mhurhangee/patent-ind-claim-en huggingface dataset:
A method for manufacturing a unit cell comprising the steps of: preparing an electrode and a separator individually, wherein the separator includes a porous polymer substrate and a porous coating layer disposed on at least one surface of the porous polymer substrate and including a mixture of inorganic particles with a binder polymer; applying a lamination solvent to the surface of the separator to be surface-contacted with the electrode; and carrying out lamination of the electrode with the separator before the lamination solvent is dried, wherein the lamination solvent is dimethyl carbonate, the binder polymer having a higher melting point than the boiling point of the lamination solvent, a nip pressure of 98.1-117.7 bar (100-120 kgf/cm) is applied for the lamination, and the lamination solvent is applied to the separator surface through a process which includes allowing a separator to pass through a chamber in which the lamination solvent is contained in a vapor state, or by spraying the lamination solvent to the separator surface. preparing an electrode and a separator individually, wherein the separator includes a porous polymer substrate and a porous coating layer disposed on at least one surface of the porous polymer substrate and including a mixture of inorganic particles with a binder polymer; applying a lamination solvent to the surface of the separator to be surface-contacted with the electrode; and carrying out lamination of the electrode with the separator before the lamination solvent is dried, wherein the lamination solvent is dimethyl carbonate, the binder polymer having a higher melting point than the boiling point of the lamination solvent, a nip pressure of 98.1-117.7 bar (100-120 kgf/cm) is applied for the lamination, and the lamination solvent is applied to the separator surface through a process which includes allowing a separator to pass through a chamber in which the lamination solvent is contained in a vapor state, or by spraying the lamination solvent to the separator surface.
A vacuum cleaner comprising: a cleaner main body comprising a suction motor for generating a suction force; a suction unit arranged to communicate with the cleaner main body and receive air and dust; a battery arranged to supply power to the suction motor , wherein the battery comprises a plurality of battery cells; a battery management system "BMS" arranged to detect a status of the battery ; and a controller arranged to control an operation of the suction motor , wherein the controller is arranged to determine a time to stop the suction motor based on a voltage detected by the BMS , characterized in that the controller is arranged to change the determined time to stop the suction motor according to an operation mode of the suction motor , wherein the controller is configured to determine whether the operation mode of the suction motor is a reference mode (S4), wherein, when the operation mode of the suction motor is a reference mode, that is, when the controller determines that the intensity of the suction force is strong, the controller is arranged to stop the suction motor if an operation time of the suction motor in the reference mode reaches a reference time, even if a voltage of each of the plurality of battery cells exceeds a reference voltage. a cleaner main body comprising a suction motor for generating a suction force; a suction unit arranged to communicate with the cleaner main body and receive air and dust; a battery arranged to supply power to the suction motor , wherein the battery comprises a plurality of battery cells; a battery management system "BMS" arranged to detect a status of the battery ; and a controller arranged to control an operation of the suction motor , wherein the controller is arranged to determine a time to stop the suction motor based on a voltage detected by the BMS , characterized in that the controller is arranged to change the determined time to stop the suction motor according to an operation mode of the suction motor , wherein the controller is configured to determine whether the operation mode of the suction motor is a reference mode (S4), wherein, when the operation mode of the suction motor is a reference mode, that is, when the controller determines that the intensity of the suction force is strong, the controller is arranged to stop the suction motor if an operation time of the suction motor in the reference mode reaches a reference time, even if a voltage of each of the plurality of battery cells exceeds a reference voltage.
Tolerance compensation with - a flat part with a first recess for receiving a bolt of an attachment part, - a tolerance slider with a second recess for receiving the bolt , wherein - the flat part has a longitudinal axis extending from its end face edge in longitudinal direction and a transversal axis extending transversally to the longitudinal axis , wherein - the first recess has a greater extent in a direction along the longitudinal axis of the flat part than the second recess in that direction, - the first recess has an extension in a direction along the transversal axis which corresponds at least to the extent of the second recess in this direction, and - the tolerance slider for receiving the bolt in the first and second recess is arranged on the flat part in such a way that it can be displaced in a direction along the longitudinal axis of the flat part over the first recess , characterized in that - the flat part is slotted from the front face edge into the first recess and - the end face edge is elastically deformable due to the slot , so that the tolerance slider can be pushed onto the end face edge by compression of the end face edge . - a flat part with a first recess for receiving a bolt of an attachment part, - a tolerance slider with a second recess for receiving the bolt , wherein - the flat part has a longitudinal axis extending from its end face edge in longitudinal direction and a transversal axis extending transversally to the longitudinal axis , wherein - the first recess has a greater extent in a direction along the longitudinal axis of the flat part than the second recess in that direction, - the first recess has an extension in a direction along the transversal axis which corresponds at least to the extent of the second recess in this direction, and - the tolerance slider for receiving the bolt in the first and second recess is arranged on the flat part in such a way that it can be displaced in a direction along the longitudinal axis of the flat part over the first recess , characterized in that - the flat part is slotted from the front face edge into the first recess and - the end face edge is elastically deformable due to the slot , so that the tolerance slider can be pushed onto the end face edge by compression of the end face edge .
An audio signal encoding method comprising: in a case in which an encoding manner of a previous frame of a currently-input frame is a continuous encoding manner, predicting a comfort noise that is generated by a decoder according to the currently-input frame in a case in which the currently-input frame is encoded into a silence descriptor, SID, frame, and determining an actual silence signal, wherein the currently-input frame is a silence frame; determining a deviation degree between the comfort noise and the actual silence signal; determining an encoding manner of the currently-input frame according to the deviation degree, wherein the encoding manner of the currently-input frame is a hangover frame encoding manner; and encoding the currently-input frame according to the encoding manner of the currently-input frame. in a case in which an encoding manner of a previous frame of a currently-input frame is a continuous encoding manner, predicting a comfort noise that is generated by a decoder according to the currently-input frame in a case in which the currently-input frame is encoded into a silence descriptor, SID, frame, and determining an actual silence signal, wherein the currently-input frame is a silence frame; determining a deviation degree between the comfort noise and the actual silence signal; determining an encoding manner of the currently-input frame according to the deviation degree, wherein the encoding manner of the currently-input frame is a hangover frame encoding manner; and encoding the currently-input frame according to the encoding manner of the currently-input frame.
A coupling device, comprising: a high-order mode direct coupling module configured to couple a first electromagnetic wave from a transmitter to form a second electromagnetic wave propagating in a preset high-order guided wave mode; a mode converting and filtering module configured to convert the second electromagnetic wave into a third electromagnetic wave propagating in a superposition of a plurality of guided wave modes comprising a preset low-order guided wave mode and at least one high-order guided wave mode, and filter out the high-order guided wave mode in the third electromagnetic wave to obtain a fourth electromagnetic wave propagating in the preset low-order guided wave mode; and a mode matching module configured to convert the fourth electromagnetic wave into a fifth electromagnetic wave propagating along a surface of an open wire in a target guided wave mode. a high-order mode direct coupling module configured to couple a first electromagnetic wave from a transmitter to form a second electromagnetic wave propagating in a preset high-order guided wave mode; a mode converting and filtering module configured to convert the second electromagnetic wave into a third electromagnetic wave propagating in a superposition of a plurality of guided wave modes comprising a preset low-order guided wave mode and at least one high-order guided wave mode, and filter out the high-order guided wave mode in the third electromagnetic wave to obtain a fourth electromagnetic wave propagating in the preset low-order guided wave mode; and a mode matching module configured to convert the fourth electromagnetic wave into a fifth electromagnetic wave propagating along a surface of an open wire in a target guided wave mode.
A circuitry for on-chip power regulation of static random access memory, comprising: a memory array comprising a plurality of memory cell blocks arranged in rows and columns, where the memory cell blocks are clustered into a defined number of memory cell blocks along the row, each cluster is connected to a respective local reference line ; a plurality of sense amplifiers connected to the respective memory cell blocks ; at least one dummy memory cell block additionally arranged to each cluster of memory cell blocks , connected to a main reference line and wherein the plurality of memory cell blocks and the at least one dummy memory cell block are implemented with static random access memory cells; and at least one transistor arranged in between the local reference line of each cluster of memory cell blocks and the main reference line , the transistor being configured to receive an input signal from the dummy memory cell block , thereby performing power gating of the respective cluster of memory cell blocks based on the input signal from the dummy memory cell block , wherein each sense amplifier is configured to receive inputs from a bit-line and a bit-line bar of a respective memory cell block and is further configured to receive inputs from a dummy bit-line and a dummy bit-line bar of a respective dummy memory cell block , and wherein each sense amplifier is further configured to output a value based on the inputs from the dummy bit-line and the dummy bit-line bar independently of the inputs from the bit-line and the bit-line bar . a memory array comprising a plurality of memory cell blocks arranged in rows and columns, where the memory cell blocks are clustered into a defined number of memory cell blocks along the row, each cluster is connected to a respective local reference line ; a plurality of sense amplifiers connected to the respective memory cell blocks ; at least one dummy memory cell block additionally arranged to each cluster of memory cell blocks , connected to a main reference line and wherein the plurality of memory cell blocks and the at least one dummy memory cell block are implemented with static random access memory cells; and at least one transistor arranged in between the local reference line of each cluster of memory cell blocks and the main reference line , the transistor being configured to receive an input signal from the dummy memory cell block , thereby performing power gating of the respective cluster of memory cell blocks based on the input signal from the dummy memory cell block , wherein each sense amplifier is configured to receive inputs from a bit-line and a bit-line bar of a respective memory cell block and is further configured to receive inputs from a dummy bit-line and a dummy bit-line bar of a respective dummy memory cell block , and wherein each sense amplifier is further configured to output a value based on the inputs from the dummy bit-line and the dummy bit-line bar independently of the inputs from the bit-line and the bit-line bar .
A process for the blanking of metal parts from a layered basic material that is composed of a number of mutually stacked, individual layers , wherein each such individual layer is obtained from a thicker starting material by means of at least a process step of cold rolling, wherein such individual layers are stacked to form the layered basic material , wherein the metal parts are blanked out of the layered basic material by means of a blanking device and wherein the metal parts are subjected to an annealing and/or normalizing heat treatment after these are blanked, characterized in that , when the metal parts are blanked therefrom, the individual layers of the layered basic material have a work-hardened microstructure obtained by the said cold-rolling thereof.
Process for making up an area of human keratin materials (P) using a makeup device having a transfer surface and a coat of at least one cosmetic colouring ink borne by the transfer surface and obtained by printing using at least one digital printer, the colouring ink being intended to be applied to the keratin materials (P), the process comprising the following steps: - forming a base coating by applying at least one cosmetic composition comprising an oil onto the area (P) of the keratin materials to be made up, the base coating being coloured and being chosen from a foundation or a lip gloss, - producing a pattern on the area of the keratin materials by placing the coat of cosmetic ink in contact with the base coating present on the area (P) to be made up so as to transfer the coat of cosmetic ink onto the keratin materials. - forming a base coating by applying at least one cosmetic composition comprising an oil onto the area (P) of the keratin materials to be made up, the base coating being coloured and being chosen from a foundation or a lip gloss, - producing a pattern on the area of the keratin materials by placing the coat of cosmetic ink in contact with the base coating present on the area (P) to be made up so as to transfer the coat of cosmetic ink onto the keratin materials.
A method for transmitting positioning information, comprising: determining a positioning sub-frame for transmitting a positioning reference signal, PRS; and transmitting the PRS according to the positioning sub-frame; wherein when the positioning sub-frame is a normal sub-frame, and the positioning sub-frame is a sub-frame comprising a synchronization channel, SCH, and/or a broadcast channel, BCH, the step of transmitting the PRS according to the positioning sub-frame comprises: transmitting the PRS on an orthogonal frequency division multiplex, OFDM, symbol that does not transmit the SCH and/or the BCH; or transmitting the PRS on a resource block that does not transmit the SCH and/or the BCH; or transmitting the PRS on a resource element that does not transmit the SCH and/or the BCH; wherein the transmitting the PRS according to the positioning sub-frame further comprises: transmitting the PRS on an OFDM symbol that does not transmit a cell-specific reference signal, CRS, a physical control format indicator channel, PCFICH, a physical hybrid automatic repeat request, ARQ, indicator channel, PHICH, and a physical downlink control channel, PDCCH. determining a positioning sub-frame for transmitting a positioning reference signal, PRS; and transmitting the PRS according to the positioning sub-frame; wherein when the positioning sub-frame is a normal sub-frame, and the positioning sub-frame is a sub-frame comprising a synchronization channel, SCH, and/or a broadcast channel, BCH, the step of transmitting the PRS according to the positioning sub-frame comprises: transmitting the PRS on an orthogonal frequency division multiplex, OFDM, symbol that does not transmit the SCH and/or the BCH; or transmitting the PRS on a resource block that does not transmit the SCH and/or the BCH; or transmitting the PRS on a resource element that does not transmit the SCH and/or the BCH; wherein the transmitting the PRS according to the positioning sub-frame further comprises: transmitting the PRS on an OFDM symbol that does not transmit a cell-specific reference signal, CRS, a physical control format indicator channel, PCFICH, a physical hybrid automatic repeat request, ARQ, indicator channel, PHICH, and a physical downlink control channel, PDCCH. transmitting the PRS on an orthogonal frequency division multiplex, OFDM, symbol that does not transmit the SCH and/or the BCH; or transmitting the PRS on a resource block that does not transmit the SCH and/or the BCH; or transmitting the PRS on a resource element that does not transmit the SCH and/or the BCH; wherein the transmitting the PRS according to the positioning sub-frame further comprises: transmitting the PRS on an OFDM symbol that does not transmit a cell-specific reference signal, CRS, a physical control format indicator channel, PCFICH, a physical hybrid automatic repeat request, ARQ, indicator channel, PHICH, and a physical downlink control channel, PDCCH.
Magnetic gear unit having at least two magnets , characterized in that at least one first magnet is arranged such that it can rotate about an axis (X) and at least one second magnet is arranged in a displaceable manner along an axis, in such a way that the distance between the at least two magnets can be changed, wherein owing to said rotation, the position of the magnet poles S and N of the first magnet changes in relation to the second magnet , as a result of which this second magnet can be set into a repetitive reciprocating movement by attraction and repulsion and wherein the at least one second magnet , which can be displaced along an axis (X), interacts with a connecting rod of a crank drive, whereby the translatory movement thereof is transferable to a wheel , characterized in that the connecting rod and the wheel are connected to a connecting device that can be engaged and disengaged, in such a way that a drive-effective frictional connection between the connecting rod and the wheel takes place only in at least one predetermined region and thus the drive force can only be transmitted from the connecting rod to the wheel in the corresponding, at least one region .
An apparatus for treating a wound with negative pressure wound therapy, comprising: a stabilizing structure having an oculiform shape for insertion into a wound , the stabilizing structure configured to collapse more in a horizontal plane parallel to a length and a width of the stabilizing structure than in a vertical plane perpendicular to the horizontal plane, wherein the stabilizing structure comprises two extended sections extending in opposite directions along a longitudinal axis of the stabilizing structure and wherein each extended section extends beyond the outer edge of a virtual ellipse formed by the majority of the perimeter of the stabilizing structure along the longitudinal axis of the stabilizing structure.
A computer-implemented method comprising: obtaining information to be transmitted to another device over a link based on a Compute Express Link, CXL, -based protocol via a flit; encrypting at least a portion of the information to yield a ciphertext; generating a cyclic redundancy check, CRC, code based on the ciphertext; generating a flit comprising the ciphertext; and transmitting the flit and the CRC to the other device over the link, further comprising generating a message authentication code, MAC, based on a set of previously-transmitted flits , preparing a MAC flit comprising the MAC, and transmitting over the link the MAC flit after a delay due to a latency caused by the preparing of the MAC flit during which time subsequent flits of a further set of flits continue to be sent. obtaining information to be transmitted to another device over a link based on a Compute Express Link, CXL, -based protocol via a flit; encrypting at least a portion of the information to yield a ciphertext; generating a cyclic redundancy check, CRC, code based on the ciphertext; generating a flit comprising the ciphertext; and transmitting the flit and the CRC to the other device over the link, further comprising generating a message authentication code, MAC, based on a set of previously-transmitted flits , preparing a MAC flit comprising the MAC, and transmitting over the link the MAC flit after a delay due to a latency caused by the preparing of the MAC flit during which time subsequent flits of a further set of flits continue to be sent.
A conductive foam for an automotive seat assembly, the conductive foam comprising: a base polyurethane foam; the base foam being coated and/or saturated with an electrical bonding agent using a wet add-on application; the saturated base foam being oven cured until dry; and wherein the electrical bonding agent comprises carbon black conductive particles, a carboxylated styrene-butadiene emulsion latex binder, and a dispersing agent, and wherein the base foam comprises 95 PPHP (parts per hundred polyol) high reactivity 6000 molecular weight capped triol polyether polyol, 3 PPHP glycerine/sucrose initiated polyether polyol, 2 PPHP glycerin-initiated polyether polyol, and 0.425 PPHP silicone surfactant. a base polyurethane foam; the base foam being coated and/or saturated with an electrical bonding agent using a wet add-on application; the saturated base foam being oven cured until dry; and wherein the electrical bonding agent comprises carbon black conductive particles, a carboxylated styrene-butadiene emulsion latex binder, and a dispersing agent, and wherein the base foam comprises 95 PPHP (parts per hundred polyol) high reactivity 6000 molecular weight capped triol polyether polyol, 3 PPHP glycerine/sucrose initiated polyether polyol, 2 PPHP glycerin-initiated polyether polyol, and 0.425 PPHP silicone surfactant.