mhurhangee/ep-ind-claims huggingface dataset:
A tableware taking device comprising a base and a tableware taking apparatus arranged on the base, wherein the tableware taking apparatus comprises a housing body in which a magazine for accommodating tableware is arranged, and a support assembly for supporting the tableware arranged under the magazine, wherein, a pushing member provided with a reset member for resetting itself is arranged at a side of the support assembly, wherein an inclined chute is arranged in the housing body for falling the tableware therefrom; wherein the tableware taking apparatus is provided with a button(1 1) and a connecting rod with a first end connecting the button; the base is provided with a positioning hole in which a second end of the connecting rod is inserted for fixing the tableware taking apparatus on the base; wherein when the button is pressed downward, the second end of the connecting rod moves away from the positioning hole for detaching the tableware taking apparatus from the base; characterized in that the connecting rod comprises a starting rod, a transmission rod and a brake rod, wherein a first end of the starting rod is connected with the button, while a second end of the starting rod is connected with a first end of the transmission rod whose second end is connected with a first end of the brake rod, while the second end of the brake rod is inserted in the positioning hole; wherein when the button is pressed downward, such press is transmitted by the starting rod to the first end of the transmission rod, thus enabling the second end of the transmission rod to bring the brake rod upward for moving away from the positioning hole.
A method comprising: storing a resin film in a cold storage environment; storing a non-crimp fabric at a room temperature; removing the resin film from the cold storage environment to increase a temperature of the resin film to the room temperature; tacking the resin film to the non-crimp fabric to create a resin-fabric sheet comprising a resin film layer and an NCF layer; cutting the resin-fabric sheet to a pre-determined shape to create a resin-fabric preform; and draping the resin-fabric preform over a contoured surface. storing a resin film in a cold storage environment; storing a non-crimp fabric at a room temperature; removing the resin film from the cold storage environment to increase a temperature of the resin film to the room temperature; tacking the resin film to the non-crimp fabric to create a resin-fabric sheet comprising a resin film layer and an NCF layer; cutting the resin-fabric sheet to a pre-determined shape to create a resin-fabric preform; and draping the resin-fabric preform over a contoured surface.
A filtration membrane comprising a porous base layer attached to an electrically conductive filtration layer having pores extending through the filtration layer wherein at least one compound (24, 26) is attached on the filtration layer and hereby providing a protective surface layer wherein the protective surface layer is configured to be at least partially cleaved off the filtration layer by a predefined cleave off process so as to remove foulants (42, 43, 44) which are present in a fluid entering the pores of the filtration layer from the filtration layer, and so as to enable a new protective surface layer being grafted on the filtration layer before the filtration layer is being reused to filter the fluid, characterized in that the at least one compound (24, 26) is a diazonium salt of the following form
A crankcase lubricating oil composition comprising or made by admixing an oil of lubricating viscosity; and as an additive component, 0.1 to 10 mass %, based on the total mass of the lubricating oil composition, of an oil-soluble succinic anhydride having the formula: where R is a linear unbranched aliphatic hydrocarbyl substituent having 12 to 36 carbon atoms; the crankcase lubricating oil composition having a total base number of between 4 to 15. an oil of lubricating viscosity; and as an additive component, 0.1 to 10 mass %, based on the total mass of the lubricating oil composition, of an oil-soluble succinic anhydride having the formula: where R is a linear unbranched aliphatic hydrocarbyl substituent having 12 to 36 carbon atoms; the crankcase lubricating oil composition having a total base number of between 4 to 15. where R is a linear unbranched aliphatic hydrocarbyl substituent having 12 to 36 carbon atoms; the crankcase lubricating oil composition having a total base number of between 4 to 15.
A method of wireless communication in a synchronous network for a scheduling entity to communicate with a subordinate entity utilizing a plurality of subframes on a time division duplex, TDD, carrier, the method comprising: transmitting to the subordinate entity, in a first portion of a subframe, first control information; receiving from the subordinate entity, in a second portion of the subframe, first data information corresponding to the first control information; transmitting to the subordinate entity, in a third portion of the subframe, at least one of second control information or second data information, based on at least one of the first control information or the first data information; and receiving from the subordinate entity, in a fourth portion of the subframe, third data information based on the second data information. transmitting to the subordinate entity, in a first portion of a subframe, first control information; receiving from the subordinate entity, in a second portion of the subframe, first data information corresponding to the first control information; transmitting to the subordinate entity, in a third portion of the subframe, at least one of second control information or second data information, based on at least one of the first control information or the first data information; and receiving from the subordinate entity, in a fourth portion of the subframe, third data information based on the second data information.
A wireless backhaul connection establishment method, wherein the method comprises: obtaining (201, 401, 501), by a first base station, a valid backhaul capability of a neighboring base station, wherein the neighboring base station is a base station capable of performing wireless communication with the first base station, and the valid backhaul capability is a maximum capability of a base station to serve a newly-added backhaul service; characterized in that the method further comprises: selecting (202, 2021, 2022, 2023, 2024, 403, 502), by the first base station, an upstream base station from the neighboring base station according to the valid backhaul capability of the neighboring base station and a backhaul service requirement of the first base station, wherein the upstream base station is configured to provide a wireless backhaul relay service for the first base station, wherein the selecting (202, 2021, 2022, 2023, 2024, 403, 502) comprises: selecting a neighboring base station that meets the backhaul service requirement of the first base station as the upstream base station; and establishing (203, 404, 503), by the first base station, a wireless backhaul connection with the upstream base station. obtaining (201, 401, 501), by a first base station, a valid backhaul capability of a neighboring base station, wherein the neighboring base station is a base station capable of performing wireless communication with the first base station, and the valid backhaul capability is a maximum capability of a base station to serve a newly-added backhaul service; characterized in that the method further comprises: selecting (202, 2021, 2022, 2023, 2024, 403, 502), by the first base station, an upstream base station from the neighboring base station according to the valid backhaul capability of the neighboring base station and a backhaul service requirement of the first base station, wherein the upstream base station is configured to provide a wireless backhaul relay service for the first base station, wherein the selecting (202, 2021, 2022, 2023, 2024, 403, 502) comprises: selecting a neighboring base station that meets the backhaul service requirement of the first base station as the upstream base station; and establishing (203, 404, 503), by the first base station, a wireless backhaul connection with the upstream base station. selecting (202, 2021, 2022, 2023, 2024, 403, 502), by the first base station, an upstream base station from the neighboring base station according to the valid backhaul capability of the neighboring base station and a backhaul service requirement of the first base station, wherein the upstream base station is configured to provide a wireless backhaul relay service for the first base station, wherein the selecting (202, 2021, 2022, 2023, 2024, 403, 502) comprises: selecting a neighboring base station that meets the backhaul service requirement of the first base station as the upstream base station; and establishing (203, 404, 503), by the first base station, a wireless backhaul connection with the upstream base station.
A method of generating a reference voltage, comprising: providing a first single-electron transistor, SET, and a second SET connected in series with the first SET; biasing the first SET and the second SET using a same biasing current (I b); operating the first SET at a slope of a first Coulomb peak, said slope of the first Coulomb peak being of a slope type selected from a rising slope, a peak maximum and a falling slope; operating the second SET at a slope of a second Coulomb peak different from the first Coulomb peak, said slope of the second Coulomb peak being of the same slope type as the slope of the first Coulomb peak; and generating the reference voltage (V ref) based on a difference between a gate-to-source voltage (V gs1) of the first SET and a gate-to-source voltage (V gs2) of the second SET. providing a first single-electron transistor, SET, and a second SET connected in series with the first SET; biasing the first SET and the second SET using a same biasing current (I b); operating the first SET at a slope of a first Coulomb peak, said slope of the first Coulomb peak being of a slope type selected from a rising slope, a peak maximum and a falling slope; operating the second SET at a slope of a second Coulomb peak different from the first Coulomb peak, said slope of the second Coulomb peak being of the same slope type as the slope of the first Coulomb peak; and generating the reference voltage (V ref) based on a difference between a gate-to-source voltage (V gs1) of the first SET and a gate-to-source voltage (V gs2) of the second SET.
A battery pack (200, 400, 600) including a battery module having a structure in which a plurality of battery cells or unit modules, each of which has two or more battery cells mounted therein, are mounted in a battery pack case such that the battery cells or the unit modules are stacked in an upright or upside-down fashion, wherein the battery pack case is provided with a coolant inlet port (210, 410, 610) and a coolant outlet port (220, 420, 620), through which a coolant to cool the battery cells or the unit modules, i.e. unit cells, flows from one side to the other side of the battery module in a direction perpendicular to the stacked direction of the unit cells, the battery pack case is further provided at an upper part and a lower part thereof with a coolant introduction part (240, 440, 640) extending from the coolant inlet port to the battery module and coolant discharge part (250, 450, 650) extending from the battery module to the coolant outlet port, and the coolant outlet port (220, 440, 620) is bent in a lateral direction of the battery cells or the unit modules at an angle of 90 degrees to a flow direction of the coolant introduced through the coolant inlet port, wherein the coolant outlet port (220, 420, 620) is not located at the end of the battery pack case opposite to the coolant inlet port, but at the side of the battery pack case, wherein the battery pack case is configured such that a length of the battery pack case in the stacked direction of the unit cells is relatively greater than that of the battery pack case in a lateral direction of each of the unit cells perpendicular to the stacked direction of the unit cells, and characterized in that the coolant outlet port (220, 420, 620) is located at a center portion based on the length in the stacking direction of the battery module, and the coolant outlet port (220, 420, 620) has a fan mounted therein to drive the coolant, introduced through the coolant inlet port (210, 410, 610), to the coolant outlet port (220, 420, 620) after the coolant passes through the battery module.
An M way cache memory, comprising: a plurality of ways, each way comprising an instruction memory portion, wherein the instruction memory portion comprises a plurality of instruction memory locations configured to store instruction data encoding a plurality of CPU instructions; a controller configured to determine that each of a predetermined number of cache memory hit conditions has occurred; and a replacement policy circuit configured to identify one of the plurality of ways as having experienced a fewest quantity of hits of the predetermined number of cache memory hit conditions, wherein the controller is further configured to determine that a cache memory miss condition has occurred, and, in response to the cache memory miss condition, to cause instruction data retrieved from a RAM memory to be written to the instruction memory portion of the way identified by the replacement policy circuit. a plurality of ways, each way comprising an instruction memory portion, wherein the instruction memory portion comprises a plurality of instruction memory locations configured to store instruction data encoding a plurality of CPU instructions; a controller configured to determine that each of a predetermined number of cache memory hit conditions has occurred; and a replacement policy circuit configured to identify one of the plurality of ways as having experienced a fewest quantity of hits of the predetermined number of cache memory hit conditions, wherein the controller is further configured to determine that a cache memory miss condition has occurred, and, in response to the cache memory miss condition, to cause instruction data retrieved from a RAM memory to be written to the instruction memory portion of the way identified by the replacement policy circuit.
Device for transferring a given powder or a mixture of given powders, the transfer device comprising a hopper intended to contain the given powder or the mixture of given powders, said hopper comprising a side wall and at least one discharge opening, said hopper having a axisymmetric shape and having a substantially vertical axis of revolution, said hopper being arranged such that its discharge opening is located in a lower portion of said hopper, the transfer device comprising means for displacing the hopper in rotation about its axis of revolution, whereon the discharge opening is located, and control means of the means for displacing in rotation such that the means for displacing in rotation impose on at least one portion of the side wall of the hopper, referred to as movable portion, a first moving phase wherein an acceleration greater than or equal to a minimum acceleration (amin) capable of causing the given powder or mixture of given powders to slide relative to the movable portion is applied to the movable portion.
A method for generating x-ray radiation, comprising the steps of: forming a target jet by urging a liquid metal under pressure through an outlet opening, the target jet propagating through an area of interaction, and directing at least one electron beam onto the target jet in the area of interaction such that the electron beam interacts with the target jet to generate x-ray radiation; characterised in that the full width at half maximum of the electron beam in the transverse direction of the target jet is 50% or less of the target jet transverse dimension. forming a target jet by urging a liquid metal under pressure through an outlet opening, the target jet propagating through an area of interaction, and directing at least one electron beam onto the target jet in the area of interaction such that the electron beam interacts with the target jet to generate x-ray radiation;
A light diffusing optical fiber configured to be optically coupled to a light source and to generate an output light in response to input light received from the light source, the light diffusing optical fiber comprising: a core; a scattering layer surrounding the core; and a light converting layer surrounding the scattering layer, the light converting layer comprising a polymer matrix and a luminophore within the polymer matrix; wherein the luminophore is configured to emit light in response to absorption of an input light, the emitted light having a peak wavelength between 580 nm and 680 nm; characterized in that a color of the output light as measured by the CIE 1931 x, y chromaticity space, comprises x from 0.55 to 0.75, y from 0.15 to 0.4, and in that the scattering layer comprises a polymer matrix and scattering particles embedded within the polymer matrix of the scattering layer, wherein the polymer matrix of the scattering layer is formed from a polymer material that is different from a polymer material of the polymer matrix of the light converting layer. a core; a scattering layer surrounding the core; and a light converting layer surrounding the scattering layer, the light converting layer comprising a polymer matrix and a luminophore within the polymer matrix; wherein the luminophore is configured to emit light in response to absorption of an input light, the emitted light having a peak wavelength between 580 nm and 680 nm; characterized in that a color of the output light as measured by the CIE 1931 x, y chromaticity space, comprises x from 0.55 to 0.75, y from 0.15 to 0.4, and in that the scattering layer comprises a polymer matrix and scattering particles embedded within the polymer matrix of the scattering layer, wherein the polymer matrix of the scattering layer is formed from a polymer material that is different from a polymer material of the polymer matrix of the light converting layer.
An aqueous dental glass ionomer composition comprising (a) a reactive particulate glass, and (b) a linear or branched polymer comprising acidic groups, which is reactive with the particulate glass in a cement reaction, whereby the linear or branched polymer comprising acidic groups has a polymer backbone and optionally pendant side chains, (c) optionally dispersed nanoparticles, and (d) optionally a low molecular compound, characterized in that the glass ionomer composition comprises -S x H groups, wherein x is an integer of from 1 to 6, which crosslink the particulate glass and/or the linear or branched polymer comprising acidic groups acid and/or the optional dispersed nanoparticles and/or the optional low molecular compound. (a) a reactive particulate glass, and (b) a linear or branched polymer comprising acidic groups, which is reactive with the particulate glass in a cement reaction, whereby the linear or branched polymer comprising acidic groups has a polymer backbone and optionally pendant side chains, (c) optionally dispersed nanoparticles, and (d) optionally a low molecular compound,
System for dismounting and discharging plates extending into a roof plane (Px), these plates being respectively fixed to a building framing via a plurality of fixing screws (Vx), such that the system comprises first and second carriages (10, 20), the first carriage being arranged to be able to roll over a flat upper surface of a first rectilinear rolling track while side parts (L10s) of the first carriage bear against a rectilinear upper side surface of said rolling track and the second carriage being arranged to be able to roll over a flat upper surface of a second rectilinear rolling track and parallel to said first rolling track and to said roof plane (Px), the system comprising a connecting structure connecting said first and second carriages (10, 20) to one another, this connecting structure being supported by said first and second carriages (10, 20) to move with said first and second carriages (10, 20) along and above the roof plane (Px), the system comprising: - at least one first drive motor arranged to force the movement of the first carriage along the first track; - at least one motorised tool carrier equipped with at least one tool to disconnect roof plates, the connecting structure being connected to the tool carrier, on the one hand, by way of a first motorised guiding mechanism arranged to move the tool carrier above said roof plane (Px) in a first direction parallel to the roof plane (Px), and on the other hand, by way of a second motorised guiding mechanism arranged to move the tool carrier in a second direction substantially perpendicular to said roof plane (Px) between a low position wherein the tool extends at least partially into the roof plane (Px) and a high position, wherein the tool is distant from the roof plane (Px); and - at least one mechanism, preferably motorised, for gripping the plate, adapted to take at least one given plate (Pn) extending into the roof plane (Px) and to raise this given plate (Pn) above the roof plane (Px). - at least one first drive motor arranged to force the movement of the first carriage along the first track; - at least one motorised tool carrier equipped with at least one tool to disconnect roof plates, the connecting structure being connected to the tool carrier, on the one hand, by way of a first motorised guiding mechanism arranged to move the tool carrier above said roof plane (Px) in a first direction parallel to the roof plane (Px), and on the other hand, by way of a second motorised guiding mechanism arranged to move the tool carrier in a second direction substantially perpendicular to said roof plane (Px) between a low position wherein the tool extends at least partially into the roof plane (Px) and a high position, wherein the tool is distant from the roof plane (Px); and - at least one mechanism, preferably motorised, for gripping the plate, adapted to take at least one given plate (Pn) extending into the roof plane (Px) and to raise this given plate (Pn) above the roof plane (Px).
A method of authenticating a user of a computing device (500, 600), the computing device having a memory storing a base image and an overlay image, the base image being non-tabular and having a pre-selected base image reference point, and the overlay image having a pre-selected overlay image reference point, the method comprising: generating a modified base image including the base image reference point; generating a modified overlay image including the overlay image reference point; displaying, on a display, the modified base image overlaid by the modified overlay image, wherein displaying includes varying the position of the pre-selected base image reference point on the display relative to a previous displaying of the base image; receiving an input causing the alignment of the base image reference point on the modified base image with the overlay image reference point on the modified overlay image at a point on the display; and in response to the alignment, indicating positive authentication. generating a modified base image including the base image reference point; generating a modified overlay image including the overlay image reference point; displaying, on a display, the modified base image overlaid by the modified overlay image, wherein displaying includes varying the position of the pre-selected base image reference point on the display relative to a previous displaying of the base image; receiving an input causing the alignment of the base image reference point on the modified base image with the overlay image reference point on the modified overlay image at a point on the display; and in response to the alignment, indicating positive authentication.