mhurhangee/patent-ind-claim-en huggingface dataset:
A master station , the master station comprising circuitry configured to: generate a trigger frame, TF, comprising one or more resource allocations for simultaneous uplink transmissions, wherein each of the one or more resource allocations comprises an indication of whether the resource allocation is an orthogonal frequency division multiple access, OFDMA, resource allocation or a multiple-user multiple-input multiple-output, MU-MIMO, resource allocation, and an identity either of an OFDMA group or an MU-MIMO group, and wherein each resource allocation comprises an indication of a bandwidth for the OFDMA resource allocation or a bandwidth for the MU-MIMO resource allocation, wherein each OFDMA resource allocation comprises one or more indications of an address of a plurality of high-efficiency wireless, HEW, stations and one or more indications of an OFDMA sub-channel resource allocation for the corresponding HEW station , wherein the TF further comprises an indication of a duration of a transmission opportunity obtained by the master station and an indication of whether a next TF will be transmitted within the transmission opportunity; and transmit the TF to the plurality of HEW stations to initiate the simultaneous uplink transmissions from the plurality of stations within the transmission opportunity. generate a trigger frame, TF, comprising one or more resource allocations for simultaneous uplink transmissions, wherein each of the one or more resource allocations comprises an indication of whether the resource allocation is an orthogonal frequency division multiple access, OFDMA, resource allocation or a multiple-user multiple-input multiple-output, MU-MIMO, resource allocation, and an identity either of an OFDMA group or an MU-MIMO group, and wherein each resource allocation comprises an indication of a bandwidth for the OFDMA resource allocation or a bandwidth for the MU-MIMO resource allocation, wherein each OFDMA resource allocation comprises one or more indications of an address of a plurality of high-efficiency wireless, HEW, stations and one or more indications of an OFDMA sub-channel resource allocation for the corresponding HEW station , wherein the TF further comprises an indication of a duration of a transmission opportunity obtained by the master station and an indication of whether a next TF will be transmitted within the transmission opportunity; and transmit the TF to the plurality of HEW stations to initiate the simultaneous uplink transmissions from the plurality of stations within the transmission opportunity.
An autonomous driving assistance system comprising: a sensor configured to acquire surroundings information; a downstream device including an actuator configured to control a vehicle; and a driving assistance device configured to calculate a control amount for the downstream device on the basis of the surroundings information, characterised in that the downstream device further includes a diagnosis unit configured to: perform comparison between at least two control amounts that include the control amount calculated in the driving assistance device and a control amount calculated in the downstream device on the basis of the surroundings information; and determine, if the control amounts are equal to each other, that the control amounts are normal, and determine, if the control amounts are different from each other, that the control amounts are abnormal. a sensor configured to acquire surroundings information; a downstream device including an actuator configured to control a vehicle; and a driving assistance device configured to calculate a control amount for the downstream device on the basis of the surroundings information, characterised in that the downstream device further includes a diagnosis unit configured to: perform comparison between at least two control amounts that include the control amount calculated in the driving assistance device and a control amount calculated in the downstream device on the basis of the surroundings information; and determine, if the control amounts are equal to each other, that the control amounts are normal, and determine, if the control amounts are different from each other, that the control amounts are abnormal. perform comparison between at least two control amounts that include the control amount calculated in the driving assistance device and a control amount calculated in the downstream device on the basis of the surroundings information; and the control amount calculated in the driving assistance device and a control amount calculated in the downstream device on the basis of the surroundings information; and determine, if the control amounts are equal to each other, that the control amounts are normal, and determine, if the control amounts are different from each other, that the control amounts are abnormal.
A component system for hardening mold material mixtures comprising spatially separate from each other at least: - a polyol component, wherein the polyol component comprises a phenolic resin of the benzyl ether type and a solvent; - an isocyanate component being one or more isocyanate compounds having at least 2 isocyanate groups per molecule; wherein the phenolic resin of the benzyl ether type comprises at least one aliphatic hydrocarbon group-substituted phenol as a monomer building block that is substituted on the aromatic ring with an aliphatic hydrocarbon group having 11 to 26 hydrocarbon atoms and 0 to 4 double bonds, and the portion of the hydrocarbon group-substituted phenol in the phenolic resin is 0.5 to 20% by weight; characterized in that the polyol component comprises a solvent which is at least 95% by weight a nonpolar solvent and the nonpolar solvent is selected from hydrocarbons, alkyl/alkoxy silanes, alkyl/alkoxy siloxanes and their mixtures, and the phenolic resin of the benzyl ether type is dissolved in the solvent. - a polyol component, wherein the polyol component comprises a phenolic resin of the benzyl ether type and a solvent; - an isocyanate component being one or more isocyanate compounds having at least 2 isocyanate groups per molecule;
A method comprising: in response to detecting, at a hull shader stage of a graphics pipeline of a graphics processing unit (GPU), that at least a threshold percentage of tessellation factors corresponding to a plurality of patches in a thread group has the same value, bypassing writing at least a subset of the tessellation factors corresponding to the plurality of patches to a graphics memory of the graphics pipeline.
A biodegradable frame for an implantable medical stent, the frame comprising: a magnesium (Mg) alloy; and a coating on the Mg alloy, wherein the coating comprises a hydrofluoric acid (HF) conversion coating layer on the Mg alloy, and alternating layers of aluminum oxide (Al 2 O 3 ) and a poly(aluminum ethylene glycol) polymer (alucone) on the HF conversion coating layer. a magnesium (Mg) alloy; and a coating on the Mg alloy, wherein the coating comprises a hydrofluoric acid (HF) conversion coating layer on the Mg alloy, and alternating layers of aluminum oxide (Al 2 O 3 ) and a poly(aluminum ethylene glycol) polymer (alucone) on the HF conversion coating layer. a hydrofluoric acid (HF) conversion coating layer on the Mg alloy, and alternating layers of aluminum oxide (Al 2 O 3 ) and a poly(aluminum ethylene glycol) polymer (alucone) on the HF conversion coating layer.
A process for removing carbon dioxide from a carbon dioxide-loaded solvent having a first carbon dioxide content, comprising the steps of: applying a first pressure of at least 8 atmospheres to the carbon dioxide-loaded solvent and heating the carbon dioxide-loaded solvent to a first temperature of at least about 135 °C; feeding the carbon dioxide-loaded solvent to a first stage flash apparatus, wherein the carbon dioxide-loaded solvent selected from the group consisting of aqueous ammonia, amine-based solvents, preferably activated N-methyl diethanolamine, aqueous potassium carbonate, and combinations thereof; flashing carbon dioxide from the carbon dioxide-loaded solvent in a first stage flash apparatus to yield a first treated solvent having a second carbon dioxide content that is lower than the first carbon dioxide content and a first carbon dioxide-containing gas stream; removing the first carbon dioxide-containing gas stream from the first stage flash apparatus; feeding the first carbon dioxide-containing gas stream to a condenser thereby providing a carbon dioxide-containing stream at a temperature at or above ambient; flashing carbon dioxide from the first treated solvent in a second stage flash apparatus to yield a second treated solvent having a third carbon dioxide content that is lower than the second carbon dioxide content and a second carbon dioxide-containing gas stream: removing the second carbon dioxide-containing gas stream from the second stage flash apparatus; and recovering the second treated solvent from the second stage flash apparatus. removing the second carbon dioxide-containing gas stream from the second stage flash apparatus; and recovering the second treated solvent from the second stage flash apparatus.
Method for teleoperated driving of a vehicle , wherein knowledge is gained by collecting information about the environment of the vehicle , characterized - in that the knowledge is used to make a prediction regarding a future quality of service of a mobile radio connection of the vehicle with respect to a vehicle control centre , and - in that the knowledge and the prediction are used to make adjustments to the provided scope of functions , the operating limits of the vehicle and/or a navigable area that relate to the teleoperated driving. - in that the knowledge is used to make a prediction regarding a future quality of service of a mobile radio connection of the vehicle with respect to a vehicle control centre , and - in that the knowledge and the prediction are used to make adjustments to the provided scope of functions , the operating limits of the vehicle and/or a navigable area that relate to the teleoperated driving.
An optical anti-counterfeiting element, comprising: a substrate , comprising a first surface and a second surface opposite each other; a first micro-embossment structure at least partially covering the first surface, the first micro-embossment structure comprising a first micro-lens array and a first micro-graph array ; and a second micro-embossment structure at least partially covering the second surface, the second micro-embossment structure comprising a second micro-lens array and a second micro-graph array ; and the first micro-lens array is configured to sample and synthesize the second micro-graph array , so as to form a first reproduced image, and the second micro-lens array is configured to sample and synthesize the first micro-graph array , so as to form a second reproduced image; characterized in that a machining depth of the first micro-embossment structure and the second micro-embossment structure is less than 30 microns; and/or a height of the first micro-lens array and the second micro-lens array is not greater than 20 microns; and/or a machining depth of the first micro-graph array and the second micro-graph array is 0.2-10 microns. a substrate , comprising a first surface and a second surface opposite each other; a first micro-embossment structure at least partially covering the first surface, the first micro-embossment structure comprising a first micro-lens array and a first micro-graph array ; and a second micro-embossment structure at least partially covering the second surface, the second micro-embossment structure comprising a second micro-lens array and a second micro-graph array ; and the first micro-lens array is configured to sample and synthesize the second micro-graph array , so as to form a first reproduced image, and the second micro-lens array is configured to sample and synthesize the first micro-graph array , so as to form a second reproduced image; characterized in that a machining depth of the first micro-embossment structure and the second micro-embossment structure is less than 30 microns; and/or a height of the first micro-lens array and the second micro-lens array is not greater than 20 microns; and/or a machining depth of the first micro-graph array and the second micro-graph array is 0.2-10 microns.
Lighting system for growing of plants in a plant growth space (K), the system comprising a lighting arrangement consisting of several, preferably on external power supply operable electric lamps , having one or more electric components (1a1) that bring about a light function, and a cooling arrangement at least for cooling down the light producing components of the lamps due to heat being generated by the lamps while producing light, wherein the lighting system is arranged to be utilized in connection with the cooling arrangement being separate with respect to the lamps of the lighting arrangement and comprising a cooling structure , being made of a heat conducting plastic, metallic and/or magnetic material, wherein the lamps belonging to the lighting arrangement comprise a mechanical fastening frame (1a2), being coupled in a built-in manner in connection with its one or more electric components (1a1), such as LEDs or like, in order to attach the lamps externally against an outer surface (A) of the cooling structure for cooling the lamps conductively through the cooling structure , and wherein the cross section of the cooling structure stays constant essentially uninterruptedly in the plant growth space (K) and, in which the lamps are installable at a freely chosen point in longitudinal direction (s) thereof and/or in radial direction, when viewed in a cross section thereof, characterized in that ,the cooling arrangement includes: a feed and return piping (I,II) for a cooling medium in liquid form that is connected with a delivery piping in the plant growth space (K), wherein the delivery piping acting as the cooling structure comprises a pipe that has in one and the same cross section at least two flow channels (2a") at least for a feed flow of the cooling medium from the feed piping (I) in one of the channels and for a return flow thereof to the return piping (II) in another channel thereof, and/or the cooling structure that has a heat radiating surface (B) with cooling fins. a feed and return piping (I,II) for a cooling medium in liquid form that is connected with a delivery piping in the plant growth space (K), wherein the delivery piping acting as the cooling structure comprises a pipe that has in one and the same cross section at least two flow channels (2a") at least for a feed flow of the cooling medium from the feed piping (I) in one of the channels and for a return flow thereof to the return piping (II) in another channel thereof, and/or the cooling structure that has a heat radiating surface (B) with cooling fins.
Method for coupling a hydroelectric power plant in a turbine mode to a grid, in order to generate power for said grid, said hydroelectric power plant comprising at least a first hydroelectric unit and a second hydroelectric unit , each provided with a runner mechanically coupled to a shaft line and to a generator, a distributor comprising guide vanes to control a flow of water to said runner, said hydroelectric power plant further comprising a variable frequency drive , the method comprising: a) starting the rotation of at least said first hydroelectric unit and said second hydroelectric unit ; b) connecting the variable frequency drive to the generator of the first hydroelectric unit and to the grid and stabilizing the speed of the first hydroelectric unit; c) connecting the first hydroelectric unit to the grid and disconnecting the generator of the first hydroelectric unit from the variable frequency drive ; d) connecting said variable frequency drive to the generator of the second hydroelectric unit and to the grid and stabilizing the speed of the second hydroelectric unit; e) connecting the second hydroelectric unit to the grid and disconnecting the generator of the second hydroelectric unit from said variable frequency drive . a) starting the rotation of at least said first hydroelectric unit and said second hydroelectric unit ; b) connecting the variable frequency drive to the generator of the first hydroelectric unit and to the grid and stabilizing the speed of the first hydroelectric unit; c) connecting the first hydroelectric unit to the grid and disconnecting the generator of the first hydroelectric unit from the variable frequency drive ; d) connecting said variable frequency drive to the generator of the second hydroelectric unit and to the grid and stabilizing the speed of the second hydroelectric unit; e) connecting the second hydroelectric unit to the grid and disconnecting the generator of the second hydroelectric unit from said variable frequency drive .
A method for tracking and evaluation of microbial populations and malodour on laundry articles, comprising the stages of (i) providing at least one clean, dry sample of pick-up fabric; (ii) laundering the sample together with soiled laundry articles in a laundry vessel for a laundering period of from 15 minutes to 4 hours; (iii) on completion of the laundering period, retaining the damp sample in the laundry vessel without further treatment for a retention period of at least 24 hours; (iv) on completion of the retention period, removing the damp sample from the laundry vessel to dry, and (v) storing the dried sample without further treatment for a storage period of at least 24 hours; in which sensory and/or chemical and/or microbiological assessments are carried out on the sample at two or more of the stages (i), (iv) and (v) as defined above. (i) providing at least one clean, dry sample of pick-up fabric; (ii) laundering the sample together with soiled laundry articles in a laundry vessel for a laundering period of from 15 minutes to 4 hours; (iii) on completion of the laundering period, retaining the damp sample in the laundry vessel without further treatment for a retention period of at least 24 hours; (iv) on completion of the retention period, removing the damp sample from the laundry vessel to dry, and (v) storing the dried sample without further treatment for a storage period of at least 24 hours;
A wireless communication apparatus implementing a user equipment comprising: logic , at least a portion of which is in hardware, wherein the logic is configured to: process a received radio resource control, RRC, message comprising radio access network, RAN, assistance information , evaluate a threshold condition of an access network discovery and selection function, ANDSF, management object, MO , routing policy based on an access threshold comprised in the RAN assistance information and a corresponding measurement, evaluate an offload preference indicator condition of the ANDSF MO routing policy based on an offload preference indicator comprised in the RAN assistance information and an offload preference indicator bitmap, apply the ANDSF MO routing policy to route internet protocol, IP, traffic based on the evaluation of the threshold condition and the evaluation of the offload preference indicator condition. process a received radio resource control, RRC, message comprising radio access network, RAN, assistance information , evaluate a threshold condition of an access network discovery and selection function, ANDSF, management object, MO , routing policy based on an access threshold comprised in the RAN assistance information and a corresponding measurement, evaluate an offload preference indicator condition of the ANDSF MO routing policy based on an offload preference indicator comprised in the RAN assistance information and an offload preference indicator bitmap, apply the ANDSF MO routing policy to route internet protocol, IP, traffic based on the evaluation of the threshold condition and the evaluation of the offload preference indicator condition.
A compound of formula I for use in the treatment or prevention of a rhinovirus infection in a mammal wherein: R represents a C 1-10 alkyl group; X 1 , X 2 , X 3 , X 4 and X 5 independently represent -H or -OH; and and wherein at least one of X 1 , X 2 , X 3 , X 4 and X 5 is -OH. R represents a C 1-10 alkyl group; X 1 , X 2 , X 3 , X 4 and X 5 independently represent -H or -OH; and and wherein at least one of X 1 , X 2 , X 3 , X 4 and X 5 is -OH.
An articulated mounting for a helmet with a visor comprises: a first arm connected to a second arm by a first pivot ; a first end of the first arm is pivotally connected to a second pivot that is adapted to receive a base that attaches to the visor; a second end of the second arm is pivotally connected to a third pivot which has a spectacle connector for supporting spectacles ; characterised in that a resistance means is associated with at least one of the pivots to maintain the spectacles in a chosen orientation supported by the spectacle connector, so that the spectacles remain in a line of sight of a person wearing the helmet when the visor is displaced; and a limiting means is associated with at least one pivot which in use limits a range of rotation of at least one of the pivots.
A computer-implemented control method for a medical pump capable of delivering a medicinal solution inside an infusion tube to a patient (P) by a drive motor , and detecting a pressure inside the infusion tube and determining an occlusion state when the pressure is equal to or higher than an occlusion pressure setting value, the computer implemented control method characterized by: after completion of delivering a predetermined amount of the medicinal solution from a delivery start to the patient (P) via the infusion tube , performing a low-flow-rate operation (STEP11) of continuously delivering a further amount of the medicinal solution at a low flow rate to said patient by operating the drive motor to rotate forward for prevention of thrombus formation after the completion of delivering the predetermined amount of the medicinal solution to the patient (P); in the low-flow-rate operation determining if said occlusion state is present (STEP 12) from pressure data of a downstream occlusion sensor arranged at a downstream side of the infusion tube when the pressure in said infusion tube is equal to or higher than the occlusion pressure setting value; wherein, when it is determined the occlusion state is present in the low-flow-rate operation, mitigating the pressure inside the infusion tube by operating the drive motor to reversely rotate (STEP 14) and providing a backward flow of the medicinal solution ; and stopping the drive motor (STEP 15-5) in the reverse rotation operation when a cumulative amount of the medicinal solution delivered to the patient after starting delivery reaches a value equal to or slightly larger than the predetermined amount of the medicinal solution (STEP 15-4). after completion of delivering a predetermined amount of the medicinal solution from a delivery start to the patient (P) via the infusion tube , performing a low-flow-rate operation (STEP11) of continuously delivering a further amount of the medicinal solution at a low flow rate to said patient by operating the drive motor to rotate forward for prevention of thrombus formation after the completion of delivering the predetermined amount of the medicinal solution to the patient (P); in the low-flow-rate operation determining if said occlusion state is present (STEP 12) from pressure data of a downstream occlusion sensor arranged at a downstream side of the infusion tube when the pressure in said infusion tube is equal to or higher than the occlusion pressure setting value; wherein, when it is determined the occlusion state is present in the low-flow-rate operation, mitigating the pressure inside the infusion tube by operating the drive motor to reversely rotate (STEP 14) and providing a backward flow of the medicinal solution ; and stopping the drive motor (STEP 15-5) in the reverse rotation operation when a cumulative amount of the medicinal solution delivered to the patient after starting delivery reaches a value equal to or slightly larger than the predetermined amount of the medicinal solution (STEP 15-4).