mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus comprising: decoder circuitry to decode a single instruction to generate a decoded instruction, the decoded instruction including 1) one or more fields to identify a first destination operand, 2) one or more fields to identify a second destination operand, the second destination operand is to either store a decrypted data structure after execution of the instruction, or a location to store a decrypted data structure after execution of the instruction, 3) one or more fields to identify a source operand, wherein the source operand is to either store an input data structure to be used in a decryption process or a location of an input data structure to be used in a decryption process, and 4) one more fields for an opcode, the opcode to indicate that execution circuitry is to at least decrypt secret information from the input data structure with a physically unclonable function, PUF, generated decryption key and store the decrypted secret information according to the second destination operand's usage for the instruction; and execution circuitry to execute the decoded instruction according to the opcode. decoder circuitry to decode a single instruction to generate a decoded instruction, the decoded instruction including 1) one or more fields to identify a first destination operand, 2) one or more fields to identify a second destination operand, the second destination operand is to either store a decrypted data structure after execution of the instruction, or a location to store a decrypted data structure after execution of the instruction, 3) one or more fields to identify a source operand, wherein the source operand is to either store an input data structure to be used in a decryption process or a location of an input data structure to be used in a decryption process, and 4) one more fields for an opcode, the opcode to indicate that execution circuitry is to at least decrypt secret information from the input data structure with a physically unclonable function, PUF, generated decryption key and store the decrypted secret information according to the second destination operand's usage for the instruction; and execution circuitry to execute the decoded instruction according to the opcode.
Polybenzoxazine, the repeat units of which comprise at least one unit corresponding to the formulae (I) or (II): in which: - Z 1 represents an at least divalent, aliphatic, cycloaliphatic or aromatic bonding group comprising at least one carbon atom and optionally at least one heteroatom selected from O, S, N and P; - X 1 and X 2 , which are identical or different, represent O or S; - Ar 1 and Ar 2 , which are identical or different, represent a substituted or unsubstituted phenylene group; - Z 2 represents O or (S) n , the symbol "n" representing an integer equal to 1 or greater than 1, - the symbol "*" represents the attachment resulting from the opening of the oxazine rings. - Z 1 represents an at least divalent, aliphatic, cycloaliphatic or aromatic bonding group comprising at least one carbon atom and optionally at least one heteroatom selected from O, S, N and P; - X 1 and X 2 , which are identical or different, represent O or S; - Ar 1 and Ar 2 , which are identical or different, represent a substituted or unsubstituted phenylene group; - Z 2 represents O or (S) n , the symbol "n" representing an integer equal to 1 or greater than 1, - the symbol "*" represents the attachment resulting from the opening of the oxazine rings.
A composition in form of an oil-in-water pickering emulsion comprising: a) a dispersed fatty phase comprising at least one oil chosen from silicone oils, hydrocarbonated oils, or a mixture thereof; b) a continuous aqueous phase comprising at least one C 1 -C 4 alcohol in an amount ranging from 1% to 10% by weight, relative to the total weight of the composition, the at least one C 1 -C 4 alcohol comprising ethanol, ethylene glycol, C 1 -C 4 dialkylene glycol or a mixture thereof; and c) 0.001% to 5% by weight, relative to the total weight of the composition, of at least one hydrophobic particle chosen from hydrophobic silicas, hydrophobic cellulose, starch, talc, silicone resin powders, hollow hemispherical silicone particles, polyamide powders, hydrophobic pigments, or a mixture thereof; and d) at least one polysaccharide. a) a dispersed fatty phase comprising at least one oil chosen from silicone oils, hydrocarbonated oils, or a mixture thereof; b) a continuous aqueous phase comprising at least one C 1 -C 4 alcohol in an amount ranging from 1% to 10% by weight, relative to the total weight of the composition, the at least one C 1 -C 4 alcohol comprising ethanol, ethylene glycol, C 1 -C 4 dialkylene glycol or a mixture thereof; and c) 0.001% to 5% by weight, relative to the total weight of the composition, of at least one hydrophobic particle chosen from hydrophobic silicas, hydrophobic cellulose, starch, talc, silicone resin powders, hollow hemispherical silicone particles, polyamide powders, hydrophobic pigments, or a mixture thereof; and d) at least one polysaccharide.
A user equipment, UE , comprising: an aiding sensor; at least one transceiver configured to: receive from a base station, BS at least one synchronization signal block, SSB, during a downlink SSB transmit period, wherein the at least one SSB is modulated using a downlink carrier wave; a memory system configured to store data, instructions, or a combination thereof; and a processing system coupled to the memory system and configured to: measure , during the downlink SSB transmit period, a first carrier phase associated with the downlink carrier wave; track relative movement of the UE during an uplink period subsequent to the downlink SSB transmit period based on signals received from the aiding sensor; estimate , during the uplink period, an integer ambiguity, IA, change based on the relative movement; measure , during a later downlink SSB transmit period subsequent to the uplink period, a second carrier phase based on the measured first carrier phase and the estimated IA change; and set a second IA based on a first IA and the IA change. an aiding sensor; at least one transceiver configured to: receive from a base station, BS at least one synchronization signal block, SSB, during a downlink SSB transmit period, wherein the at least one SSB is modulated using a downlink carrier wave; a memory system configured to store data, instructions, or a combination thereof; and a processing system coupled to the memory system and configured to: measure , during the downlink SSB transmit period, a first carrier phase associated with the downlink carrier wave; track relative movement of the UE during an uplink period subsequent to the downlink SSB transmit period based on signals received from the aiding sensor; estimate , during the uplink period, an integer ambiguity, IA, change based on the relative movement; measure , during a later downlink SSB transmit period subsequent to the uplink period, a second carrier phase based on the measured first carrier phase and the estimated IA change; and set a second IA based on a first IA and the IA change. measure , during the downlink SSB transmit period, a first carrier phase associated with the downlink carrier wave; track relative movement of the UE during an uplink period subsequent to the downlink SSB transmit period based on signals received from the aiding sensor; estimate , during the uplink period, an integer ambiguity, IA, change based on the relative movement; measure , during a later downlink SSB transmit period subsequent to the uplink period, a second carrier phase based on the measured first carrier phase and the estimated IA change; and set a second IA based on a first IA and the IA change.
A method of operating a network node operating according to a carrier aggregation scheme, comprising: obtaining a list of potential secondary cells for a wireless device ; blindly selecting a secondary cell for the wireless device from the list of potential secondary cells ; configuring the wireless device with the selected secondary cell; and after configuring the wireless device with the selected secondary cell, monitoring for at least one indication from the wireless device selected from the group consisting of: an indication that the selected secondary cell is an acceptable secondary cell for the wireless device ; an indication that the selected secondary cell is not an acceptable secondary cell for the wireless device ; or an indication from the wireless device that a neighboring cell of the selected secondary cell is better than the selected secondary cell; if the at least one indication is not received within a defined period of time, blindly selecting a new secondary cell for the wireless device from the list of potential secondary cells for the wireless device ; and configuring the wireless device with the new secondary cell selected for the wireless device . obtaining a list of potential secondary cells for a wireless device ; blindly selecting a secondary cell for the wireless device from the list of potential secondary cells ; configuring the wireless device with the selected secondary cell; and after configuring the wireless device with the selected secondary cell, monitoring for at least one indication from the wireless device selected from the group consisting of: an indication that the selected secondary cell is an acceptable secondary cell for the wireless device ; an indication that the selected secondary cell is not an acceptable secondary cell for the wireless device ; or an indication from the wireless device that a neighboring cell of the selected secondary cell is better than the selected secondary cell; an indication that the selected secondary cell is an acceptable secondary cell for the wireless device ; an indication that the selected secondary cell is not an acceptable secondary cell for the wireless device ; or an indication from the wireless device that a neighboring cell of the selected secondary cell is better than the selected secondary cell; if the at least one indication is not received within a defined period of time, blindly selecting a new secondary cell for the wireless device from the list of potential secondary cells for the wireless device ; and configuring the wireless device with the new secondary cell selected for the wireless device .
A round baler with a baler housing having a baling chamber , the baler housing having at least one fixed housing portion and an ejection gate mounted on the fixed housing portion pivotable between a closed position P S and an open position P O , with means for picking up and conveying harvested material into the baling chamber , with baler rollers , driven by means of a drive, which are distributed on the fixed housing portion and the ejection gate and are disposed bordering the circumference of the baling chamber , and with a device for covering round bales compacted from the supplied harvested material in the baling chamber with a cover, characterized by at least one double-acting pressurizing medium cylinder , in particular a hydraulic cylinder, which is connected to the ejection gate and is configured to reversibly pivot the ejection gate between the closed position P S and the open position P O , and a proportional valve , preferably a 4/3-way proportional valve, which is connected to the at least one pressurizing medium cylinder in order to supply, remove and/or regulate a pressurizing medium, in particular a hydraulic fluid, and to a control device, wherein the control device is configured to actuate the proportional valve in a manner such that an opening procedure of the ejection gate is implemented either at a constant speed or at a variable speed as a function of a position P of the ejection gate determined immediately after completion of a baling procedure.
Method for determining a speed and associated gear shifting profile of a motor vehicle which is to be set automatically on a upcoming route section and is optimal with respect to predetermined target criteria, comprising the steps: - Determination (S10) of a discrete search space which indicates possible courses of driving states of the motor vehicle along an upcoming route section , a driving state being defined by a speed and associated gear of the motor vehicle ; - determination (S20) of state change costs for possible driving state transitions within the search space ; and - determination (S30) of an optimal course of the driving states within the determined search space for the preceding route section with regard to the determined state change costs; characterised in - that for each driving states within the search space , a kinetic energy of the motor vehicle is determined (S21); and - that an energy change is determined (S23) for each of the possible driving state transitions within the search space, the energy change indicating an energy change of the motor vehicle when changing between two driving states; and - the state change costs are determined as a function of the specific energy changes (S24). - Determination (S10) of a discrete search space which indicates possible courses of driving states of the motor vehicle along an upcoming route section , a driving state being defined by a speed and associated gear of the motor vehicle ; - determination (S20) of state change costs for possible driving state transitions within the search space ; and - determination (S20) of state change costs for possible driving state transitions within the search space ; and - determination (S30) of an optimal course of the driving states within the determined search space for the preceding route section with regard to the determined state change costs; characterised in - that for each driving states within the search space , a kinetic energy of the motor vehicle is determined (S21); and - that an energy change is determined (S23) for each of the possible driving state transitions within the search space, the energy change indicating an energy change of the motor vehicle when changing between two driving states; and - that for each driving states within the search space , a kinetic energy of the motor vehicle is determined (S21); and - that an energy change is determined (S23) for each of the possible driving state transitions within the search space, the energy change indicating an energy change of the motor vehicle when changing between two driving states; and - the state change costs are determined as a function of the specific energy changes (S24).
Packaging for storing, transport and/or cryoconservation of biological material comprising two parallel walls connected to each other along their periphery and in a central area of the packaging, characterized in that the walls are parallel after filling, in which the packaging incorporates at least one opening for filling whereby the packaging may be filled, and wherein the distance between the inner surface of the two walls is any one of 2 mm, 1.1 mm, 1.0 mm or 0.95 mm.
A fluid characterization method comprising: obtaining a fluid sample of a reservoir fluid; analyzing the fluid sample to derive input parameters , wherein the input parameters comprise fluid properties obtained from measurement of the fluid sample; determining component mole fractions of the fluid sample using a mole fraction distribution function ; determining calculated fluid properties using equation of state flash calculating ; and characterized by calculating differences between said derived input fluid parameters and said calculated fluid parameters, and determining updated values for molecular weight of C6+ components and density of C36+ components of the fluid sample if said differences are not within a tolerance error, and then repeating the steps of determining component mole fractions and determining calculated fluid properties. obtaining a fluid sample of a reservoir fluid; analyzing the fluid sample to derive input parameters , wherein the input parameters comprise fluid properties obtained from measurement of the fluid sample; determining component mole fractions of the fluid sample using a mole fraction distribution function ; determining calculated fluid properties using equation of state flash calculating ; and characterized by calculating differences between said derived input fluid parameters and said calculated fluid parameters, and determining updated values for molecular weight of C6+ components and density of C36+ components of the fluid sample if said differences are not within a tolerance error, and then repeating the steps of determining component mole fractions and determining calculated fluid properties.
Aerosol device containing a cosmetic composition comprising: - one or more fixing polymers, - one or more powders, - at least 0.05% by weight, with respect to the total weight of the composition, of one or more polydimethylsiloxanes comprising dimethylsilanol end groups, - one or more organic solvents, and - one or more propellants, at least one of which is dimethyl ether; the ratio by weight of the total amount of the powder(s) to the total amount of the fixing polymer(s) is greater than or equal to 1. - one or more fixing polymers, - one or more powders, - at least 0.05% by weight, with respect to the total weight of the composition, of one or more polydimethylsiloxanes comprising dimethylsilanol end groups, - one or more organic solvents, and - one or more propellants, at least one of which is dimethyl ether;
Method for sorting items to be prepared into delivery rounds in a plurality of sorting passes, using at least a first sorter (T1) and a second sorter (T2) each comprising sorting outlets (S1, S2), said method comprising the steps of: - distributing (St10) said items between said first and second sorters; - carrying out (St20) a first sorting pass (P1) of the items distributed over the first sorter and the second sorter, this first sorting pass taking place simultaneously on the first sorter and the second sorter; - recovering (St30) first groups (G1) of items from first sorting outlets (S1) of the first sorter and from first sorting outlets (S1) of the second sorter and bringing these first groups (G1) of items to the inlet (E) of the first sorter (T1); and - recovering (St30) second groups (G2) of items from second sorting outlets (S2) of the first sorter and from second sorting outlets (S2) of the second sorter and bringing these second groups (G2) of items to the inlet (E) of the second sorter (T2); and then - carrying out (St40) successive sorting passes (P2, P3) in parallel on the first sorter and the second sorter on the groups of items (G1, G2) brought to the inlet of these sorters, each batch of items formed at an outlet of a sorter upon completion of one of these sorting passes being recovered and sent back to the inlet of the same sorter to be sorted there again, until the items have been prepared into rounds. - distributing (St10) said items between said first and second sorters; - carrying out (St20) a first sorting pass (P1) of the items distributed over the first sorter and the second sorter, this first sorting pass taking place simultaneously on the first sorter and the second sorter; - recovering (St30) first groups (G1) of items from first sorting outlets (S1) of the first sorter and from first sorting outlets (S1) of the second sorter and bringing these first groups (G1) of items to the inlet (E) of the first sorter (T1); and - recovering (St30) second groups (G2) of items from second sorting outlets (S2) of the first sorter and from second sorting outlets (S2) of the second sorter and bringing these second groups (G2) of items to the inlet (E) of the second sorter (T2); and then - carrying out (St40) successive sorting passes (P2, P3) in parallel on the first sorter and the second sorter on the groups of items (G1, G2) brought to the inlet of these sorters, each batch of items formed at an outlet of a sorter upon completion of one of these sorting passes being recovered and sent back to the inlet of the same sorter to be sorted there again, until the items have been prepared into rounds.
A pressure monitoring cushion comprising first and second pressure sensors, a controller configured to receive input from the pressure sensors, output means controlled by the controller , and a power source, wherein each pressure sensor includes first and second electrical conductors and a resilient electrical insulator disposed between the electrical conductors ; each electrical insulator includes one or more apertures through which the adjacent electrical conductors come into contact when a threshold pressure is applied to the cushion ; the electrical conductors of the first pressure sensor come into contact at a first threshold pressure, and the electrical conductors of the second pressure sensor come into contact at a higher second threshold pressure; and the controller triggers an output from the output means after a predetermined period of time has elapsed with contact between the electrical conductors in the first and/or second pressure sensors; characterised in that the controller shortens the period of time until the output means is triggered when the second pressure sensor detects the second threshold pressure. each pressure sensor includes first and second electrical conductors and a resilient electrical insulator disposed between the electrical conductors ; each electrical insulator includes one or more apertures through which the adjacent electrical conductors come into contact when a threshold pressure is applied to the cushion ; the electrical conductors of the first pressure sensor come into contact at a first threshold pressure, and the electrical conductors of the second pressure sensor come into contact at a higher second threshold pressure; and the controller triggers an output from the output means after a predetermined period of time has elapsed with contact between the electrical conductors in the first and/or second pressure sensors; characterised in that the controller shortens the period of time until the output means is triggered when the second pressure sensor detects the second threshold pressure.
A process comprising bringing a compound of general formula (I) into the gaseous or aerosol state and depositing the compound of general formula (I) from the gaseous or aerosol state onto a solid substrate, wherein R 11 , R 12 , R 13 , R 14 , R 15 , R 16 , R 17 , R 18 are independent of each other hydrogen, an alkyl group, an aryl group, or a trialkylsilyl group, R 21 , R 22 , R 23 , R 24 are independent of each other an alkyl group, an aryl group, or a trialkylsilyl group, n is 1 or 2, M is a transition metal, X is a ligand which coordinates M, and m is an integer from 0 to 3. R 11 , R 12 , R 13 , R 14 , R 15 , R 16 , R 17 , R 18 are independent of each other hydrogen, an alkyl group, an aryl group, or a trialkylsilyl group, R 21 , R 22 , R 23 , R 24 are independent of each other an alkyl group, an aryl group, or a trialkylsilyl group, n is 1 or 2, M is a transition metal, X is a ligand which coordinates M, and m is an integer from 0 to 3.
A method for preparing waste powder from generative production processes, by means of which three-dimensional objects are produced in layers from a powdery base material in that initially a first layer of said base material is applied to a construction platform, which first layer is then irradiated and hardened in accordance with the coordinates of a first plane of the object to be built using a laser, wherein, after completion of processing in said first plane, the construction platform is lowered by the layer thickness of another plane and a new powder layer is applied, and wherein these process steps are repeated in accordance with the number of planes until a three-dimensional object is built, upon completion of which powdery material remains as waste powder outside the areas covered by the laser, wherein said waste powder is subjected to mechanical processing in that it is reduced to small pieces using a grinding mill, characterized in that the waste powder is preferably reduced to a grain size which is smaller than the original grain size of the powder in its new condition.