mhurhangee/ep-ind-claims huggingface dataset:
A package for displaying and storing consumable products comprising a first container having a front wall and a back wall hingedly connected to a second container having a front wall and a back wall between at least a first position, in which the first and second containers (14a, 14b) are positioned in a side-by-side arrangement wherein the front walls (26a, 26b) of each of the first and second containers (14a, 14b) are oriented in opposing directions and a second position in which the first and second containers (14a, 14b) are positioned in a front-to-back arrangement, wherein the front walls (26a, 26b) of each of the first and second containers (14a, 14b) are oriented in the same direction, wherein the first and second containers (14a, 14b) comprise respective first and second viewable areas allowing a consumer to see through a portion of the package in the first and second positions, wherein each of the first and second containers (14a, 14b) further comprises two side walls (20a, 20b, 20c, 20d), wherein each of the side walls (20a, 20b, 20c, 20d) comprises a curved portion (22a, 22b) extending downwardly from the back wall (24a, 24b) to the front wall (26a, 26b).
A method for limiting a driver acceleration request, the method comprising: - receiving a driver acceleration request; - initiating a limiting protocol, wherein the limiting protocol includes: detecting a preceding vehicle of the host vehicle and obtaining sensor data associated with the distance of the host vehicle to the preceding vehicle; comparing the sensor data to a distance threshold for safe distance between vehicles; outputting a vehicle acceleration order (28,29) wherein acceleration of the vehicle is limited in comparison to the acceleration request if the sensor data is below the distance threshold, characterized in that prior to initiating the limiting protocol, the method comprises determining whether the driver acceleration request is below an acceleration threshold; the limiting protocol being initiated if the driver acceleration request is below the acceleration threshold - receiving a driver acceleration request; - initiating a limiting protocol, wherein the limiting protocol includes: detecting a preceding vehicle of the host vehicle and obtaining sensor data associated with the distance of the host vehicle to the preceding vehicle; comparing the sensor data to a distance threshold for safe distance between vehicles; outputting a vehicle acceleration order (28,29) wherein acceleration of the vehicle is limited in comparison to the acceleration request if the sensor data is below the distance threshold, characterized in that prior to initiating the limiting protocol, the method comprises determining whether the driver acceleration request is below an acceleration threshold; the limiting protocol being initiated if the driver acceleration request is below the acceleration threshold detecting a preceding vehicle of the host vehicle and obtaining sensor data associated with the distance of the host vehicle to the preceding vehicle; comparing the sensor data to a distance threshold for safe distance between vehicles; outputting a vehicle acceleration order (28,29) wherein acceleration of the vehicle is limited in comparison to the acceleration request if the sensor data is below the distance threshold, characterized in that prior to initiating the limiting protocol, the method comprises determining whether the driver acceleration request is below an acceleration threshold; the limiting protocol being initiated if the driver acceleration request is below the acceleration threshold
A system (500, 1300) for rendering sound using reflected sound elements, comprising: an array of audio drivers for distribution around a listening environment, wherein at least one driver of the array of audio drivers is an upward-firing driver, which is configured to project sound waves toward one or more surfaces of the listening environment for reflection to a listening area within the listening environment; a renderer configured to receive and process a bitstream including audio streams and one or more metadata sets that are associated with each of the audio streams and that specify a playback location in the listening environment of a respective audio stream, wherein the audio streams comprise one or more reflected audio streams and one or more direct audio streams; and a playback component coupled to the renderer and configured to render the audio streams to a plurality of audio feeds corresponding to the array of audio drivers in accordance with the one or more metadata sets, and wherein the one or more reflected audio streams are transmitted to the at least one upward-firing driver, characterized in that the system performs signal processing to introduce perceptual height cues into the one or more reflected audio streams transmitted to the at least one upward-firing driver. an array of audio drivers for distribution around a listening environment, wherein at least one driver of the array of audio drivers is an upward-firing driver, which is configured to project sound waves toward one or more surfaces of the listening environment for reflection to a listening area within the listening environment; a renderer configured to receive and process a bitstream including audio streams and one or more metadata sets that are associated with each of the audio streams and that specify a playback location in the listening environment of a respective audio stream, wherein the audio streams comprise one or more reflected audio streams and one or more direct audio streams; and a playback component coupled to the renderer and configured to render the audio streams to a plurality of audio feeds corresponding to the array of audio drivers in accordance with the one or more metadata sets, and wherein the one or more reflected audio streams are transmitted to the at least one upward-firing driver, characterized in that the system performs signal processing to introduce perceptual height cues into the one or more reflected audio streams transmitted to the at least one upward-firing driver.
An electrode comprising: a current collector; and an active material containing-layer that is formed on the current collector and comprises active material particles containing at least one selected from a niobium titanium composite oxide and a composite oxide expressed by a general formula of Li x M1 1-y M2 y Ti 6-z M3 z O 14+δ, wherein M1 is at least one kind which is selected from a group consisting of Sr, Ba, Ca, and Mg, M2 is at least one kind which is selected from a group consisting of Cs, K and Na, M3 is at least one kind which is selected from a group consisting of Al, Fe, Zr, Sn, V, Nb, Ta and Mo, and x is within a range of 2 ≤ x ≤ 6, y is within a range of 0 < y < 1, z is within a range of 0 < z ≤ 6, and δ is within a range of -0.5 ≤ δ ≤ 0.5, characterized in that the active material particles comprise primary particles having an average particle diameter within a range of 0.1 μm to 10 μm and secondary particles having an average particle diameter within a range of 1 μm to 30 μm, a pore diameter distribution of the active material containing-layer obtained by mercury porosimetry has a first peak, which has a maximum value within a range of 0.01 μm to 2 μm, and a second peak which has a maximum value within a range exceeding 6 μm and equal to or smaller than 20 μm, and an intensity of the second peak is 1/10 to 1/5 an intensity of the first peak.
A data processing method, wherein the method is applied to a storage system, and the storage system comprises a host and a flash device, wherein multiple over provisioning levels are configured for physical storage space of the flash device according to multiple different over provisioning ratios, each over provisioning level is corresponding to an interval of a user storage space capacity, the over provisioning ratio is a ratio of an over provisioning space capacity to the user storage space capacity, and if the flash device has not been used or formatted, the over provisioning space capacity is set according to a default over provisioning level; and the method is performed by the flash device and comprises: receiving an operation instruction sent by the host; performing, according to the operation instruction, an operation on data stored in the flash device; determining a size of data that is obtained after the operation and that is saved in the flash device by a user; determining a target over provisioning level corresponding to an interval of the user storage space capacity according to the size of the data that is obtained after the operation and that is saved in the flash device by the user; and adjusting the over provisioning space capacity of the flash device based on the target over provisioning level. receiving an operation instruction sent by the host; performing, according to the operation instruction, an operation on data stored in the flash device; determining a size of data that is obtained after the operation and that is saved in the flash device by a user; determining a target over provisioning level corresponding to an interval of the user storage space capacity according to the size of the data that is obtained after the operation and that is saved in the flash device by the user; and adjusting the over provisioning space capacity of the flash device based on the target over provisioning level.
Piercing connector configured for making an insulation-piercing contact with a first electric wire, wherein the first electric wire comprises a stranded core of electrically conductive material and an insulating sheath of electrically insulating material, wherein the piercing connector comprises a base having an inlay section for the first electric wire and a tightening section, and a tightening knob, wherein the inlay section comprises a head and at one side thereof an insert slot for inserting the first electric wire into the head from aside, and wherein the tightening section comprises a shaft with an outer thread and an inner channel in which a clamping mechanism is enclosed, and wherein the tightening knob comprises a hood with an inner thread around the outer thread of the shaft, characterized in that the insert slot is a blind insert slot, wherein the tightening knob comprises a metal needle that extends from the hood through the shaft towards the insert slot, and wherein the clamping mechanism comprises a first wire clamp comprising a first clamping body with a first clamping claw that is slidable through the inner channel between a retracted position in which the first electric wire can be inserted in the insert slot, and a clamping position in which the first clamping claw engages the first electric wire inside the insert slot, wherein the first wire clamp comprises a first protrusion that is displaceable with respect to the first clamping body between a projecting position in which it is engaged by the tightening knob to move the first wire clamp along with the tightening knob, and a retracted position in which the tightening knob passes the first protrusion and the needle penetrates the insulating sheath, wherein the first protrusion retracts with respect to the first clamping body after a first threshold force exerted by the tightening knob on the first protrusion is exceeded.
Method of dispensing a liquid, comprising the steps: - providing a liquid vessel including the liquid to be dispensed, - providing a liquid dispenser having a dispensing opening and being fluidically connected via a tube with the liquid vessel, - supplying the liquid from the liquid vessel to the liquid dispenser wherein a hydrostatical working pressure is applied to the liquid, and - dispensing the liquid with the liquid dispenser, wherein - the hydrostatical working pressure is controlled by adjusting a liquid level of the liquid in the liquid vessel characterized in that - the liquid level in the liquid vessel is adjusted to match a vertical position of the dispensing opening or to be lower than the vertical position of the dispensing opening. - providing a liquid vessel including the liquid to be dispensed, - providing a liquid dispenser having a dispensing opening and being fluidically connected via a tube with the liquid vessel, - supplying the liquid from the liquid vessel to the liquid dispenser wherein a hydrostatical working pressure is applied to the liquid, and - dispensing the liquid with the liquid dispenser, wherein - the hydrostatical working pressure is controlled by adjusting a liquid level of the liquid in the liquid vessel characterized in that - the liquid level in the liquid vessel is adjusted to match a vertical position of the dispensing opening or to be lower than the vertical position of the dispensing opening.
A compound of Formula (Ia), (Ib), or (Ic): or an enantiomer, diastereoisomer, atropisomer, or a mixture thereof, or a pharmaceutically acceptable salt thereof; wherein: R 1a is selected from fluoro, chloro, methyl, -O-CF 3, or CF 3; R 2 is H, halo, C 1-6 alk, or C 1-6 haloalk; R 3 is C 1-6 alk, C 1-6 haloalk, -O-C 1-6 alk, or -CN; R 4 is a 5- to 6-membered heteroaryl; each of R 6 and R 7 is hydrogen; and each of R 5a; R 5b;R 5c; R 5d; and R 5e is independently hydrogen or halo. or an enantiomer, diastereoisomer, atropisomer, or a mixture thereof, or a pharmaceutically acceptable salt thereof; wherein: R 1a is selected from fluoro, chloro, methyl, -O-CF 3, or CF 3; R 2 is H, halo, C 1-6 alk, or C 1-6 haloalk; R 3 is C 1-6 alk, C 1-6 haloalk, -O-C 1-6 alk, or -CN; R 4 is a 5- to 6-membered heteroaryl; each of R 6 and R 7 is hydrogen; and each of R 5a; R 5b;R 5c; R 5d; and R 5e is independently hydrogen or halo.
A sprinkler, comprising - a sprinkler housing, - a fluid channel which is provided in the sprinkler housing and has a fluid inlet and at least one fluid outlet, - a closure element which is movable from a blocking position into a release position, wherein the closure element closes the fluid channel in the blocking position and releases same in the release position, - a thermally activated triggering element retaining the closure element in the blocking position until thermally activated, and a sealing element which is interposed between the sprinkler housing and the closure element and is configured to close the fluid channel in a fluid-tight manner in the blocking position wherein the sealing element is radially and axially compressed in the blocking position in order to apply the sealing effect, wherein in the blocking position, the sealing element is pressed against a sealing surface which expands in a release direction, and the expanding sealing surface is formed on the sprinkler housing, characterized in that the closure element has circumferential groove in which the sealing element sits, the closure element has a radially extending sealing surface against which the sealing element is pressed in the blocking position, and the sealing element is configured to still be compressed further and be pressed more strongly in the direction of the expanding sealing surface at the sprinkler housing and of the radially extending sealing surface of the closure element when the pressure on the inlet side of the sprinkler rises from a value P 1 to value P 2. - a sprinkler housing, - a fluid channel which is provided in the sprinkler housing and has a fluid inlet and at least one fluid outlet, - a closure element which is movable from a blocking position into a release position, wherein the closure element closes the fluid channel in the blocking position and releases same in the release position, - a thermally activated triggering element retaining the closure element in the blocking position until thermally activated, and a sealing element which is interposed between the sprinkler housing and the closure element and is configured to close the fluid channel in a fluid-tight manner in the blocking position wherein the sealing element is radially and axially compressed in the blocking position in order to apply the sealing effect, wherein in the blocking position, the sealing element is pressed against a sealing surface which expands in a release direction, and the expanding sealing surface is formed on the sprinkler housing, characterized in that the closure element has circumferential groove in which the sealing element sits, the closure element has a radially extending sealing surface against which the sealing element is pressed in the blocking position, and the sealing element is configured to still be compressed further and be pressed more strongly in the direction of the expanding sealing surface at the sprinkler housing and of the radially extending sealing surface of the closure element when the pressure on the inlet side of the sprinkler rises from a value P 1 to value P 2.
A cable-gathering apparatus (wire stacker) for processing electrical or optical lines such as wires, cables, line bundles, optical fibres and the like, comprising a platform that can be tilted downwards, which platform has an accommodating region for accommodating one or more lines after a processing step, wherein the platform has a removal region adjacent to the accommodating region, wherein lines located in the accommodating region can be brought into the removal region by tilting the platform downwards, from which removal region the lines can be removed, and wherein the lines are retained in the removal region by retaining means when the platform is in the tilted position, characterized in that an actuator is provided in order to tilt the platform, wherein the downward tilting operation and the swivelling for returning upwards to the original position are enabled by operating the actuator which cooperates with the platform.
A multi-layer heat dissipating device comprising: a first heat spreader layer (432, 532, 606, 706, 806, 906, 1532, 1632, 1706, 1806, 1906, 2006, 2506) comprising a first spreader surface and a second spreader surface; a first support structure (433, 1300) comprising a first support surface and a second support surface, wherein the first support surface of the first support structure is coupled to the second spreader surface of the first heat spreader; and a second heat spreader layer (434, 534, 608, 708, 808, 908, 1534, 1634, 1708, 1808, 1908, 2008, 2508) comprising a third spreader surface and a fourth spreader surface, wherein the third spreader surface of the second heat spreader layer is coupled to the second support surface of the first support structure; wherein the first heat spreader layer, the first support structure and the second heat spreader are coupled together so as to form an air gap between the first heat spreader layer and the second heat spreader layer, the gap located within a region surrounded by the first heat spreader layer, the first support structure and the second heat spreader layer, and wherein the first heat spreader layer has a first thermal conductivity, and the first support structure has a second thermal conductivity that is less than the first thermal conductivity and wherein the first support structure comprises a plurality of square columns arranged in a square perimeter or a plurality of circular columns arranged in a square perimeter or wherein the first support structure comprises a ring having a perimeter of a square shape or a circular shape. a first heat spreader layer (432, 532, 606, 706, 806, 906, 1532, 1632, 1706, 1806, 1906, 2006, 2506) comprising a first spreader surface and a second spreader surface; a first support structure (433, 1300) comprising a first support surface and a second support surface, wherein the first support surface of the first support structure is coupled to the second spreader surface of the first heat spreader; and a second heat spreader layer (434, 534, 608, 708, 808, 908, 1534, 1634, 1708, 1808, 1908, 2008, 2508) comprising a third spreader surface and a fourth spreader surface, wherein the third spreader surface of the second heat spreader layer is coupled to the second support surface of the first support structure; wherein the first heat spreader layer, the first support structure and the second heat spreader are coupled together so as to form an air gap between the first heat spreader layer and the second heat spreader layer, the gap located within a region surrounded by the first heat spreader layer, the first support structure and the second heat spreader layer, and wherein the first heat spreader layer has a first thermal conductivity, and the first support structure has a second thermal conductivity that is less than the first thermal conductivity and wherein the first support structure comprises a plurality of square columns arranged in a square perimeter or a plurality of circular columns arranged in a square perimeter or wherein the first support structure comprises a ring having a perimeter of a square shape or a circular shape.
A method of replicating herpes simplex virus in vitro comprising (i) providing a cell or cell(s) having Inhibitor of New Growth 4 polypeptide at a level above the endogenous level of ING4 normally present in the cell type and (ii) contacting the cell(s) with HSV capable of infecting the cell(s).
A power inductor comprising: a body (100, 100a, 100b); at least one base material disposed within the body; at least one coil pattern (300, 310, 320) disposed on at least one surface of the base material; an insulation film disposed between the coil pattern (300. 310. 320) and the body (100. 100a. 100b); and an external electrode disposed outside the body (100.100a. 100b) and connected to the coil pattern (300, 310, 320), wherein the body comprises a plurality of magnetic layers and insulation layers, which are alternately laminated characterized in that the insulation layers contain metal magnetic powder and thermal conductive filler. a body (100, 100a, 100b); at least one base material disposed within the body; at least one coil pattern (300, 310, 320) disposed on at least one surface of the base material; an insulation film disposed between the coil pattern (300. 310. 320) and the body (100. 100a. 100b); and an external electrode disposed outside the body (100.100a. 100b) and connected to the coil pattern (300, 310, 320), wherein the body comprises a plurality of magnetic layers and insulation layers, which are alternately laminated characterized in that the insulation layers contain metal magnetic powder and thermal conductive filler.
A lid arrangement for a canister for a retractable rollup truck bed cover comprises a lid and a canister, wherein the canister has a main housing part and opposite housing end parts (18,18a,18b), and wherein the lid spans between said housing end parts (18,18a,18b) across the main housing part, characterized in that the lid is pivotally connected to at least one of the housing end parts (18,18a,18b), wherein, in the closed position of the lid, said lid does not cover the whole width of the canister in that a rear lid edge of the lid does not extend the whole distance to a housing part rear wall of the housing end part.