mhurhangee/patent-ind-claim-en huggingface dataset:
A sensor system for detecting environmental conditions of a vehicle , comprising an environment sensor , and a sensor cleaning system for environment sensors of the vehicle , wherein the sensor cleaning system comprises a compressed air supply line which is connectable to a compressed air network of the vehicle , the sensor cleaning system comprises a nozzle configured to jet the compressed air to a respective environment sensor ,and the sensor cleaning system is configured to use compressed air supplied by the compressed air supply line as a cleaning medium, and the environment sensor is at least one of a camera device , a Lidar device , a Lidar scanner device, a radar device and a ultrasonic sensor device , wherein the sensor cleaning system is connected to a controller for controlling cleaning of the environment sensors , wherein the controller is configured to detect a pollution of a specific environment sensor by a computer algorithm based on raw sensor data of the environment sensor and to initiate opening of a solenoid valve for opening and shutting off a line for supplying the cleaning medium to the nozzle and therefore, for jetting it to the environment sensor , characterised in that the controller is further configured to stop the cleaning by shutting off the solenoid valve after it judges that the environment sensor is clean due to the computer algorithm based on the raw sensor data. an environment sensor , and a sensor cleaning system for environment sensors of the vehicle , wherein the sensor cleaning system comprises a compressed air supply line which is connectable to a compressed air network of the vehicle , the sensor cleaning system comprises a nozzle configured to jet the compressed air to a respective environment sensor ,and the sensor cleaning system is configured to use compressed air supplied by the compressed air supply line as a cleaning medium, and the environment sensor is at least one of a camera device , a Lidar device , a Lidar scanner device, a radar device and a ultrasonic sensor device , wherein the sensor cleaning system is connected to a controller for controlling cleaning of the environment sensors , wherein the controller is configured to detect a pollution of a specific environment sensor by a computer algorithm based on raw sensor data of the environment sensor and to initiate opening of a solenoid valve for opening and shutting off a line for supplying the cleaning medium to the nozzle and therefore, for jetting it to the environment sensor , characterised in that the controller is further configured to stop the cleaning by shutting off the solenoid valve after it judges that the environment sensor is clean due to the computer algorithm based on the raw sensor data.
A computer-implemented method of automatically initiating a process for securing a computer system or network against a suspect binary file, 'SBF' which has been created by modifying a known malicious binary file, 'KMBF', by, in response to detection of the SBF, initiating an automatic defence strategy comprising: a first action known to mitigate a known threat posed by the KMBF; and a further action predicted to mitigate a predicted threat posed by a discrepant function present in the SBF but not the KMBF; the method being characterised by , in response to detection of the SBF and prior to initiating the automatic defence strategy, determining the further action predicted to mitigate the predicted threat posed by the discrepant function by separating out a portion of the SBF corresponding to the discrepant function and running that portion of the SBF in a controlled virtual environment. a first action known to mitigate a known threat posed by the KMBF; and a further action predicted to mitigate a predicted threat posed by a discrepant function present in the SBF but not the KMBF;
Method for monitoring fermentation in a rumen of a ruminant, wherein a characteristic value of concentration of dissolved carbon dioxide inside the rumen and/or reticulum is measured and the concentration of dissolved carbon dioxide is correlated with at least one respective pH value.
A biodegradable non-woven fabric comprising biodegradable fibers and pulp fibers, wherein at least a part of the biodegradable fibers is entangled with each other, characterized in that at least a part of the pulp fibers is covalently bonded to each other by a biodegradable binder, wherein the biodegradable non-woven fabric is non-dispersible in water. wherein at least a part of the biodegradable fibers is entangled with each other, characterized in that at least a part of the pulp fibers is covalently bonded to each other by a biodegradable binder, wherein the biodegradable non-woven fabric is non-dispersible in water.
A packaging system for a bicycle, comprising: a rear panel ; a front panel that mates with the rear panel to form an enclosure, wherein the front panel partially detaches from the rear panel to lay flat on a ground surface that supports the packaging system such that at least a portion of an interior side of the front panel forms a work surface that covers the ground surface; a rear support positioned within the enclosure, wherein the rear support includes a tire receptacle configured to receive a rear tire of the bicycle; a front support positioned within the enclosure opposite of the rear support , wherein the front support includes a front fork mount attached thereto, and wherein the front fork mount is configured to secure front forks of the bicycle; and a tire wedge that mounts within the rear support to secure the rear tire of the bicycle, wherein the tire wedge includes a slot that mates with a central divider of the rear support . a rear panel ; a front panel that mates with the rear panel to form an enclosure, wherein the front panel partially detaches from the rear panel to lay flat on a ground surface that supports the packaging system such that at least a portion of an interior side of the front panel forms a work surface that covers the ground surface; a rear support positioned within the enclosure, wherein the rear support includes a tire receptacle configured to receive a rear tire of the bicycle; a front support positioned within the enclosure opposite of the rear support , wherein the front support includes a front fork mount attached thereto, and wherein the front fork mount is configured to secure front forks of the bicycle; and a tire wedge that mounts within the rear support to secure the rear tire of the bicycle, wherein the tire wedge includes a slot that mates with a central divider of the rear support .
Fuel oil having a sulfur content of less than 50 ppm, consisting of - a fuel of mineral origin, or - a synthetic fuel obtainable by catalytic hydrodeoxygenation of vegetable oils and fats or of animal fats, or - a synthetic fuel produced by means of Fischer-Tropsch synthesis - or a mixture thereof, additionally comprising i. at least one oil-soluble amide-ammonium salt of a polycarboxylic acid with a mono- and/or dialkylamine (A) and ii. 5-100% by weight, based on the amount of amide-ammonium salt (A), of an oil-soluble amine (B), and iii. a lubricity additive (C) selected from fatty acids, fatty acid partial esters of polyols and fatty acid amides of alkanolamides, and iv. optionally one or more further additives selected from further cold flow improvers, dewaxing aids, detergent additives, antioxidants, cetane number improvers, dehazers, demulsifiers, defoamers, dyes, corrosion inhibitors, sludge inhibitors, odorants and/or additives for lowering the cloud point. - a fuel of mineral origin, or - a synthetic fuel obtainable by catalytic hydrodeoxygenation of vegetable oils and fats or of animal fats, or - a synthetic fuel produced by means of Fischer-Tropsch synthesis - or a mixture thereof, i. at least one oil-soluble amide-ammonium salt of a polycarboxylic acid with a mono- and/or dialkylamine (A) and ii. 5-100% by weight, based on the amount of amide-ammonium salt (A), of an oil-soluble amine (B), and iii. a lubricity additive (C) selected from fatty acids, fatty acid partial esters of polyols and fatty acid amides of alkanolamides, and iv. optionally one or more further additives selected from further cold flow improvers, dewaxing aids, detergent additives, antioxidants, cetane number improvers, dehazers, demulsifiers, defoamers, dyes, corrosion inhibitors, sludge inhibitors, odorants and/or additives for lowering the cloud point.
A urinary catheter, comprising: a catheter tube wherein at least a portion of the catheter tube is made from a blend comprising (a) a copolymer of ethylene and an alpha olefin with density less than or equal to 0.95 g/cm 3 and (b) a water-swellable polymer comprising ethylene vinyl alcohol or polyvinyl alcohol, the blend comprising between 80 wt% and 95 wt% of the copolymer of ethylene and an alpha olefin and between 5 wt% and 20 wt% of the water-swellable polymer, wherein the blend defines an outer surface of the catheter tube which has a surface energy of at least 30 mN/m; and a hydrophilic coating disposed on at least a portion of a non-treated outer surface of the catheter tube, wherein the hydrophilic coating is bonded directly to the non-treated outer surface of the catheter tube. a catheter tube wherein at least a portion of the catheter tube is made from a blend comprising (a) a copolymer of ethylene and an alpha olefin with density less than or equal to 0.95 g/cm 3 and (b) a water-swellable polymer comprising ethylene vinyl alcohol or polyvinyl alcohol, the blend comprising between 80 wt% and 95 wt% of the copolymer of ethylene and an alpha olefin and between 5 wt% and 20 wt% of the water-swellable polymer, wherein the blend defines an outer surface of the catheter tube which has a surface energy of at least 30 mN/m; and a hydrophilic coating disposed on at least a portion of a non-treated outer surface of the catheter tube, wherein the hydrophilic coating is bonded directly to the non-treated outer surface of the catheter tube.
A method for neutralising underwater explosive devices employing the system of claim 5, comprising the steps of: - identifying an underwater explosive device , - preparing a source for emitting an acoustic signal , - placing the source for emitting an acoustic signal close to the underwater explosive device , the step being performed by a first underwater vehicle , the first underwater vehicle being configured for transporting the source for emitting an acoustic signal , the first underwater vehicle comprising a storage system and releasing means, designed to pick said source from the storage system and to place the source close to the underwater explosive device , - determining a first distance (Rs) between the source for emitting an acoustic signal and the underwater explosive device , - preparing an explosive charge , - determining a trajectory (Rm) to be travelled by the explosive charge to reach the underwater explosive device using the acoustic signal , - guiding the explosive charge close to the underwater explosive device , the step of guiding the explosive charge being implemented by means of a second underwater vehicle along the trajectory (Rm), - detonating the explosive charge when the underwater explosive device is reached, the step of determining a trajectory (Rm) comprising the step of calculating the vector sum of the first distance (Rs) and a second distance (Rv) correlated with the distance between the second underwater vehicle and source of emitting a signal . - identifying an underwater explosive device , - preparing a source for emitting an acoustic signal , - placing the source for emitting an acoustic signal close to the underwater explosive device , the step being performed by a first underwater vehicle , the first underwater vehicle being configured for transporting the source for emitting an acoustic signal , the first underwater vehicle comprising a storage system and releasing means, designed to pick said source from the storage system and to place the source close to the underwater explosive device , - determining a first distance (Rs) between the source for emitting an acoustic signal and the underwater explosive device , - preparing an explosive charge , - determining a trajectory (Rm) to be travelled by the explosive charge to reach the underwater explosive device using the acoustic signal , - guiding the explosive charge close to the underwater explosive device , the step of guiding the explosive charge being implemented by means of a second underwater vehicle along the trajectory (Rm), - detonating the explosive charge when the underwater explosive device is reached, the step of determining a trajectory (Rm) comprising the step of calculating the vector sum of the first distance (Rs) and a second distance (Rv) correlated with the distance between the second underwater vehicle and source of emitting a signal .
A martensitic stainless steel pipe having a chemical composition of, in mass %: 0.001 to 0.050 % C; 0.05 to 1.00 % Si; 0.05 to 1.00 % Mn; up to 0.030 % P; up to 0.0020 % S; below 0.50 % Cu; 11.50 to below 14.00 % Cr; above 5.00 to 7.00 % Ni; above 1.00 to 3.00 % Mo; 0.02 to 0.50 % Ti; 0.001 to 0.100 % Al; 0.0001 to 0.0040 % Ca; 0.0001 to below 0.0200 % N; 0 to 0.500 %V; 0 to 0.500 % Nb; 0 to 0.500 % Co; and balance Fe and impurities, a number density of inclusions having an equivalent circle diameter exceeding 1.0 μm and containing Al in not less than 20 mass % and O in not less than 20 mass % being not higher than 50.0 inclusions/mm 2 , an atomic concentration ratio of Cr oxides to Fe oxides obtained by X-ray photoelectron spectroscopic analysis against a surface of the martensitic stainless steel pipe, Cr-O/Fe-O, as measured according to the method described in the description, being not lower than 0.30. 0.001 to 0.050 % C; 0.05 to 1.00 % Si; 0.05 to 1.00 % Mn; up to 0.030 % P; up to 0.0020 % S; below 0.50 % Cu; 11.50 to below 14.00 % Cr; above 5.00 to 7.00 % Ni; above 1.00 to 3.00 % Mo; 0.02 to 0.50 % Ti; 0.001 to 0.100 % Al; 0.0001 to 0.0040 % Ca; 0.0001 to below 0.0200 % N; 0 to 0.500 %V; 0 to 0.500 % Nb; 0 to 0.500 % Co; and balance Fe and impurities, a number density of inclusions having an equivalent circle diameter exceeding 1.0 μm and containing Al in not less than 20 mass % and O in not less than 20 mass % being not higher than 50.0 inclusions/mm 2 , an atomic concentration ratio of Cr oxides to Fe oxides obtained by X-ray photoelectron spectroscopic analysis against a surface of the martensitic stainless steel pipe, Cr-O/Fe-O, as measured according to the method described in the description, being not lower than 0.30.
A system comprising: a rotatable shaft ; and a plurality of bearings coupled to the rotatable shaft , wherein the plurality of bearings include a first bearing , a second bearing , and a third bearing , wherein the first bearing defines an axial first bearing centerline (Ab1'), wherein the second bearing defines an axial second bearing centerline (Ab2'), wherein the third bearing defines an axial third bearing centerline (Ab3'); wherein the axial second bearing centerline (Ab2') is radially offset from the axial first bearing centerline (Ab1') and the axial third bearing centerline (Ab3') such that a shift or displacement of the second bearing tends to impose a force (FA) on the shaft , characterised in that the shaft defines an axial shaft centerline (As'), and wherein the axial second bearing centerline (Ab2') is offset from the axial shaft centerline (As') by a radial distance, the axial first bearing centerline (Ab1') is offset from the axial shaft centerline (As') by a second radial distance, and, optionally, the radial distance is different from the second radial distance. a rotatable shaft ; and a plurality of bearings coupled to the rotatable shaft , wherein the plurality of bearings include a first bearing , a second bearing , and a third bearing , wherein the first bearing defines an axial first bearing centerline (Ab1'), wherein the second bearing defines an axial second bearing centerline (Ab2'), wherein the third bearing defines an axial third bearing centerline (Ab3'); wherein the axial second bearing centerline (Ab2') is radially offset from the axial first bearing centerline (Ab1') and the axial third bearing centerline (Ab3') such that a shift or displacement of the second bearing tends to impose a force (FA) on the shaft , characterised in that the shaft defines an axial shaft centerline (As'), and wherein the axial second bearing centerline (Ab2') is offset from the axial shaft centerline (As') by a radial distance, the axial first bearing centerline (Ab1') is offset from the axial shaft centerline (As') by a second radial distance, and, optionally, the radial distance is different from the second radial distance.
An apparatus for sorting gemstones from a batch of gemstones, the apparatus comprising: one or more measurement locations , each comprising at least one measurement device configured to measure one or more properties of a gemstone; a continuously moveable surface for supporting the gemstones thereon and for transporting the gemstones to the one or more measurement locations; a separation device for separating the gemstones from one another as they are transported on the moveable surface to the one or more measurement locations; a location trigger comprising a sensor at a sensor location for identifying when the gemstone passes through the sensor location; and a controller configured to receive a signal from the location trigger and record the position of the moveable surface when the signal is received; characterised in that the controller is further configured to track the subsequent location of the gemstone by monitoring the movement of the moveable surface such that a measurement of the one or more properties of each gemstone can be correlated with a location of the respective gemstone on the moveable surface. one or more measurement locations , each comprising at least one measurement device configured to measure one or more properties of a gemstone; a continuously moveable surface for supporting the gemstones thereon and for transporting the gemstones to the one or more measurement locations; a separation device for separating the gemstones from one another as they are transported on the moveable surface to the one or more measurement locations; a location trigger comprising a sensor at a sensor location for identifying when the gemstone passes through the sensor location; and a controller configured to receive a signal from the location trigger and record the position of the moveable surface when the signal is received; characterised in that the controller is further configured to track the subsequent location of the gemstone by monitoring the movement of the moveable surface such that a measurement of the one or more properties of each gemstone can be correlated with a location of the respective gemstone on the moveable surface.
A method of coating an optical substrate, comprising: depositing a semiconductor coating over a surface of an optical substrate , wherein the optical substrate and the semiconductor coating have broadband optical transmittance, in at least the visible and infrared spectra; and doping portions of the semiconductor coating to form a pattern of doped semiconductor in the semiconductor coating ; wherein the pattern is configured to provide electromagnetic interference (EMI) shielding to the optical substrate. depositing a semiconductor coating over a surface of an optical substrate , wherein the optical substrate and the semiconductor coating have broadband optical transmittance, in at least the visible and infrared spectra; and doping portions of the semiconductor coating to form a pattern of doped semiconductor in the semiconductor coating ; wherein the pattern is configured to provide electromagnetic interference (EMI) shielding to the optical substrate.
An alpha helix mimetic β-catenin inhibitor compound for use in the treatment of hepatic fibrosis, selected from: 4-(( -1-(benzylcarbamoyl)-2,9-dimethyl-4,7-dioxo-8-(quinolin-8-ylmethyl)octahydro-1H-pyrazino[2,1-c] triazin-6-yl)methyl)phenyl dihydrogen phosphate, or -N-benzyl-6-(4-hydroxybenzyl)-2,9-dimethyl-4,7-dioxo-8-(quinolin-8-ylmethyl)octahydro-1H-pyrazino[2,1-c] triazine-1-carboxamide, wherein the hepatic fibrosis results from steatohepatitis. 4-(( -1-(benzylcarbamoyl)-2,9-dimethyl-4,7-dioxo-8-(quinolin-8-ylmethyl)octahydro-1H-pyrazino[2,1-c] triazin-6-yl)methyl)phenyl dihydrogen phosphate, or -N-benzyl-6-(4-hydroxybenzyl)-2,9-dimethyl-4,7-dioxo-8-(quinolin-8-ylmethyl)octahydro-1H-pyrazino[2,1-c] triazine-1-carboxamide, wherein the hepatic fibrosis results from steatohepatitis.
Fire protection sleeve for sealing openings passing through walls or ceilings, in particular line feedthroughs , comprising a frame and a block made of optionally intumescent material that is arranged therein, characterized in that the frame is modular, the frame consisting of a plurality of frame parts which are connected to one another by means of a plug-in connection , and a plurality of front parts which are separate from the frame parts being provided, which front parts are connected to the frame parts by means of a plug-in connection .
A light-emitting diode (LED) lighting system, having a plurality of LED devices , electrically connected in parallel, and each comprising: an LED lighting unit ; an LED processing unit , electrically connected to the LED lighting unit , and controlling the LED lighting unit ; an LED memory unit , electrically connected to the LED processing unit ; a main controller comprising: a main processing unit ; wherein the main processing unit determines whether a total consumption of the LED devices increases by a first predetermined value; the LED lighting system is characterized by : when the total consumption increases by the first predetermined value, the main processing unit generates an address writing signal, and sends the address writing signal to the LED devices ; when each LED device receives the address writing signal, the LED processing unit of the LED device determines if the LED memory unit is in an empty state; when the LED processing unit determines that the LED memory unit is in the empty state, the LED processing unit writes an address code contained in the address writing signal into the LED memory unit . an LED lighting unit ; an LED processing unit , electrically connected to the LED lighting unit , and controlling the LED lighting unit ; an LED memory unit , electrically connected to the LED processing unit ; a main processing unit ; wherein the main processing unit determines whether a total consumption of the LED devices increases by a first predetermined value; the LED lighting system is characterized by : when the total consumption increases by the first predetermined value, the main processing unit generates an address writing signal, and sends the address writing signal to the LED devices ; when each LED device receives the address writing signal, the LED processing unit of the LED device determines if the LED memory unit is in an empty state; when the LED processing unit determines that the LED memory unit is in the empty state, the LED processing unit writes an address code contained in the address writing signal into the LED memory unit .