mhurhangee/patent-ind-claim-en huggingface dataset:
An expander system for recovering waste heat, comprising - a shaft , - a coupling portion comprising a first sealing unit and a second sealing unit , and - an expanding unit , the shaft being inserted through the coupling portion to the expanding unit , the first sealing unit and the second sealing unit being arranged facing one another along the shaft , and the first sealing unit and the second sealing unit being configured to seal the shaft in an axial direction relative to the shaft , characterized in that each of the first sealing unit and the second sealing unit comprising a chamber, the coupling portion comprising a through-hole arranged in a perpendicular direction relative to the shaft between the first sealing unit and the second sealing unit , the through-hole being connected to a pressure inlet of the expanding unit , and the through-hole connecting the chamber of the first sealing unit and the chamber of the second sealing unit . - a shaft , - a coupling portion comprising a first sealing unit and a second sealing unit , and - an expanding unit , the shaft being inserted through the coupling portion to the expanding unit , the first sealing unit and the second sealing unit being arranged facing one another along the shaft , and the first sealing unit and the second sealing unit being configured to seal the shaft in an axial direction relative to the shaft , characterized in that each of the first sealing unit and the second sealing unit comprising a chamber, the coupling portion comprising a through-hole arranged in a perpendicular direction relative to the shaft between the first sealing unit and the second sealing unit , the through-hole being connected to a pressure inlet of the expanding unit , and the through-hole connecting the chamber of the first sealing unit and the chamber of the second sealing unit .
A method for wireless communication by a user equipment, UE, , comprising: determining one or more beams to utilize for a beam management procedure using adaptive learning; performing the beam management procedure using the determined one or more beams including: measuring a channel based on synchronization signal block (SSB) transmissions from a base station (BS) using the determined one or more beams, the SSB transmissions associated with one or more transmit beams of the BS; selecting one or more beam pair links (BPLs) associated with one or more channel measurements that are above a channel measurement threshold, or one or more strongest channel measurements among all channel measurements associated with the SSB transmissions; reporting the selected BPLs to the BS; receiving a physical downlink shared channel (PDSCH) using one of the one or more BPLs; determining a throughput associated with the PDSCH; updating the adaptive learning algorithm based on the determined throughput; and using the updated adaptive learning algorithm to determine another one or more beams to utilize for performing another beam management procedure to select another one or more BPLs. determining one or more beams to utilize for a beam management procedure using adaptive learning; performing the beam management procedure using the determined one or more beams including: measuring a channel based on synchronization signal block (SSB) transmissions from a base station (BS) using the determined one or more beams, the SSB transmissions associated with one or more transmit beams of the BS; selecting one or more beam pair links (BPLs) associated with one or more channel measurements that are above a channel measurement threshold, or one or more strongest channel measurements among all channel measurements associated with the SSB transmissions; reporting the selected BPLs to the BS; receiving a physical downlink shared channel (PDSCH) using one of the one or more BPLs; determining a throughput associated with the PDSCH; updating the adaptive learning algorithm based on the determined throughput; and using the updated adaptive learning algorithm to determine another one or more beams to utilize for performing another beam management procedure to select another one or more BPLs.
An additive manufacturing system, comprising: one or more light sources each configured to emit an energy beam; a first optical assembly configured to multiplex together the energy beam emitted by the one or more light sources ; an optical device configured to reshape and blend the energy beam multiplexed by the first optical assembly ; an optically addressable light patterning unit in form of a spatial polarization valve to receive the energy beam reshaped and blended by the optical device and emit light as two-dimensional patterned beam , a polarizer rejecting energy not required to form the two-dimensional patterned beam ; an image relay to receive the two-dimensional patterned beam and focus it as a two-dimensional image on a powder bed; and a rejected energy handling unit to reuse the rejected energy from the polarizer by reintroducing the rejected energy to the first optical assembly . one or more light sources each configured to emit an energy beam; a first optical assembly configured to multiplex together the energy beam emitted by the one or more light sources ; an optical device configured to reshape and blend the energy beam multiplexed by the first optical assembly ; an optically addressable light patterning unit in form of a spatial polarization valve to receive the energy beam reshaped and blended by the optical device and emit light as two-dimensional patterned beam , a polarizer rejecting energy not required to form the two-dimensional patterned beam ; an image relay to receive the two-dimensional patterned beam and focus it as a two-dimensional image on a powder bed; and a rejected energy handling unit to reuse the rejected energy from the polarizer by reintroducing the rejected energy to the first optical assembly .
An electro-photographic image forming apparatus (A) comprising: an image bearing member for bearing a developer image; a light-emitting means configured to emit light to the image bearing member; a developer container (T) which is removably attachable to the image forming apparatus and which contains developer; a movement mechanism arranged to, when a position at which the light-emitting means is able to emit light to the image bearing member is referred to as a first position and a position at which part of the developer container blocks at least part of the light emitted to the image bearing member from the light-emitting means is referred to as a second position, move the developer container to at least either the first position or the second position, wherein presence or absence of the developer container (T) or a shape of the developer container is detected on the basis of a number of electrons discharged from the image bearing member when the light-emitting means emits the light, and wherein the apparatus is arranged such that part of the developer container (T) blocks at least part of the light which is emitted from the light-emitting means , when the developer container (T) is mounted to the image forming apparatus and is at the second position. an image bearing member for bearing a developer image; a light-emitting means configured to emit light to the image bearing member; a developer container (T) which is removably attachable to the image forming apparatus and which contains developer; a movement mechanism arranged to, when a position at which the light-emitting means is able to emit light to the image bearing member is referred to as a first position and a position at which part of the developer container blocks at least part of the light emitted to the image bearing member from the light-emitting means is referred to as a second position, move the developer container to at least either the first position or the second position, wherein presence or absence of the developer container (T) or a shape of the developer container is detected on the basis of a number of electrons discharged from the image bearing member when the light-emitting means emits the light, and wherein the apparatus is arranged such that part of the developer container (T) blocks at least part of the light which is emitted from the light-emitting means , when the developer container (T) is mounted to the image forming apparatus and is at the second position.
Gas barrier film comprising a polymer base having an inorganic layer [A] and a silicon compound layer [B] stacked in this order at least on one side of the polymer base, the inorganic layer [A] containing a zinc compound and silicon oxide, the silicon compound layer [B] containing silicon oxynitride, and the inorganic layer [A] and the silicon compound layer [B] being in contact with each other.
A cooling system for cooling components of a farm machine, the cooling system comprising: a supercharger including a housing and having a first rotor and a second rotor rotatably disposed in the housing, the first and second rotors having meshed lobes for transporting air from an inlet port to an outlet port , the supercharger further including a first rotor shaft and a second rotor shaft rotatably supported by the housing and having the first and second rotors, respectively, fixed for rotation therewith; and an aftertreatment enclosure configured to receive an exhaust duct and having a first inlet, a second inlet, a first outlet, and a second outlet, wherein the first inlet receives engine exhaust from an engine and the second inlet receives a cooling air from the supercharger to reduce a temperature of the engine exhaust passing through the aftertreatment enclosure, wherein the engine exhaust exits the first aftertreatment enclosure through the first outlet, and the cooling air is vented to ambient through the second outlet; and a manifold coupled to the outlet port of the supercharger for directing cooling air from the supercharger onto a turbo charger for cooling thereof, onto an engine accessory of the farm machine for cooling thereof, and to the aftertreatment enclosure . a supercharger including a housing and having a first rotor and a second rotor rotatably disposed in the housing, the first and second rotors having meshed lobes for transporting air from an inlet port to an outlet port , the supercharger further including a first rotor shaft and a second rotor shaft rotatably supported by the housing and having the first and second rotors, respectively, fixed for rotation therewith; and an aftertreatment enclosure configured to receive an exhaust duct and having a first inlet, a second inlet, a first outlet, and a second outlet, wherein the first inlet receives engine exhaust from an engine and the second inlet receives a cooling air from the supercharger to reduce a temperature of the engine exhaust passing through the aftertreatment enclosure, wherein the engine exhaust exits the first aftertreatment enclosure through the first outlet, and the cooling air is vented to ambient through the second outlet; and a manifold coupled to the outlet port of the supercharger for directing cooling air from the supercharger onto a turbo charger for cooling thereof, onto an engine accessory of the farm machine for cooling thereof, and to the aftertreatment enclosure .
An intrastromal corneal insert constituted by a film of solid, transparent, impermeable, biocompatible, physiologically inert and chemically resistant material, having thickness between 4.5 and 50 μm, designed to receive printing, wherein it has a shape of an annulus of variable dimensions as a function of the dimensions of the cornea and of the pupillometry detected in mesopic conditions in the subject who has to receive the insert, and having a plurality of chromatic patterns thereon reproducing the chromatic pattern of the iris or of any other pattern according to the receiver's aesthetic taste, characterized in that a profile of the central hole, or inner perimeter , of the annulus is a multilobed line, wherein each lobe has a shape of an arc of circumference and the lobes are two by two symmetric and opposing, and the annulus having four holes respectively positioned at 2, 4, 8, and 10 o'clock,.
Method for monitoring operating parameters in a passenger transport installation , wherein the passenger transport installation has a plurality of sensors detecting different operating parameters as well as a signal processing device , wherein the method comprises: repeatedly detecting a first operating parameter by means of a first of the sensors; triggering a second of the sensors as soon as the first operating parameter detected by the first sensor assumes a predetermined trigger characteristic; detecting a second operating parameter by means of the second sensor and transmitting a signal reproducing the detected second operating parameter to the signal processing device in response to the triggering; processing the signal to monitor the second operating parameter, characterized in that the first sensor transmits a trigger signal directly to the second sensor in order to trigger the second sensor or the first sensor transmits a signal reproducing the detected first operating parameter to the second sensor and the second sensor generates an internal signal within the second sensor as the trigger signal in order to trigger the second sensor . repeatedly detecting a first operating parameter by means of a first of the sensors; triggering a second of the sensors as soon as the first operating parameter detected by the first sensor assumes a predetermined trigger characteristic; detecting a second operating parameter by means of the second sensor and transmitting a signal reproducing the detected second operating parameter to the signal processing device in response to the triggering; processing the signal to monitor the second operating parameter, characterized in that the first sensor transmits a trigger signal directly to the second sensor in order to trigger the second sensor or the first sensor transmits a signal reproducing the detected first operating parameter to the second sensor and the second sensor generates an internal signal within the second sensor as the trigger signal in order to trigger the second sensor .
A composition for use in a method for treating a glioblastoma in a human or animal subject comprising of: administering to human or animal subject that is in need of treatment of a glioblastoma, wherein the human or animal is no longer responsive to at least one of chemotherapy, surgery, or radiation therapy, a therapeutically effective amount of the composition comprising: an amount of curcumin and empty liposomes or an amount of curcuminoids and empty liposomes that is effective for treating the glioblastoma, wherein the empty liposomes eliminate the QT prolongation caused by the curcumin or curcuminoids; and at least one chemotherapeutic agent that is synergistic with curcumin to treat the glioblastoma, wherein the composition increases ceramide or phosphorylcholine production of the glioblastoma cell. administering to human or animal subject that is in need of treatment of a glioblastoma, wherein the human or animal is no longer responsive to at least one of chemotherapy, surgery, or radiation therapy, a therapeutically effective amount of the composition comprising: an amount of curcumin and empty liposomes or an amount of curcuminoids and empty liposomes that is effective for treating the glioblastoma, wherein the empty liposomes eliminate the QT prolongation caused by the curcumin or curcuminoids; and at least one chemotherapeutic agent that is synergistic with curcumin to treat the glioblastoma, wherein the composition increases ceramide or phosphorylcholine production of the glioblastoma cell.
An apparatus for producing elongate strands of metal, the apparatus comprising a rotatable wheel (B) having a circumferential surface (S), the circumferential surface having circumferentially extending edges and recesses (G) formed between or bounded by the edges, at least one nozzle (N) having a nozzle opening for directing a molten metal onto the circumferential surface (S) and a collection means for collecting solidified strands of metal formed on the circumferential surface from the molten metal and separated from the circumferential surface (S) by centrifugal force generated by rotation of the wheel (B), characterized in that the nozzle (N) has a rectangular cross-section having a width (W) of the nozzle opening in the circumferential direction (C) of rotation of the wheel (B) and a length transverse to the circumferential surface of the wheel which is greater than the width W, and in that an apparatus is provided for controlling a gas pressure (P) applied to the liquid metal which moves the liquid metal through the nozzle opening and delivers it to the circumferential surface (S) of the rotatable wheel (B).
A method for wireless communication, comprising: identifying an autonomous uplink control channel configuration for unscheduled uplink transmissions in an unlicensed radio frequency spectrum band; transmitting control information multiplexed with data according to the autonomous uplink control channel configuration in the unlicensed radio frequency spectrum band during an initial transmission time interval, TTI, of a transmission opportunity, TxOP; and transmitting additional data in the unlicensed radio frequency spectrum band during one or more subsequent TTIs of the TxOP, wherein the control information transmitted in the initial TTI is for the whole TxOP and no control information is transmitted in the subsequent TTIs. identifying an autonomous uplink control channel configuration for unscheduled uplink transmissions in an unlicensed radio frequency spectrum band; transmitting control information multiplexed with data according to the autonomous uplink control channel configuration in the unlicensed radio frequency spectrum band during an initial transmission time interval, TTI, of a transmission opportunity, TxOP; and transmitting additional data in the unlicensed radio frequency spectrum band during one or more subsequent TTIs of the TxOP, wherein the control information transmitted in the initial TTI is for the whole TxOP and no control information is transmitted in the subsequent TTIs.
Aerosol-generating device comprising a device housing , a mouthpiece associated to the device housing; a receiving chamber configured to receive from external to the device at least a portion of a sheet of aerosol-forming substrate in a non-rolled form and configured to accommodate a cylindrically shaped aerosol-forming substrate; a holder for holding the sheet of aerosol-forming substrate, characterized by a rolling device for rolling the sheet of aerosol-forming substrate around the holder into the cylindrically shaped aerosol-forming substrate. a device housing , a mouthpiece associated to the device housing; a receiving chamber configured to receive from external to the device at least a portion of a sheet of aerosol-forming substrate in a non-rolled form and configured to accommodate a cylindrically shaped aerosol-forming substrate; a holder for holding the sheet of aerosol-forming substrate, characterized by a rolling device for rolling the sheet of aerosol-forming substrate around the holder into the cylindrically shaped aerosol-forming substrate.
Closure system for mounting and securing subassemblies on a housing , wherein at least one subassembly , enclosed by a chassis, has a plug-in connection on a rear side and has a chassis front-plate , which is connected to the chassis, on the end side which is located opposite the rear side, wherein each subassembly can be arrested on a housing , into which the subassembly has been pushed, by at least two latching devices , wherein, on two opposite sides, the chassis front-plate has a respective side wall in a direction perpendicular to the chassis front-plate , and in each case one of the two latching devices is fitted on each side wall , and wherein each latching device can be released by an opening tool , which engages in the chassis front-plate , wherein each latching device has at least one latching nose , characterized in that the side wall of the chassis front-plate and also the housing each have apertures , in which the latching noses engage.
Electrochemical cell having the following features: a. It comprises a first electrode of a first polarity, b. It comprises a second electrode of a second polarity opposite to the first polarity, c. It comprises a third electrode that has the same polarity as the second electrode, wherein d. the first electrode , the second electrode and the third electrode are arranged on a surface of a substrate separately from one another, side by side in a coplanar arrangement and e. the first electrode is connected to the second electrode and the third electrode via an ion-conducting electrolyte . a. It comprises a first electrode of a first polarity, b. It comprises a second electrode of a second polarity opposite to the first polarity, c. It comprises a third electrode that has the same polarity as the second electrode, d. the first electrode , the second electrode and the third electrode are arranged on a surface of a substrate separately from one another, side by side in a coplanar arrangement and e. the first electrode is connected to the second electrode and the third electrode via an ion-conducting electrolyte .
A method comprising: spreading, at a user equipment , a dedicated pilot sequence in an uplink reference signal transmission using a block spreading method, wherein the block spreading method comprises spreading a certain cyclic shift of a constant amplitude zero autocorrelation sequence using a spreading sequence comprising an orthogonal code, by multiplying said certain cyclic shift of the constant amplitude zero autocorrelation sequence by said orthogonal code, wherein the user equipment is allocated a unique combination of the spreading sequence and cyclic shifted constant amplitude zero autocorrelation sequence to achieve a different combination of the spreading sequence and cyclic shifted constant amplitude zero autocorrelation sequence compared to another user equipment in an adjacent cell, so that the user equipment's dedicated pilot sequence does not interfere with a dedicated pilot sequence of said another user equipment in said adjacent cell, wherein the same constant amplitude zero autocorrelation sequence is used at the user equipment and said another user equipment in said adjacent cell. spreading, at a user equipment , a dedicated pilot sequence in an uplink reference signal transmission using a block spreading method, wherein the block spreading method comprises spreading a certain cyclic shift of a constant amplitude zero autocorrelation sequence using a spreading sequence comprising an orthogonal code, by multiplying said certain cyclic shift of the constant amplitude zero autocorrelation sequence by said orthogonal code, wherein the user equipment is allocated a unique combination of the spreading sequence and cyclic shifted constant amplitude zero autocorrelation sequence to achieve a different combination of the spreading sequence and cyclic shifted constant amplitude zero autocorrelation sequence compared to another user equipment in an adjacent cell, so that the user equipment's dedicated pilot sequence does not interfere with a dedicated pilot sequence of said another user equipment in said adjacent cell, wherein the same constant amplitude zero autocorrelation sequence is used at the user equipment and said another user equipment in said adjacent cell.