mhurhangee/patent-ind-claim-en huggingface dataset:
A positive electrode of a nonaqueous electrolyte secondary battery, the positive electrode being a portion where an active-material layer is formed on a current collector , the active-material layer configured to have a spinel-type lithium manganese oxide and a layered rock salt structure compound as positive-electrode active materials and formed by a mixture of the active materials and optionally a conductive additive and a binder, the spinel-type lithium manganese oxide being at least one type selected from among Li 1+x Al y Mn 2-x-y O 4 (0≤x≤0.1, 0<y≤0.1) and Li 1+x Mg y Mn 2-x-y O 4 (0≤x≤0.1, 0<y≤0.1), the layered rock salt structure compound being lithium cobalt oxide, wherein the content of the layered rock salt structure compound is set to be 2 to 5 parts by weight per 100 parts by weight of the spinel-type lithium manganese oxide, the spinel-type lithium manganese oxide is set to have a number-average particle size of 10 μm to 20 μm, and a specific surface area of 0.05 m 2 /g to 0.4 m 2 /g, and the layered rock salt structure compound is set to have a number average particle size of 3 μm to 9 μm, and a specific surface area of 0.3 m 2 /g to 0.6 m 2 /g, wherein the number-average particle size was obtained by observing 100 particles picked at random in the view field of an electron microscope and by calculating their average size, and the specific surface area means the surface area per unit mass determined by a BET method.
Tool attachment having a drive shaft that is able to be driven in rotation and a locking portion for locking at a fastening interface of a hand-held power tool which has a tool receptacle with a receiving body for receiving an application tool and has a first locking sleeve that is preloaded by a first spring element in an axial direction away from the hand-held power tool , characterized in that an actuating member having a free end is provided, said actuating member being designed, by abutment of the free end against the first locking sleeve , to move the first locking sleeve , while the tool attachment is being fastened to the hand-held power tool , in the direction of the hand-held power tool , counter to a spring force applied by the first spring element , by the tool attachment being positioned on the fastening interface .
A lighting unit for a vehicle comprising: a reflection module including a bottom portion and a pair of first side portions extending upward from opposite sides of the bottom portion ; and a light-emitting module for emitting light to an inside of the reflection module , the light-emitting module being located close to a second side portion provided on an outer distal end of the first side portions , wherein a space between the first side portions is empty and defines an air layer along which the light emitted from the light-emitting module moves, wherein a top of said space is implemented as a light emitting surface for surface-light emission; wherein the emitted light collides and is reflected by inner surfaces of the first side portions and the bottom portion , wherein the bottom portion includes a curved region provided with one or more inflection points (B, C), and wherein the reflection module further includes a second reflective layer disposed on a portion of the bottom portion , characterized in that : the second reflective layer is not formed over the entire inner surface of the bottom portion but is located in a region from the arrangement position of the light-emitting module to a first inflection point (B) where the bottom portion is concave or a second inflection point (C), the first inflection point (B) and the second (C) inflection point being provided in sequence from the light-emitting module a reflection module including a bottom portion and a pair of first side portions extending upward from opposite sides of the bottom portion ; and a light-emitting module for emitting light to an inside of the reflection module , the light-emitting module being located close to a second side portion provided on an outer distal end of the first side portions , wherein a space between the first side portions is empty and defines an air layer along which the light emitted from the light-emitting module moves, wherein a top of said space is implemented as a light emitting surface for surface-light emission; wherein the emitted light collides and is reflected by inner surfaces of the first side portions and the bottom portion , wherein the bottom portion includes a curved region provided with one or more inflection points (B, C), and wherein the reflection module further includes a second reflective layer disposed on a portion of the bottom portion , characterized in that : the second reflective layer is not formed over the entire inner surface of the bottom portion but is located in a region from the arrangement position of the light-emitting module to a first inflection point (B) where the bottom portion is concave or a second inflection point (C), the first inflection point (B) and the second (C) inflection point being provided in sequence from the light-emitting module
Plant for exploiting the energy of a wave motion of water of an ocean or a sea or a lake, comprising a structure that is fastened to the ground and that is adapted to transform said wave motion of water into an oscillatory motion of a water column , a vessel adapted to float on said water column , and a pumping unit ; wherein said vessel comprises a hull ; wherein said pumping unit is housed at least partially in the hull and constrained to said structure ; wherein said pumping unit has inlets for water to be pumped fluidly connected to the bottom of said hull , and outlets for pumped water; wherein a pumping pipe is fluidly connected to said outlets of said pumping unit and is adapted to supply pumped water to an artificial basin or a tank ; wherein said vessel further comprises cavities associated with said hull ; wherein said cavities are adapted to receive water from said water column while said vessel rises and to return water to said water column while said vessel descends; wherein said pumping unit comprises a part fastened to said structure and a part fastened to said vessel .
A method for wireless machine-type communications, MTC, performed by a remote device characterized by : detecting a synchronization signal transmitted from at least one of a plurality of transmission points, wherein each of the plurality of transmission points transmits a synchronization signal at a different offset time relative to a subframe boundary in a synchronized network; determining a subframe occurring a fixed time after detecting the synchronization signal to monitor for system information blocks, SIBs, transmitted from at least one of the plurality of transmission points; monitoring for and receiving a system information block, SIB, for MTC during the determined subframe; and performing a random access channel, RACH, procedure with at least one of the plurality of transmission points; wherein performing the RACH procedure comprises transmitting a RACH message with extended transmission time interval, TTI, to the at least one of the plurality of transmission points at fixed timing after the transmission of the SIB for MTC. detecting a synchronization signal transmitted from at least one of a plurality of transmission points, wherein each of the plurality of transmission points transmits a synchronization signal at a different offset time relative to a subframe boundary in a synchronized network; determining a subframe occurring a fixed time after detecting the synchronization signal to monitor for system information blocks, SIBs, transmitted from at least one of the plurality of transmission points; monitoring for and receiving a system information block, SIB, for MTC during the determined subframe; and performing a random access channel, RACH, procedure with at least one of the plurality of transmission points; wherein performing the RACH procedure comprises transmitting a RACH message with extended transmission time interval, TTI, to the at least one of the plurality of transmission points at fixed timing after the transmission of the SIB for MTC.
Device for coating a substrate with a gas inlet member , which has a gas distribution chamber with a gas outlet surface with gas outlet openings arranged substantially uniformly over the gas outlet surface , through which a process gas fed into the gas distribution chamber can pass into a process chamber and to the substrate arranged on the bottom of the process chamber, wherein the gas outlet surface is formed by a plurality of gas outlet plates lying in a common plane, which are arranged in the region of separation zones (10', 10", 11', 11", 12', 12", 13', 13", 14", 15', 16', 17', 18') adjoining one another being located in a distance to walls limiting the volume of the gas distribution chamber , characterized in that two adjacent gas outlet plates (10 - 19) extend along their common separation zone (10', 10", 11", 12', 12", 13", 14", 15', 16', 17', 18') can be displaced in a hinge-like manner with respect to one another and each individual gas outlet plate (10-19) is fastened by means of at least one hanger to a rear wall of the gas inlet member , to a ceiling of the housing or to a supporting framework , the hangers having adjusting elements in order to adjust the vertical position of the gas outlet plate (11-19) with respect to the base of the process chamber.
A non-volatile memory system , comprising: an array of non-volatile memory cells arranged in rows and columns, one of the rows comprising pull down cells , each non-volatile memory cell comprising a bit line terminal and a source line terminal; a plurality of bit lines , each of the plurality of bit lines coupled to bit line terminals of a column of non-volatile memory cells in the array; and a plurality of pulldown bit lines coupled to the bit line terminals of the row of pull down cells; wherein the non-volatile memory system is configured such that during a read, verify, or erase operation of a selected non-volatile memory cell in the array, current flows: (i) through one of the plurality of bit lines into the bit line terminal of the selected non-volatile memory cell, (ii) out of the source line terminal of the selected non-volatile memory cell into a source line, (iii) into source line terminals of the pull down cells, and (iv) through bit line terminals of the pull down cells into the plurality of pulldown bit lines. an array of non-volatile memory cells arranged in rows and columns, one of the rows comprising pull down cells , each non-volatile memory cell comprising a bit line terminal and a source line terminal; a plurality of bit lines , each of the plurality of bit lines coupled to bit line terminals of a column of non-volatile memory cells in the array; and a plurality of pulldown bit lines coupled to the bit line terminals of the row of pull down cells; wherein the non-volatile memory system is configured such that during a read, verify, or erase operation of a selected non-volatile memory cell in the array, current flows: (i) through one of the plurality of bit lines into the bit line terminal of the selected non-volatile memory cell, (ii) out of the source line terminal of the selected non-volatile memory cell into a source line, (iii) into source line terminals of the pull down cells, and (iv) through bit line terminals of the pull down cells into the plurality of pulldown bit lines.
A method of determining corrected color values from image data acquired, during a base calling cycle, by a nucleic acid sequencer comprising an image acquisition system, one or more processors, and memory preferably having a storage capacity of about 512 Gigabytes or less, the method being performed on the one or more processors and comprising: (a) obtaining an image of a substrate comprising a plurality of sites where nucleic acid bases are read, wherein the sites exhibit colors representing nucleic acid base types; (b) measuring color values of the plurality of sites from the image of the substrate; (c) storing the color values in a processor buffer of the sequencer's one or more processors; (d) retrieving phase-corrected color values of the plurality of sites, wherein the phase-corrected color values were stored in the sequencer's memory during an immediately preceding base calling cycle; (e) determining a prephasing correction from the phase-corrected color values stored during the immediately preceding base calling cycle, and the color values stored in the processor buffer; and (f) determining the corrected color values from the color values in the processor buffer, the phase corrected values stored during the immediately preceding cycle, and the prephasing correction. (a) obtaining an image of a substrate comprising a plurality of sites where nucleic acid bases are read, wherein the sites exhibit colors representing nucleic acid base types; (b) measuring color values of the plurality of sites from the image of the substrate; (c) storing the color values in a processor buffer of the sequencer's one or more processors; (d) retrieving phase-corrected color values of the plurality of sites, wherein the phase-corrected color values were stored in the sequencer's memory during an immediately preceding base calling cycle; (e) determining a prephasing correction from the phase-corrected color values stored during the immediately preceding base calling cycle, and the color values stored in the processor buffer; and the phase-corrected color values stored during the immediately preceding base calling cycle, and the color values stored in the processor buffer; and (f) determining the corrected color values from the color values in the processor buffer, the phase corrected values stored during the immediately preceding cycle, and the prephasing correction. the color values in the processor buffer, the phase corrected values stored during the immediately preceding cycle, and the prephasing correction.
A lottery ticket dispenser array , comprising: a plurality of separate bins , each bin defined by a housing having a front side that faces a purchaser in operational use of the dispenser array , an opposite back side , and an internal space for receipt of a supply of interconnected lottery tickets , wherein each lottery ticket contains a code printed thereon; each bin having an electronic drive mechanism that dispenses the lottery tickets therefrom; and a controller in communication with each of the drive mechanisms to initiate a dispense sequence upon receipt of a ticket dispense command from the controller ; characterized in that the lottery ticket dispenser array further comprises a frame , wherein the plurality of bins is contained within the frame , and wherein the controller is configured on the frame and variably positional relative to the frame between different operational positions, wherein the controller is configured with a user interface, and wherein the controller is positionable along a bottom member of the frame and is movable into a horizontal storage position below a bottom row of the bins , or the controller is positionable on a top member of the frame , or the controller is slidable along a side member of the frame and pivotable to a storage position essentially flush against the side member of the frame ; and wherein the controller further comprises a power/data port or plug that connects to a power/data line contained within the bottom frame member , the side frame members and the top frame member . a plurality of separate bins , each bin defined by a housing having a front side that faces a purchaser in operational use of the dispenser array , an opposite back side , and an internal space for receipt of a supply of interconnected lottery tickets , wherein each lottery ticket contains a code printed thereon; each bin having an electronic drive mechanism that dispenses the lottery tickets therefrom; and a controller in communication with each of the drive mechanisms to initiate a dispense sequence upon receipt of a ticket dispense command from the controller ; characterized in that the lottery ticket dispenser array further comprises a frame , wherein the plurality of bins is contained within the frame , and wherein the controller is configured on the frame and variably positional relative to the frame between different operational positions, wherein the controller is configured with a user interface, and wherein the controller is positionable along a bottom member of the frame and is movable into a horizontal storage position below a bottom row of the bins , or the controller is positionable on a top member of the frame , or the controller is slidable along a side member of the frame and pivotable to a storage position essentially flush against the side member of the frame ; and wherein the controller further comprises a power/data port or plug that connects to a power/data line contained within the bottom frame member , the side frame members and the top frame member .
A process for the electroextraction of analyte compounds from a moving fluid donor phase into an acceptor phase, comprising the steps of: a) providing an electrically conductive donor phase moving at a first flow velocity and in electrically conductive contact with a first electrode, b) providing an electrically conductive acceptor phase in direct contact and immiscible with the donor phase, in electrically conductive contact with a second electrode; and c) providing a supporting or confining phase guide pattern to keep a defined interface between donor phase and acceptor phase, and d) applying an electrical field between the first and the second electrode; wherein one of the donor phase and acceptor phase is an organic phase and the other of the donor phase and acceptor phase is an aqueous phase; and wherein the acceptor phase flows at a second flow velocity which is lower than the first flow velocity. a) providing an electrically conductive donor phase moving at a first flow velocity and in electrically conductive contact with a first electrode, b) providing an electrically conductive acceptor phase in direct contact and immiscible with the donor phase, in electrically conductive contact with a second electrode; and c) providing a supporting or confining phase guide pattern to keep a defined interface between donor phase and acceptor phase, and d) applying an electrical field between the first and the second electrode;
A data packet transmission method, comprising: receiving (A101; A201), by a proxy program, a request data packet via a listening port of the proxy program, and after marking (A102; A202) the request data packet, sending out (A103; A203), by the proxy program, the marked request data packet; and receiving (S101; S201), by a local system, a plurality of request data packets sent by the proxy program or an application program, and matching (S102; S202), by the local system, a mark in each request data packet, wherein when the matching is successful, the request data packet is forwarded out directly, and when the matching is unsuccessful, the request data packet is re-directed to the listening port of the proxy program, to be received and marked by the proxy program; wherein a kernel of the local system is a Linux kernel, the proxy program and the application program run on the local system. receiving (A101; A201), by a proxy program, a request data packet via a listening port of the proxy program, and after marking (A102; A202) the request data packet, sending out (A103; A203), by the proxy program, the marked request data packet; and receiving (S101; S201), by a local system, a plurality of request data packets sent by the proxy program or an application program, and matching (S102; S202), by the local system, a mark in each request data packet, wherein when the matching is successful, the request data packet is forwarded out directly, and when the matching is unsuccessful, the request data packet is re-directed to the listening port of the proxy program, to be received and marked by the proxy program; wherein a kernel of the local system is a Linux kernel, the proxy program and the application program run on the local system.
A cable road safety fence for installation at a lateral or median side of a road , said cable safety fence comprises a series of spaced apart upright posts , and a plurality of tensioned cables provided at different levels on and supported by said posts , wherein at least one noise absorbing panel is mounted onto the cables with at least two mounting points , said points being at different levels, characterised in that said noise absorbing panel comprises a noise absorbing material which is encased in an energy absorbing material provided with openings.
Method for controlling the opening speed of a valve connected between a fuel tank and a filter , and configured to receive and transfer vapors to the filter and relieve the pressure inside the fuel tank into the filter , the method comprising the steps of: - Measuring a pressure in the fuel tank by a pressure sensor; - Measuring or inferring a fuel vapor temperature in the fuel tank by a temperature sensor; - Calculating an opening speed of the valve as a function of data stored in look-up tables , the pressure and the fuel vapor temperature in the fuel tank ; - Opening the valve at the calculated opening speed in order to avoid corking of another valve of the fuel tank connected between the valve and the fuel tank . - Measuring a pressure in the fuel tank by a pressure sensor; - Measuring or inferring a fuel vapor temperature in the fuel tank by a temperature sensor; - Calculating an opening speed of the valve as a function of data stored in look-up tables , the pressure and the fuel vapor temperature in the fuel tank ; - Opening the valve at the calculated opening speed in order to avoid corking of another valve of the fuel tank connected between the valve and the fuel tank .
A method of a source secondary base station, the method comprising: establishing a radio link with a UE as a source secondary base station for dual connectivity, wherein the radio link comprises a split signaling radio bearer, split SRB; determining at least one of a cell change or a change of sequence number, SN, at the source secondary base station; transmitting a handover request message to a target secondary base station in response to the determination; receiving a handover request acknowledge message from the target secondary base station; refraining from providing user data to the UE in response to the handover request acknowledge message and providing said user data to the target secondary base station in response to said handover request acknowledge message; and transmitting a radio resource control, RRC connection reconfiguration based on the handover request acknowledge message via the split SRB directly to the UE. establishing a radio link with a UE as a source secondary base station for dual connectivity, wherein the radio link comprises a split signaling radio bearer, split SRB; determining at least one of a cell change or a change of sequence number, SN, at the source secondary base station; transmitting a handover request message to a target secondary base station in response to the determination; receiving a handover request acknowledge message from the target secondary base station; refraining from providing user data to the UE in response to the handover request acknowledge message and providing said user data to the target secondary base station in response to said handover request acknowledge message; and transmitting a radio resource control, RRC connection reconfiguration based on the handover request acknowledge message via the split SRB directly to the UE. transmitting a handover request message to a target secondary base station in response to the determination; receiving a handover request acknowledge message from the target secondary base station; refraining from providing user data to the UE in response to the handover request acknowledge message and providing said user data to the target secondary base station in response to said handover request acknowledge message; and transmitting a radio resource control, RRC connection reconfiguration based on the handover request acknowledge message via the split SRB directly to the UE.