mhurhangee/ep-ind-claims huggingface dataset:
A combination of an agricultural tractor and an additional axle, the agricultural tractor comprising a chassis, a front axle, a rear axle, and a linkage system for hitching of an implement or an attachment, wherein the linkage system comprises two lift arms arranged as lower lift arms of a three-point linkage, wherein the lower lift arms are adjustable relative to the chassis, each lower lift arm having a fastening device and an elongated part extending away from the fastening device; the additional axle carries a pair of wheels for engagement with the ground, the additional axle connected to the elongated parts of the lower lift arms; characterised in that for each lower lift arm, the elongated part comprises a first part and a second part pivotably moveable in relation to the first part between two positions, and a distal end of the first part of the elongated part, a proximal end of the second part of the elongated part, and the additional axle are connected to each other by at least one common connecting element (22, 26, 58), the second part being pivotable about the at least one common connecting element relative to the first. the additional axle carries a pair of wheels for engagement with the ground, the additional axle connected to the elongated parts of the lower lift arms; characterised in that for each lower lift arm, the elongated part comprises a first part and a second part pivotably moveable in relation to the first part between two positions, and a distal end of the first part of the elongated part, a proximal end of the second part of the elongated part, and the additional axle are connected to each other by at least one common connecting element (22, 26, 58), the second part being pivotable about the at least one common connecting element relative to the first.
A photodetection device comprising: a plurality of first optical fibers; an optical combiner having one end face to which one end face of each of the first optical fibers is connected; a second optical fiber having one end face to which another end face of the optical combiner is connected; a first photodetector that is configured to detect an intensity of laser light propagating through at least one of the first optical fibers; a second photodetector that is configured to detect Rayleigh scattering of laser light propagating through the second optical fiber; a calculation unit that is configured to calculate the intensity of laser light propagating in a predetermined direction through the first optical fibers or the second optical fiber, from a result of detection by the first photodetector and a result of detection by the second photodetector; wherein a light source is optically coupled to another end face of each of at least some first optical fibers among a plurality of the first optical fibers, whereby the light source is non-connected to the another end face of each of some of said at least some first optical fibers among the plurality of the first optical fibers, and the first photodetector is configured to detect the intensity of the light from the second optical fiber propagating through the first optical fibers that are non-connected to the light source. a plurality of first optical fibers; an optical combiner having one end face to which one end face of each of the first optical fibers is connected; a second optical fiber having one end face to which another end face of the optical combiner is connected; a first photodetector that is configured to detect an intensity of laser light propagating through at least one of the first optical fibers; a second photodetector that is configured to detect Rayleigh scattering of laser light propagating through the second optical fiber; a calculation unit that is configured to calculate the intensity of laser light propagating in a predetermined direction through the first optical fibers or the second optical fiber, from a result of detection by the first photodetector and a result of detection by the second photodetector; wherein a light source is optically coupled to another end face of each of at least some first optical fibers among a plurality of the first optical fibers, whereby the light source is non-connected to the another end face of each of some of said at least some first optical fibers among the plurality of the first optical fibers, and the first photodetector is configured to detect the intensity of the light from the second optical fiber propagating through the first optical fibers that are non-connected to the light source.
A method of wireless communication by a first wireless device, the method comprising: receiving control information over a sidelink control channel from a second wireless device, the control information comprising information for decoding a data transmission on a sidelink data channel; and when only one of either feedback can be transmitted to the second wireless device or a second communication can be received, wherein the feedback is indicative of whether the data transmission is successfully decoded by the first wireless device: transmitting the feedback to the second wireless device when a first priority associated with the feedback is higher than a second priority associated with the second communication, wherein the first priority associated with the feedback is based on the feedback comprising a negative acknowledgment indicating that the data transmission was not successfully decoded; and receiving the second communication when the second priority associated with the second communication is higher than the first priority associated with the feedback. receiving control information over a sidelink control channel from a second wireless device, the control information comprising information for decoding a data transmission on a sidelink data channel; and when only one of either feedback can be transmitted to the second wireless device or a second communication can be received, wherein the feedback is indicative of whether the data transmission is successfully decoded by the first wireless device: transmitting the feedback to the second wireless device when a first priority associated with the feedback is higher than a second priority associated with the second communication, wherein the first priority associated with the feedback is based on the feedback comprising a negative acknowledgment indicating that the data transmission was not successfully decoded; and receiving the second communication when the second priority associated with the second communication is higher than the first priority associated with the feedback. transmitting the feedback to the second wireless device when a first priority associated with the feedback is higher than a second priority associated with the second communication, wherein the first priority associated with the feedback is based on the feedback comprising a negative acknowledgment indicating that the data transmission was not successfully decoded; and receiving the second communication when the second priority associated with the second communication is higher than the first priority associated with the feedback.
A method of manufacturing a vacuum pump, in particular a molecular vacuum pump, in particular a turbomolecular vacuum pump, which comprises at least one annular stator disk (10, 157) which is configured to generate a pumping effect in cooperation with a rotor, in particular at least one rotor disk, of the pump, wherein the stator disk (10, 157) comprises at least two separate part rings; wherein, in a first method step, at least two stator disk part rings are manufactured together such that, after the first method step, the part rings have at least one pump-active structure, in particular a turbo vane structure or a Siegbahn structure, and are connected in one part, wherein the connection between the part rings, which, with their pump-active structure, in particular are manufactured in a chip-forming manner, are formed from sheet metal or are cast, has a locally reduced material thickness so that the connection forms a desired separation point (36, 38), and wherein the part rings are separated at the desired separation point in a second method step separate from the first.
A sheet formed from a carbon fiber reinforced thermoplastic resin comprising carbon fibers, dichloromethane and a thermoplastic resin containing a polycarbonate resin, wherein the polycarbonate resin has a constituent unit derived from a dihydric phenol selected from the group consisting of 1,1-bis(4-hydroxyphenyl)-1-phenylethane (BPAP), 1,1-bis(4-hydroxyphenyl)cyclododecane (HPCD), 1,1-bis(4-hydroxyphenyl)cyclohexane, 9,9-bis(4-hydroxy-3-methylphenyl)fluorene (BCFL) and bis(4-hydroxyphenyl)diphenylmethane (BPBP), and the content of dichloromethane contained in the sheet is 10-10,000 ppm by mass.
A bone material dispensing apparatus (200; 300; 400; 500), comprising: a tray having a proximal end, a distal end, and a bone material dispensing surface disposed between the proximal end and the distal end of the tray; and a foldable container (70; 100; 120) configured to removably engage the proximal end of the tray, the foldable container (70; 100; 120) being movable in a folded configuration and an unfolded configuration about a fold line (54; 108) in the foldable container (70; 100; 120), the foldable container having an upper compartment and a lower compartment, the lower compartment of the foldable container configured to receive a bone material from the dispensing surface of the tray when the foldable container (70; 100; 120) removably engages the proximal end of the tray in the unfolded configuration and when the foldable container (70; 100; 120) is in the folded configuration, the upper compartment is configured to enclose the bone material in the lower compartment, wherein the dispensing surface comprises a plurality of ridges extending from the distal end to a region adjacent the proximal end, each of the plurality of ridges having a side wall and each of the plurality of ridges spaced a distance apart from each other such that a measured amount of bone material can be placed between each side wall of at least two of the plurality of ridges for measured dispensing of the bone material into the foldable container (70; 100; 120). a tray having a proximal end, a distal end, and a bone material dispensing surface disposed between the proximal end and the distal end of the tray; and a foldable container (70; 100; 120) configured to removably engage the proximal end of the tray, the foldable container (70; 100; 120) being movable in a folded configuration and an unfolded configuration about a fold line (54; 108) in the foldable container (70; 100; 120), the foldable container having an upper compartment and a lower compartment, the lower compartment of the foldable container configured to receive a bone material from the dispensing surface of the tray when the foldable container (70; 100; 120) removably engages the proximal end of the tray in the unfolded configuration and when the foldable container (70; 100; 120) is in the folded configuration, the upper compartment is configured to enclose the bone material in the lower compartment, wherein the dispensing surface comprises a plurality of ridges extending from the distal end to a region adjacent the proximal end, each of the plurality of ridges having a side wall and each of the plurality of ridges spaced a distance apart from each other such that a measured amount of bone material can be placed between each side wall of at least two of the plurality of ridges for measured dispensing of the bone material into the foldable container (70; 100; 120).
Underwater spotlight with a mounting pot and a releasable clamp connection, characterized in that the clamp connection consists of a spreader body (13a, 13b) actuated by a threaded spindle.
Pneumatic vehicle tyre of radial type of construction having a tread with profile positives, such as for example profile blocks, in which there are formed sipes (4, 4') which extend so as to deviate from the axial direction by up to 45° and which, in a radial direction, extend at least in portions in each case to a depth of 70% to 100% of the maximum profile depth and which are delimited in each case by two sipe walls (5, 5', 5", 6, 6') and by a sipe base, wherein each sipe (4, 4') has a radially inner sipe portion (4a, 4b) which begins at the sipe base and which has a width of 0.4 mm to 1.2 mm, wherein at least one of the sipe walls (5, 5', 5", 6, 6') has a bevel (8, 8', 9, 9') to the tread outer surface, characterized in that the bevel (8, 8', 9, 9') is made up of a radially outer bevel portion (8a, 8'a, 9a, 9'a), which forms a planar oblique surface, and a radially inner bevel portion (8b, 8'b, 9b, 9'b), which is concavely curved in cross section and which has a width (b 1), determined in the axial direction, of 0.5 mm to 1.2 mm.
A method for remotely setting a value for a trigger threshold variable used by a flight management computer onboard an aircraft to determine if and when a data message should be transmitted from the aircraft, comprising: obtaining, at a processing system of a system for remotely setting the value for the trigger threshold variable, electronic data representing flight information and a flight plan or flight trajectory of the aircraft; obtaining, at the processing system, communication costs associated with data message transmission from the aircraft; computing, at the processing system, a value of the trigger threshold variable as a function of at least the flight information and flight plan or flight trajectory data and the communication costs; determining, at the processing system, the validity of the computed value of the trigger threshold variable; if the computed value is valid, determining when and where a message containing the computed value should be transmitted; and constructing, at the processing system, a trigger threshold data message containing said computed value of the trigger threshold variable, the message arranged to set the trigger threshold variable, wherein the trigger threshold variable is dynamically set in the flight management computer in accordance with the trigger threshold data message as a flight of the aircraft progresses through multiple airspaces and communication networks. obtaining, at a processing system of a system for remotely setting the value for the trigger threshold variable, electronic data representing flight information and a flight plan or flight trajectory of the aircraft; obtaining, at the processing system, communication costs associated with data message transmission from the aircraft; computing, at the processing system, a value of the trigger threshold variable as a function of at least the flight information and flight plan or flight trajectory data and the communication costs; determining, at the processing system, the validity of the computed value of the trigger threshold variable; if the computed value is valid, determining when and where a message containing the computed value should be transmitted; and constructing, at the processing system, a trigger threshold data message containing said computed value of the trigger threshold variable, the message arranged to set the trigger threshold variable, wherein the trigger threshold variable is dynamically set in the flight management computer in accordance with the trigger threshold data message as a flight of the aircraft progresses through multiple airspaces and communication networks.
Method for the recognition of at least one defect in a regeneration path of a compressed-air system of a motor vehicle, wherein for the regeneration of a drying cartridge air from a regeneration-air reservoir is passed through the drying cartridge, wherein at least one physical variable of the air is detected in a component of the regeneration path, the said physical variable being one of a group of physical variables that includes the temperature, flow rate, density, pressure and flow velocity, and the at least one physical variable is analysed by a computation unit for the purpose of defect recognition, characterised in that the result of the analysis is processed further, and the further processing brings about an adaptation of the regeneration of the drying cartridge by control means implemented by the computation unit as a function of the said result.
Semi-trailer comprising a superstructure having a load bearing surface and an underside, a chassis, at least one set of wheels connected to the chassis, and a king pin assembly located on the underside and forward end of the superstructure and adapted for connecting the trailer to a fifth wheel of a towing vehicle, wherein the superstructure and chassis is a self-supporting composite element having shells surrounding a core, wherein the king pin assembly comprises a king pin and a skid plate, and wherein the king pin is connected to the skid plate, and wherein the king pin assembly further comprise a retainer plate, wherein the retainer plate is located inside the shells and wherein the skid plate is connected to the retainer plate by cooperating attachment means, characterised in that the core comprises a retainer adapter core element, wherein the shape of the retainer core element is complimentary to the retainer plate.
An engine oil dipstick for monitoring an internal combustion engine comprising: a processor; a sensor module configured to sense a characteristic of the internal combustion engine and output data representative of the sensed characteristic to the processor; wherein the sensor module comprises a pressure sensor; wherein the engine oil dipstick is configured to provide a housing for the processor; characterised in that the processor is configured to determine a value representative of the firing frequency of the internal combustion engine based on the output data; and the sensed characteristic comprises engine crankcase pressure; the processor is configured to calculate a root mean squared value of engine crankcase pressure; and the processor is configured to generate an aggregated summary of the total engine running at each combination of firing frequency and root mean squared engine crank case pressure. a processor; a sensor module configured to sense a characteristic of the internal combustion engine and output data representative of the sensed characteristic to the processor; wherein the sensor module comprises a pressure sensor; wherein the engine oil dipstick is configured to provide a housing for the processor; characterised in that the processor is configured to determine a value representative of the firing frequency of the internal combustion engine based on the output data; and the sensed characteristic comprises engine crankcase pressure; the processor is configured to calculate a root mean squared value of engine crankcase pressure; and the processor is configured to generate an aggregated summary of the total engine running at each combination of firing frequency and root mean squared engine crank case pressure.
A polyethylene for injection molding, which comprises at least the following component (a) and component (b) and satisfies the following characteristics to: Component (a): a polyethylene having a density of 0.910 to 0.940 g/cm 3 and a high load melt flow rate (HLMFR) (test conditions: 190°C, a load of 21.6 kg) of 0.1 to 5.0 g/10 minutes, Component (b): a polyethylene having a density of 0.960 to 0.980 g/cm 3 and a melt flow rate (test conditions: 190°C, a load of 2.16 kg) of 1 to 500 g/10 minutes, Characteristic: a density is 0.935 to 0.970 g/cm 3, Characteristic: HLMFR is 50 to 200 g/10 minutes, Characteristic: a relation of a weight ratio Wa (%) of the component (a) to the total weight of the component (a) and the component (b) and the density Da (g/cm 3) of the component (a) satisfies the following formula: Wa ≥ 832 × Da − 730 Component (a): a polyethylene having a density of 0.910 to 0.940 g/cm 3 and a high load melt flow rate (HLMFR) (test conditions: 190°C, a load of 21.6 kg) of 0.1 to 5.0 g/10 minutes, Component (b): a polyethylene having a density of 0.960 to 0.980 g/cm 3 and a melt flow rate (test conditions: 190°C, a load of 2.16 kg) of 1 to 500 g/10 minutes, Characteristic: a density is 0.935 to 0.970 g/cm 3, Characteristic: HLMFR is 50 to 200 g/10 minutes, Characteristic: a relation of a weight ratio Wa (%) of the component (a) to the total weight of the component (a) and the component (b) and the density Da (g/cm 3) of the component (a) satisfies the following formula: Wa ≥ 832 × Da − 730
A herbicidal composition comprising a herbicidally effective amount of (a) a compound of formula or an agriculturally acceptable salt or ester thereof and (b) picloram or an agriculturally acceptable salt or ester thereof, wherein the weight ratio of compound of formula or agriculturally acceptable salt or ester thereof to picloram or an agriculturally acceptable salt or ester thereof is from 1:0.5 to 1:20 and wherein the composition is synergistic as determined by the Colby equation.
A harness system for a child safety seat comprising - at least one tensioning web; - a retractor device connected to a first end of the at least one tensioning web, the retractor device being configured to allow tightening of the tensioning web, thereby moving the tensioning web in a first direction, and the retractor device being configured to allow loosening of the tensioning web, thereby moving the tensioning web in a second direction; - a locking mechanism comprising a first locking part that is connected to a second end of the tensioning web, and a second locking part that is configured to mate with the first locking part and secure the first locking part to the second locking part; - a release mechanism connected to the retractor device, the release mechanism being configured to allow the retractor device to move the tensioning web in the first and the second direction when the release mechanism is in a first state, and the release mechanism being configured to prevent the retractor device to move the tensioning web in the second direction when the release mechanism is in a second state; - where the release mechanism further comprises an actuator that is connected to the release mechanism, where a movement of the actuator from a first position to a second position alternates the release mechanism from the first state to the second state, and vice versa, characterised in that - the actuator is arranged such that its position will allow a user to identify whether the release mechanism is in the first state or in the second state. - at least one tensioning web; - a retractor device connected to a first end of the at least one tensioning web, the retractor device being configured to allow tightening of the tensioning web, thereby moving the tensioning web in a first direction, and the retractor device being configured to allow loosening of the tensioning web, thereby moving the tensioning web in a second direction; - a locking mechanism comprising a first locking part that is connected to a second end of the tensioning web, and a second locking part that is configured to mate with the first locking part and secure the first locking part to the second locking part; - a release mechanism connected to the retractor device, the release mechanism being configured to allow the retractor device to move the tensioning web in the first and the second direction when the release mechanism is in a first state, and the release mechanism being configured to prevent the retractor device to move the tensioning web in the second direction when the release mechanism is in a second state; - where the release mechanism further comprises an actuator that is connected to the release mechanism, where a movement of the actuator from a first position to a second position alternates the release mechanism from the first state to the second state, and vice versa, characterised in that - the actuator is arranged such that its position will allow a user to identify whether the release mechanism is in the first state or in the second state.