mhurhangee/patent-ind-claim-en huggingface dataset:
Planting device for a planting machine for root crops, comprising at least two conveyor members which rotate in operation, as well as a respective container associated with each of the respective conveyor members in the form of a short-bottom container which is bounded on one side by the respective conveyor member wherein each container has a bottom and side walls and the respective bottom can be transferred at least partially from a closed position into an open position, and comprising an adjusting device by means of which the bottoms , which are designed in particular as vibrating bottoms, are designed to be jointly adjustable, wherein the conveyor members are designed as bucket belts and the respective short-bottom container forms a scooping space.
Method for operating a motor vehicle with a trailer device , comprising the following steps performed by a driver assistance apparatus of the motor vehicle : - identifying coupling of the motor vehicle to the trailer device (12, S2), - providing a cargo categorization signal that describes a property of cargo of the trailer device (S5), - on the basis of the provided cargo categorization signal: checking whether the cargo meets a predefined special transport criterion, wherein the predefined special transport criterion describes a predefined minimum degree of sensitivity of the cargo , - if the cargo meets the predefined special transport criterion: defining an at least partially autonomous driving mode on the basis of the property described by the provided cargo categorization signal (S8), and - activating the defined driving mode (S9); wherein the defined driving mode at least partially autonomously performs the following: - regulating a driving-off behaviour of the motor vehicle in the drive; and/or - limiting a maximum acceleration, preferably in the front accelerator pedal region; and/or - smoothing a steering movement; and/or - increasing a steering resistance; and wherein the method comprises the following steps performed by a sensor apparatus of the motor vehicle and/or of the trailer device : - acquiring the property of the cargo (14, S3), and - generating the cargo categorization signal on the basis of the acquired property (S4), wherein the generated cargo categorization signal is received by the driver assistance apparatus from the sensor apparatus (S5). - identifying coupling of the motor vehicle to the trailer device (12, S2), - providing a cargo categorization signal that describes a property of cargo of the trailer device (S5), - on the basis of the provided cargo categorization signal: checking whether the cargo meets a predefined special transport criterion, wherein the predefined special transport criterion describes a predefined minimum degree of sensitivity of the cargo , - if the cargo meets the predefined special transport criterion: defining an at least partially autonomous driving mode on the basis of the property described by the provided cargo categorization signal (S8), and - activating the defined driving mode (S9); - regulating a driving-off behaviour of the motor vehicle in the drive; and/or - limiting a maximum acceleration, preferably in the front accelerator pedal region; and/or - smoothing a steering movement; and/or - increasing a steering resistance; - acquiring the property of the cargo (14, S3), and - generating the cargo categorization signal on the basis of the acquired property (S4), wherein the generated cargo categorization signal is received by the driver assistance apparatus from the sensor apparatus (S5).
A nucleic acid encoding a synthetic HIV envelope protein comprising the amino acid sequence of SEQ ID NO: 8, or SEQ ID NO:8 having one or more mutations selected from the group consisting of (i) I529P, (ii) K480E, and (iii) a combination of EK479-480RRRR, I529P, A471C and T575C.
A system for delivering embolic material into a target location within a patient's body, comprising: a first chamber including a first piston movable between a retracted position and a discharge position adjacent a first port , the first chamber comprising a flowable embolic material therein; a first actuator coupled to the first piston for directing the first piston from the retracted position to the discharge position to deliver the flowable embolic material from the first chamber out the first port when the first piston is moved from the retracted position to the discharge position; a second chamber including a second piston movable between a retracted position and a discharge position adjacent a second port , the second piston biased to move towards the discharge position; a diverter communicating with the first and second ports, and comprising a second actuator for opening one of a first flow path communicating between the first and second ports and a second flow path communicating between the first port and an outlet of the diverter; and a mixing component communicating with the first flow path for mixing the embolic material as the embolic material flows between the first chamber and the second chamber, characterized in that : the mixing component comprises a plurality of mixing elements arranged sequentially such that embolic material passing through the mixing component is mixed by the mixing elements, and the second chamber and mixing component are provided within a housing . a first chamber including a first piston movable between a retracted position and a discharge position adjacent a first port , the first chamber comprising a flowable embolic material therein; a first actuator coupled to the first piston for directing the first piston from the retracted position to the discharge position to deliver the flowable embolic material from the first chamber out the first port when the first piston is moved from the retracted position to the discharge position; a second chamber including a second piston movable between a retracted position and a discharge position adjacent a second port , the second piston biased to move towards the discharge position; a diverter communicating with the first and second ports, and comprising a second actuator for opening one of a first flow path communicating between the first and second ports and a second flow path communicating between the first port and an outlet of the diverter; and a mixing component communicating with the first flow path for mixing the embolic material as the embolic material flows between the first chamber and the second chamber, characterized in that : the mixing component comprises a plurality of mixing elements arranged sequentially such that embolic material passing through the mixing component is mixed by the mixing elements, and the second chamber and mixing component are provided within a housing . the mixing component comprises a plurality of mixing elements arranged sequentially such that embolic material passing through the mixing component is mixed by the mixing elements, and the second chamber and mixing component are provided within a housing .
A storage data encryption and decryption method, comprising: step 1: providing (S31) a true random number generator configured to generate a plurality of keys, wherein the plurality of keys comprises a first key and a second, different key; step 2: providing (S32) a data memory configured to store data and a key memory configured to store keys, and writing the keys into the key memory; and step 3: providing (S33) a data reading and writing interface module configured to read and write data, and providing a data encryption and decryption module configured to read the keys and perform encryption and decryption operations; wherein the data written from the data reading and writing interface module is encrypted by the data encryption and decryption module and then written into the data memory, and the data read from the data memory is decrypted by the data encryption and decryption module and then read to the data reading and writing interface module, wherein the method is performed by an embedded system comprising first and second chips, wherein data in the first chip is configured to be encrypted and decrypted using the first key of the plurality of keys, and wherein data in the second chip is configured to be encrypted and decrypted using the second, different key of the plurality of keys. step 1: providing (S31) a true random number generator configured to generate a plurality of keys, wherein the plurality of keys comprises a first key and a second, different key; step 2: providing (S32) a data memory configured to store data and a key memory configured to store keys, and writing the keys into the key memory; and step 3: providing (S33) a data reading and writing interface module configured to read and write data, and providing a data encryption and decryption module configured to read the keys and perform encryption and decryption operations; wherein the data written from the data reading and writing interface module is encrypted by the data encryption and decryption module and then written into the data memory, and the data read from the data memory is decrypted by the data encryption and decryption module and then read to the data reading and writing interface module, wherein the method is performed by an embedded system comprising first and second chips, wherein data in the first chip is configured to be encrypted and decrypted using the first key of the plurality of keys, and wherein data in the second chip is configured to be encrypted and decrypted using the second, different key of the plurality of keys.
A personal survival system for use in water, including: an inflatable chamber , an inflation system operable to inflate the inflatable chamber , and wherein the inflation system and the inflatable chamber are mountable on a wearer's body and the inflation system is mountable separately from and remotely from the inflatable chamber , a tube providing a fluid connection between the inflation system and the inflatable chamber , a one-way check valve provided to prevent back-flow out of the inflatable chamber , a mounting system configured to locate the inflation system separately from and remotely from the inflatable chamber so that they are spaced apart on a wearer's body at substantially the same positions prior to and after inflation of the inflatable chamber, characterised in that the inflation system is manually operable and comprises a housing that is coupled to the tube , the housing being fixed to a mounting plate . an inflatable chamber , an inflation system operable to inflate the inflatable chamber , and wherein the inflation system and the inflatable chamber are mountable on a wearer's body and the inflation system is mountable separately from and remotely from the inflatable chamber , a tube providing a fluid connection between the inflation system and the inflatable chamber , a one-way check valve provided to prevent back-flow out of the inflatable chamber , a mounting system configured to locate the inflation system separately from and remotely from the inflatable chamber so that they are spaced apart on a wearer's body at substantially the same positions prior to and after inflation of the inflatable chamber, characterised in that the inflation system is manually operable and comprises a housing that is coupled to the tube , the housing being fixed to a mounting plate .
A compound of formula (I) wherein A R is hydrogen or L 1 -R 5 ; R 1 , R 2 are independently, hydrogen, C 1 -C 4 -alkyl, C 3 -C 7 cycloalkyl, aryl, heteroaryl, -(CH 2 ) z CF 3 , or R 1 and R 2 , taken together with the carbon atoms they are bound to, form with the imidazole a fused heterocycle or a fused heteroaryl; z is an integer from zero to 6 R 3 , R 4 are hydrogen or C 1 -C 4 -alkyl; L 1 is -(CH 2 ) j - Y - or -CH 2 -; j is an integer from 2 to 6; Y is a bond, oxygen, or CH 2 ; R 5 is C 1 -C 4 -alkyl or aryl, wherein the aryl is optionally substituted by halogen, C 1 -C 6 -alkyl or L 2 -R 6 ; L 2 is -(CH 2 ) m -; -(CH 2 ) n - W -(CH 2 )p-; R 6 is heterocyclyl, wherein the heterocyclyl is optionally substituted by C 1 -C 6 -alkyl; m, n, p are, independently, zero or an integer from 1 to 6; W is oxygen, sulphur, NH, or CH 2 ; or stereoisomers or pharmaceutically acceptable salts thereof. A R is hydrogen or L 1 -R 5 ; R 1 , R 2 are independently, hydrogen, C 1 -C 4 -alkyl, C 3 -C 7 cycloalkyl, aryl, heteroaryl, -(CH 2 ) z CF 3 , or R 1 and R 2 , taken together with the carbon atoms they are bound to, form with the imidazole a fused heterocycle or a fused heteroaryl; z is an integer from zero to 6 R 3 , R 4 are hydrogen or C 1 -C 4 -alkyl; L 1 is -(CH 2 ) j - Y - or -CH 2 -; j is an integer from 2 to 6; Y is a bond, oxygen, or CH 2 ; R 5 is C 1 -C 4 -alkyl or aryl, wherein the aryl is optionally substituted by halogen, C 1 -C 6 -alkyl or L 2 -R 6 ; L 2 is -(CH 2 ) m -; -(CH 2 ) n - W -(CH 2 )p-; R 6 is heterocyclyl, wherein the heterocyclyl is optionally substituted by C 1 -C 6 -alkyl; m, n, p are, independently, zero or an integer from 1 to 6; W is oxygen, sulphur, NH, or CH 2 ;
A diaper with a liquid sensing system comprising: a sensor array comprised of a set of elongated and flat uniformly shaped conducting lines , wherein the conducting lines are uniform in shape and substantially parallel extending along an inner surface of a moisture barrier layer , wherein the sensor array has a measured gradient of conductance in a dry state; wherein a pair of the conducting lines define an array sensing region that is configured for measuring a gradient of conductance values in the sensing region upon a presence of a liquid contained by the moisture barrier layer ; a data acquisition unit operably connected to the sensor array comprising signal processing elements, wherein the data acquisition unit comprises a multiplexer configured for receiving analog voltage signals from the array sensing region of the sensor array and measuring the gradient of conductance values between each of the pair of conducting lines defining the array sensing region , a read circuit configured for measuring the voltage signals, and an analog to digital converter configured for converting the voltage signals to numeric representation and combinations thereof. a sensor array comprised of a set of elongated and flat uniformly shaped conducting lines , wherein the conducting lines are uniform in shape and substantially parallel extending along an inner surface of a moisture barrier layer , wherein the sensor array has a measured gradient of conductance in a dry state; wherein a pair of the conducting lines define an array sensing region that is configured for measuring a gradient of conductance values in the sensing region upon a presence of a liquid contained by the moisture barrier layer ; a data acquisition unit operably connected to the sensor array comprising signal processing elements, wherein the data acquisition unit comprises a multiplexer configured for receiving analog voltage signals from the array sensing region of the sensor array and measuring the gradient of conductance values between each of the pair of conducting lines defining the array sensing region , a read circuit configured for measuring the voltage signals, and an analog to digital converter configured for converting the voltage signals to numeric representation and combinations thereof.
A method for determining boundaries of a rectangular moving image region having a rectangular external shape displayed in a part of a display region on the basis of determinations using respective display frames, the method comprising: step i) determining if a rectangular moving image region in a frame at a first time t is detected based on a difference to a frame at a different time, then retaining the boundary coordinates of the rectangular moving image region ; and for each subsequent frame at time t+m, repeating step i) for determining if the rectangular moving image region is not detected in the frame at time t+m, and if it is not detected, then determining whether there is a box in the frame at time t+m at the boundary coordinates of the rectangular moving image region as retained from the first time t, based on pixel values of the frame at time t+m without using the frame at the first time t and, if it is determined that there is a box at time t+m, then judging that the region specified by the boundary coordinates of the rectangular moving image region of the first time t is a moving region in the frame of time t+n, wherein n≥m. step i) determining if a rectangular moving image region in a frame at a first time t is detected based on a difference to a frame at a different time, then retaining the boundary coordinates of the rectangular moving image region ; and for each subsequent frame at time t+m, repeating step i) for determining if the rectangular moving image region is not detected in the frame at time t+m, and if it is not detected, then determining whether there is a box in the frame at time t+m at the boundary coordinates of the rectangular moving image region as retained from the first time t, based on pixel values of the frame at time t+m without using the frame at the first time t and, if it is determined that there is a box at time t+m, then judging that the region specified by the boundary coordinates of the rectangular moving image region of the first time t is a moving region in the frame of time t+n, wherein n≥m.
A pea protein isolate, characterized in that it: ∘ contains between 0.5 and 2% of free amino acids, the content of free amino acids being determined according to the method described in the description, ∘ has a viscosity at 20°C in water at 15% solids: ▪ from 11 to 18× 10 -3 Pa.s. at a shear rate of 10 s -1 , ▪ from 9 to 16× 10 -3 Pa.s. at a shear rate of 40 s -1 , and ▪ from 8 to 16×10 -3 Pa.s. at a shear rate of 600 s -1 , the viscosity being determined according to the method described in the description, ∘ has a solubility in water at 20°C: ▪ from 30 to 40% in pH zones from 4 to 5 ▪ from 40 to 70% in pH zones from 6 to 8, the solubility being determined according to the method described in the description, ∘ has a degree of hydrolysis (DH) of between 5% and 10%, the degree of hydrolysis being determined according to the method described in the description, ∘ has a total protein content expressed as N.6.25 of more than 70% by weight of dry product. ∘ contains between 0.5 and 2% of free amino acids, the content of free amino acids being determined according to the method described in the description, ∘ has a viscosity at 20°C in water at 15% solids: ▪ from 11 to 18× 10 -3 Pa.s. at a shear rate of 10 s -1 , ▪ from 9 to 16× 10 -3 Pa.s. at a shear rate of 40 s -1 , and ▪ from 8 to 16×10 -3 Pa.s. at a shear rate of 600 s -1 , the viscosity being determined according to the method described in the description, ▪ from 11 to 18× 10 -3 Pa.s. at a shear rate of 10 s -1 , ▪ from 9 to 16× 10 -3 Pa.s. at a shear rate of 40 s -1 , and ▪ from 8 to 16×10 -3 Pa.s. at a shear rate of 600 s -1 , ∘ has a solubility in water at 20°C: ▪ from 30 to 40% in pH zones from 4 to 5 ▪ from 40 to 70% in pH zones from 6 to 8, the solubility being determined according to the method described in the description, ▪ from 30 to 40% in pH zones from 4 to 5 ▪ from 40 to 70% in pH zones from 6 to 8, ∘ has a degree of hydrolysis (DH) of between 5% and 10%, the degree of hydrolysis being determined according to the method described in the description, ∘ has a total protein content expressed as N.6.25 of more than 70% by weight of dry product.
A method for preparing methyl methacrylate from methacrolein and methanol; said method comprising contacting in a tubular reactor having at least four zones a mixture comprising methacrolein, methanol, oxygen and a base with a catalyst bed of heterogeneous catalyst comprising a support and a noble metal, wherein reaction zones comprising catalyst beds alternate with mixing zones not comprising catalyst beds.
A woven base fabric, having a coefficient of variation CV1, which is 100 × standard deviation/average value, of 3.0% or less in a length direction of a weft-direction disintegrated yarn strength, wherein the coefficient of variation CV1 is measured according to a method in the description, and a coefficient of variation CV2, which is 100 × standard deviation/average value, of 4.0 or less in a length direction of a weft-direction disintegrated yarn elongation, wherein the coefficient of variation CV2 is measured according to a method in the description. a coefficient of variation CV1, which is 100 × standard deviation/average value, of 3.0% or less in a length direction of a weft-direction disintegrated yarn strength, wherein the coefficient of variation CV1 is measured according to a method in the description, and a coefficient of variation CV2, which is 100 × standard deviation/average value, of 4.0 or less in a length direction of a weft-direction disintegrated yarn elongation, wherein the coefficient of variation CV2 is measured according to a method in the description.
Method for the production of flocs of mineral fillers and cellulose microfibrils comprising the following steps: a) disintegrating and refining up to 4000 revolutions in a PFI beater of 0.3 kg of bleached eucalyptus kraft pulp; b) suspending the beaten fibers in water and adjusting the pH to 5 by the addition of sodium citrate buffer; c) heating the suspension to 323.15 K under constant mechanical stirring and adding the enzyme selected from the enzyme "E1" comprising endocellulase, 10 % exocellulase and 5 % hemicellulose and enzyme "E2" comprising endocellulase with 10 % hemicellulose; d) stopping the hydrolysis of the cellulose after 7200 s by heating the suspension to 353.15 K for 900 s and cooling the resulting suspension to room temperature; e) washing the enzymatic sample with demineralized water until the conductivity of the filtrate is low; f) mechanically treating the fibres at 1 % consistency, in a high pressure homogenizer, firstly at 5x10 7 Pa and secondly at 10x10 7 Pa, so that the obtained cellulose microfibrils have an intrinsic viscosity from 0.45 to 0.70 m 3 /kg; g) mixing under stirring the resulting aqueous suspension of step f) having a consistency of 0.2 wt% with a 1 wt% aqueous suspension of calcium carbonate until the formation of flocs calcium carbonate and cellulose microfibrils at a 10:1 mass ratio and a total solids concentration of around 0.01 wt%; h) subjecting the flocs produced in step g) to force-breaking by sonication during 900 s, after 1200s of agitation and stirring for further 1800 s after the 900 s sonication step; i) reflocculation to flocs having a median size between 20 and 50 μm. a) disintegrating and refining up to 4000 revolutions in a PFI beater of 0.3 kg of bleached eucalyptus kraft pulp; b) suspending the beaten fibers in water and adjusting the pH to 5 by the addition of sodium citrate buffer; c) heating the suspension to 323.15 K under constant mechanical stirring and adding the enzyme selected from the enzyme "E1" comprising endocellulase, 10 % exocellulase and 5 % hemicellulose and enzyme "E2" comprising endocellulase with 10 % hemicellulose; d) stopping the hydrolysis of the cellulose after 7200 s by heating the suspension to 353.15 K for 900 s and cooling the resulting suspension to room temperature; e) washing the enzymatic sample with demineralized water until the conductivity of the filtrate is low; f) mechanically treating the fibres at 1 % consistency, in a high pressure homogenizer, firstly at 5x10 7 Pa and secondly at 10x10 7 Pa, so that the obtained cellulose microfibrils have an intrinsic viscosity from 0.45 to 0.70 m 3 /kg; g) mixing under stirring the resulting aqueous suspension of step f) having a consistency of 0.2 wt% with a 1 wt% aqueous suspension of calcium carbonate until the formation of flocs calcium carbonate and cellulose microfibrils at a 10:1 mass ratio and a total solids concentration of around 0.01 wt%; h) subjecting the flocs produced in step g) to force-breaking by sonication during 900 s, after 1200s of agitation and stirring for further 1800 s after the 900 s sonication step; i) reflocculation to flocs having a median size between 20 and 50 μm.