) of the central layer; two peripheral layers (6, 7), each adhering to a respective surface (σI, σII) of the central support; and two outer layers (8, 9), each adhering to a respective surface (σI, σII) of a respective peripheral layer (6, 7); the multi-layer card is characterized in that the central layer is provided with an antenna and in that the two intermediate layers (4, 5), the two peripheral layers (6, 7) and the two outer layers (8, 9) are made of recycled polyethylene terephthalate glycol-modified.
Flame resistant shield capable of being used in aeronautics to protect an immediate environment of engine combustion chambers, characterised in that it comprises two opposing walls, between which are placed at least: - one first insulating layer, said first layer being capable of diffusing the heat in the plane formed by said layer by being insulating in the thickness thereof, - one second insulating layer, - one of said opposing walls which covers said first layer, being made of an antioxidant refractory material, or of which at least the face intended to be exposed to flames is covered with a material that prevents the oxidation of this face, - the other wall being a support. - one first insulating layer, said first layer being capable of diffusing the heat in the plane formed by said layer by being insulating in the thickness thereof, - one second insulating layer, - one of said opposing walls which covers said first layer, being made of an antioxidant refractory material, or of which at least the face intended to be exposed to flames is covered with a material that prevents the oxidation of this face, - the other wall being a support.
An extract of Moringa peregrina seed cake predominantly comprising a peptide hydrolyzate which comprises amino acid derivatives, amino acids, peptides and glycopeptides with a molecular weight of between 100 Da and 6000 Da, preferentially between 1500 Da and 5000 Da, more preferentially between 3000 Da and 4500 Da, and characterized in that it is obtained from the unshelled seeds, when the fruit of Moringa peregrina is ripe, by chemical proteolysis at a pH of greater than 13 for a time of about 2 hours at a temperature of between 16 and 25°C.
An overvoltage protection device with a mechanical disconnector that is activated in the case of a thermal overload, the latter comprising connection elements which are movable by means of a spring force-loaded or pre-tensioned slide (4; 20) from a closed position into a current-interrupting or potential-disconnecting position, wherein the closed position of the connection elements is secured by solder or a thermally detachable adhesive, furthermore, the connection elements are composed of a pair of metallic brackets, the ends of which run in parallel and receive the respective contact tab of the overvoltage protection unit, the ends of the brackets facing away from the overvoltage protection unit are mutually connectable while enclosing a free space and have a portion for connection parts, the slide together with a pre-tensioning spring is inserted in the free space, wherein the spring pre-tension is oriented toward the contact tab of the overvoltage protection unit, furthermore, the slide has a wedge shape and/or portions of the respective bracket have an oblique surface so as to produce, when the slide is moved, a force component upon the ends of the brackets running in parallel so that these are movable away from the contact tab, wherein in the area of the ends of the brackets running in parallel and of the contact tab, the solder or adhesive connection is formed, and furthermore the slide (4; 20) has a portion for optically signalizing the respective slide position, and below this portion of the movable slide, a further surface, releasable by the slide, for optically signalizing the disconnection state is provided, characterized in that a support body is provided, at the bottom side of which breakthroughs for the exterior connection parts (13; 14; 22; 28) are formed, wherein the support body has an opening opposite the bottom side for introducing the overvoltage protection unit, furthermore, a chamber is located above the bottom side, which chamber receives the pair of metallic brackets, the slide and the pre-tensioning spring, wherein the respective contact tab of the overvoltage protection unit intrudes into the chamber, and the slide has a first arm directed toward the bottom side, and a second arm directed toward the opening and thus toward the top surface of the support body, wherein the second arm passes into the portion for optically signalizing, and the first arm passes into a portion for triggering a remote fault message device, furthermore, the further surface, releasable by the slide, for optically signalizing the disconnection state is formed as a protrusion of a side wall portion partially covering the opening of the support body, the protrusion together with the side wall portion is formed to be elastically movable, and the protrusion together with the side wall portion is connected to the support body via a film hinge.
An agricultural round bale press comprising a pressing chamber with which there is associated a pick-up and conveyor device for the feed of crop material, comprising a winding device arranged outside the pressing chamber for wrapping pressed round bales with winding material and comprising a running gear for supporting the round bale press with respect to a ground surface, and comprising means (9, 10) for varying a height (h) of the pressing chamber with respect to the ground surface, wherein the height (h) of the pressing chamber is adjustable in dependence on operating states of the round bale press, characterised in that the pressing chamber is adjustable in height (h) between at least one lowered position providing a facilitated feed of crop to the pressing chamber and at least one raised position in which there is a sufficient fall between the pressing chamber and the winding device to cause a pressed round bale to roll from the pressing chamber to the winding device under the force of gravity.
A fluid flow structure, comprising a a fluid dispensing micro device comprising a tapered fluid port and a monolithic molding having a tapered channel therein through which fluid may flow directly into the micro device, wherein the fluid dispensing micro device includes a fluid flow passage connected directly to the channel, and is embedded in the molding, and wherein the micro device is a printhead die that has a thickness less than or equal to 650 μm; wherein the channel is connected to the fluid port, wherein fluid feeds through the fluid port, and wherein the channel is wider than the printing fluid port. includes a fluid flow passage connected directly to the channel, and is embedded in the molding, and
Process for recovery of all or some abrasive elements from an abrasive material in which said abrasive elements are held in a resin with at least one phenolic hydroxyl group, said process being characterised in that it includes steps consisting of: a) bring said abrasive material into contact with an aqueous nitric solution (S 1), as a result of which an aqueous nitric solution (S 2) is obtained containing abrasive elements and residue derived from degradation of said resin; then b) separate the abrasive elements from the aqueous nitric solution (S 2) obtained subsequent to said step (a). a) bring said abrasive material into contact with an aqueous nitric solution (S 1), as a result of which an aqueous nitric solution (S 2) is obtained containing abrasive elements and residue derived from degradation of said resin; then b) separate the abrasive elements from the aqueous nitric solution (S 2) obtained subsequent to said step (a).
A vehicle control device for a vehicle, comprising: a communication unit configured to communicate with a communication device located at a gas station; and a processor configured to control the vehicle to perform autonomous driving based on information received from the communication device, characterised in that the processor is configured to, based on completion of fueling control the vehicle to move to a predetermined region of the gas station according to a control command received from the communication device, the processor is configured to, based on the vehicle being stopped at the predetermined region of the gas station, receive a control signal for operating the vehicle from the communication device, and the control signal is transmitted to the vehicle from the communication device based on a required payment being completed. a communication unit configured to communicate with a communication device located at a gas station; and a processor configured to control the vehicle to perform autonomous driving based on information received from the communication device, characterised in that the processor is configured to, based on completion of fueling control the vehicle to move to a predetermined region of the gas station according to a control command received from the communication device, the processor is configured to, based on the vehicle being stopped at the predetermined region of the gas station, receive a control signal for operating the vehicle from the communication device, and the control signal is transmitted to the vehicle from the communication device based on a required payment being completed.
A method for storing data of a video frame slice in a storage of a computer system comprising a cache, the slice comprising a set of macroblocks, each macroblock comprising one or more partitions, the data of the slice comprising macroblock headers and partition data for partitions of the macroblocks, characterised in that the method comprises: allocating storage for a storage structure based on a maximum number of partitions that are possible for all the macroblocks in the set of macroblocks, the set of macroblocks comprising a plurality of partitions that is less than said maximum number, the allocated storage comprising: a first continuous section for storing headers and partition data of the set of macroblocks, wherein the partition data comprises used partition entries containing data for a partition of a macroblock of the set of macroblocks; and a second continuous section not used for headers and partition data of the set of macroblocks; storing (815, 817) the headers and partition data of the set of macroblocks in the first continuous section; and retrieving a set of partition data from the first continuous section, the set of partition data comprising used partition entries from the set of macroblocks, wherein the set of partition data does not include any unused partition entries. allocating storage for a storage structure based on a maximum number of partitions that are possible for all the macroblocks in the set of macroblocks, the set of macroblocks comprising a plurality of partitions that is less than said maximum number, the allocated storage comprising: a first continuous section for storing headers and partition data of the set of macroblocks, wherein the partition data comprises used partition entries containing data for a partition of a macroblock of the set of macroblocks; and a second continuous section not used for headers and partition data of the set of macroblocks; storing (815, 817) the headers and partition data of the set of macroblocks in the first continuous section; and retrieving a set of partition data from the first continuous section, the set of partition data comprising used partition entries from the set of macroblocks, wherein the set of partition data does not include any unused partition entries. a first continuous section for storing headers and partition data of the set of macroblocks, wherein the partition data comprises used partition entries containing data for a partition of a macroblock of the set of macroblocks; and a second continuous section not used for headers and partition data of the set of macroblocks; storing (815, 817) the headers and partition data of the set of macroblocks in the first continuous section; and retrieving a set of partition data from the first continuous section, the set of partition data comprising used partition entries from the set of macroblocks, wherein the set of partition data does not include any unused partition entries.
A test contactor for a ribbon cable, comprising: - a base with a plurality of pin recesses; - a plurality of contact pins, each of which are arranged in the pin recesses of the base; - a pressure plate, which is movably mounted relative to the base and can be displaced between an open position and a closed position; wherein the base and the pressure plate in the open position form a cable run, wherein the cable run has an insertion opening, lateral guides, an upper guide surface, a lower guide surface, and an end stop, wherein a ribbon cable can be introduced into the cable run along its longitudinal direction through the insertion opening and can be brought into an inserting end position, wherein in the inserting end position a front edge of the ribbon cable abuts the end stop, wherein, in the closed position, exposed wires of the ribbon cable in the inserting end position can be pressed to each of the contact pins by means of the pressure plate, wherein the base is arranged on a PCB, wherein a pressing surface of the pressure plate forms the upper guide surface and a support surface of the base forms the lower guide surface of the cable run, wherein the lateral guides are arranged at a distance to one another which approximately corresponds to the width of the ribbon cable, wherein the contact pins are connected with conductor paths of the PCB, wherein the pin recesses extend through the base in a direction perpendicular to a flat side of the ribbon cable in the inserting end position, and wherein the contact pins each extend through the corresponding pin recesses. - a base with a plurality of pin recesses; - a plurality of contact pins, each of which are arranged in the pin recesses of the base; - a pressure plate, which is movably mounted relative to the base and can be displaced between an open position and a closed position; wherein the base and the pressure plate in the open position form a cable run, wherein the cable run has an insertion opening, lateral guides, an upper guide surface, a lower guide surface, and an end stop, wherein a ribbon cable can be introduced into the cable run along its longitudinal direction through the insertion opening and can be brought into an inserting end position, wherein in the inserting end position a front edge of the ribbon cable abuts the end stop, wherein, in the closed position, exposed wires of the ribbon cable in the inserting end position can be pressed to each of the contact pins by means of the pressure plate, wherein the base is arranged on a PCB, wherein a pressing surface of the pressure plate forms the upper guide surface and a support surface of the base forms the lower guide surface of the cable run, wherein the lateral guides are arranged at a distance to one another which approximately corresponds to the width of the ribbon cable, wherein the contact pins are connected with conductor paths of the PCB, wherein the pin recesses extend through the base in a direction perpendicular to a flat side of the ribbon cable in the inserting end position, and wherein the contact pins each extend through the corresponding pin recesses.
A lighting device for a vehicle lighting and/or signalling lamp, in particular for rear lamps, characterized in that it includes in a casing: - at least one LED light source, fastened to an opaque support (4, 9) including a lighting aperture for the passage of the light to be diffused indirectly towards the observer, - a first opaque diffusing element located upstream from the lighting aperture and adapted to reflect and diffuse the light coming from the light source towards the aperture, - a second translucent diffusing element located downstream from the first diffusing element facing the lighting aperture and intended to transmit and diffuse the light reflected and diffused by the first diffusing element, - a third translucent diffusing element located downstream from the second diffusing element and adapted to transmit and diffuse the light coming from the second diffusing element towards the outside of the concerned lamp, said third diffusing element contributing to the geometry of the lamp at the lighted state and defining a diffusion volume by its profile projecting outwards from the lamp at the lighting aperture. - at least one LED light source, fastened to an opaque support (4, 9) including a lighting aperture for the passage of the light to be diffused indirectly towards the observer, - a first opaque diffusing element located upstream from the lighting aperture and adapted to reflect and diffuse the light coming from the light source towards the aperture, - a second translucent diffusing element located downstream from the first diffusing element facing the lighting aperture and intended to transmit and diffuse the light reflected and diffused by the first diffusing element, - a third translucent diffusing element located downstream from the second diffusing element and adapted to transmit and diffuse the light coming from the second diffusing element towards the outside of the concerned lamp, said third diffusing element contributing to the geometry of the lamp at the lighted state and defining a diffusion volume by its profile projecting outwards from the lamp at the lighting aperture.