mhurhangee/ep-ind-claims huggingface dataset:
A main landing gear system for an aircraft including: a first wheel and a second wheel; a truss element including a front portion joined to a rear portion; a first support unit and second support unit affixed to the truss at the junction of the front portion and the rear portion on opposing sides of the truss; a first actuator and a second actuator rotatively affixed to respective first support unit and second support unit and to the respective first wheel and second wheel; a first trailing link and second trailing link each coupled to the respective first wheel and second wheel; a first support plate and second support plate each rotatively coupled to the respective first trailing link and second trailing link and to a side of the truss distant from junction of the front portion and the rear portion of the truss; a first foldable plate locking unit and second plate locking unit rotatively affixed to an end of the respective first support plate or second support plate and to a side of the truss, wherein actuation of the first actuator or second actuator causes the respective support plates to move up or down with respect to the truss raising and lowering the wheels. a first wheel and a second wheel; a truss element including a front portion joined to a rear portion; a first support unit and second support unit affixed to the truss at the junction of the front portion and the rear portion on opposing sides of the truss; a first actuator and a second actuator rotatively affixed to respective first support unit and second support unit and to the respective first wheel and second wheel; a first trailing link and second trailing link each coupled to the respective first wheel and second wheel; a first support plate and second support plate each rotatively coupled to the respective first trailing link and second trailing link and to a side of the truss distant from junction of the front portion and the rear portion of the truss; a first foldable plate locking unit and second plate locking unit rotatively affixed to an end of the respective first support plate or second support plate and to a side of the truss, wherein actuation of the first actuator or second actuator causes the respective support plates to move up or down with respect to the truss raising and lowering the wheels.
A rotor of a turbomachine, with a rotor basic body and with multiple moving blades, wherein each moving blade comprises a blade root and a blade leaf, wherein each moving blade is fastened via its blade root to the rotor basic body in a groove of the rotor basic body in an assembly direction defined via the blade roots, wherein each moving blade in the region of its blade leaf comprises at least one coupling element segment (10, 10', 10"), and wherein in the circumferential direction a width of the or each coupling element segment (10, 10', 10") of each moving blade is defined by edges extending substantially in the axial direction, characterized in that the or each coupling element segment (10, 10', 10") of each moving blade is contoured on a first side, which, seen in the circumferential direction, is followed by a coupling element segment of a first directly adjacent moving blade, and on a second side located opposite the first side, which, seen in the circumferential direction, is followed by a coupling element of a second directly adjacent moving blade in such a manner that on the first side and on the second side the radially outer edge (18, 19) extending substantially in the axial direction and the radially inner edge (20, 21) extending substantially in the axial direction of the respective coupling element segment each delimit two faces that are separated from one another by a separating line (26, 27), wherein in at least one circumferential position of the rotor between two directly adjacent moving blades the separating lines (26, 27) of these directly adjacent moving blades formed on directly adjacent sides (16, 17) of the coupling element segments (10', 10") run approximately parallel or equi-directionally to the assembly direction of the moving blades on the rotor basic body defined via the blade roots, whereas in every other circumferential position between two directly adjacent moving blades, the separating lines (26, 27) of these directly adjacent moving blades formed on directly adjacent sides of the coupling element segments (10, 10', 10") are set obliquely to the assembly direction.
A fluidic dispensing device, comprising: a housing, configured to have an exterior wall and a fluid reservoir, the exterior wall being configured to have a first opening in fluid communication with the fluid reservoir; and a stir bar, configured to be moveably confined within the fluid reservoir, the stir bar being configured to have a plurality of paddles and a rotational axis, with each of the plurality of paddles that intermittently faces toward the first opening, wherein the fluid reservoir is configured to have a chamber having an interior perimetrical wall and a base wall, the interior perimetrical wall of the chamber is configured to have an extent bounded by a proximal end and a distal end, the proximal end is configured to be contiguous with the base wall and the distal end is configured to define a perimetrical end surface at a lateral opening of the chamber, characterized in that the fluid reservoir further includes a diaphragm configured to be engaged in sealing engagement with the perimetrical end surface, the chamber and the diaphragm are configured to cooperate to define a fluid reservoir having a variable volume, and the chamber and the diaphragm are configured to define confining surfaces of the fluid reservoir, the stir bar is configured to be confined for movement within the variable volume confined by the chamber and the diaphragm. a housing, configured to have an exterior wall and a fluid reservoir, the exterior wall being configured to have a first opening in fluid communication with the fluid reservoir; and a stir bar, configured to be moveably confined within the fluid reservoir, the stir bar being configured to have a plurality of paddles and a rotational axis, with each of the plurality of paddles that intermittently faces toward the first opening, wherein the fluid reservoir is configured to have a chamber having an interior perimetrical wall and a base wall, the interior perimetrical wall of the chamber is configured to have an extent bounded by a proximal end and a distal end, the proximal end is configured to be contiguous with the base wall and the distal end is configured to define a perimetrical end surface at a lateral opening of the chamber, characterized in that the fluid reservoir further includes a diaphragm configured to be engaged in sealing engagement with the perimetrical end surface, the chamber and the diaphragm are configured to cooperate to define a fluid reservoir having a variable volume, and the chamber and the diaphragm are configured to define confining surfaces of the fluid reservoir, the stir bar is configured to be confined for movement within the variable volume confined by the chamber and the diaphragm.
An image pickup apparatus comprising: change means configured to select a shooting frame rate; detection means configured to detect a shake of the image pickup apparatus using an angular velocity or an acceleration sensor and to obtain a first blur correction signal from the detected shake; obtaining means configured to obtain a second blur correction signal based on a movement vector obtained from a plurality of image signals taken by the image pickup apparatus; signal processing means configured to output a final blur correction signal for correcting an image blur caused by a shake of the image pickup apparatus; and correction means configured to correct the blur of an image shot by the image pickup apparatus on the basis of the final blur correction signal, characterized in that the signal processing means is configured to combine a first signal obtained by multiplying a first coefficient by the first blur correction signal and a second signal obtained by multiplying a second coefficient by the second blur correction signal, wherein the sum of said first and second coefficients is equal to 1, and wherein the first coefficient decreases as the shooting frame rate increases, to thereby output the final blur correction signal. change means configured to select a shooting frame rate; detection means configured to detect a shake of the image pickup apparatus using an angular velocity or an acceleration sensor and to obtain a first blur correction signal from the detected shake; obtaining means configured to obtain a second blur correction signal based on a movement vector obtained from a plurality of image signals taken by the image pickup apparatus; signal processing means configured to output a final blur correction signal for correcting an image blur caused by a shake of the image pickup apparatus; and correction means configured to correct the blur of an image shot by the image pickup apparatus on the basis of the final blur correction signal, characterized in that the signal processing means is configured to combine a first signal obtained by multiplying a first coefficient by the first blur correction signal and a second signal obtained by multiplying a second coefficient by the second blur correction signal, wherein the sum of said first and second coefficients is equal to 1, and wherein the first coefficient decreases as the shooting frame rate increases, to thereby output the final blur correction signal.
A torque transmitting apparatus for a drive assembly for transmitting a torque from a first shaft to a second shaft, with a first coupling device that is used for transmitting torques and compensating a shaft offset, with a second coupling device that is used for transmitting torques and limiting torques, wherein the first coupling device and the second coupling device are connected in series, wherein the second coupling device has an inner part in the form of a hollow component and an outer part in the form of a hollow component, the inner part has on its radially outer side a first friction surface and the outer part has on its radially inner side a second friction surface, which adjoins the first friction surface radially outward and interacts therewith, the inner part has a pressure chamber that can be filled with a pressure medium and makes it possible to adjust a torque, which is the maximum torque transmittable by the friction surfaces, in order to provide the torque limiting, wherein the inner part has a pressure connection for the pressure chamber and the pressure in the pressure chamber can be adjusted and varied during the operation by means of the pressure connection. with a first coupling device that is used for transmitting torques and compensating a shaft offset, with a second coupling device that is used for transmitting torques and limiting torques, wherein the first coupling device and the second coupling device are connected in series, wherein the second coupling device has an inner part in the form of a hollow component and an outer part in the form of a hollow component, the inner part has on its radially outer side a first friction surface and the outer part has on its radially inner side a second friction surface, which adjoins the first friction surface radially outward and interacts therewith, the inner part has a pressure chamber that can be filled with a pressure medium and makes it possible to adjust a torque, which is the maximum torque transmittable by the friction surfaces, in order to provide the torque limiting, wherein the inner part has a pressure connection for the pressure chamber and the pressure in the pressure chamber can be adjusted and varied during the operation by means of the pressure connection.
A method to be performed by a hardware uncore agent, comprising: communicatively coupling to a cache (104, 204, 404, 504), the cache (104, 204, 404, 504) comprising an address configured to receive incoming data from a peripheral device (120, 220, 420) via an integrated input/output, IIO, (116, 216, 416, 516) and also accessible by a core (112, 212, 412, 512) configured to poll the address via a caching agent, CA; identifying a cache line collision between the core (112, 212, 412, 512) and the IIO (116, 216, 416, 516) comprising determining that the core (112, 212, 412, 512) is polling the address at a rate that is determined to interfere with access to the address by the IIO (116, 216, 416, 516); and reducing a rate of the core's access to the address in response to the identification of the cache line collision. communicatively coupling to a cache (104, 204, 404, 504), the cache (104, 204, 404, 504) comprising an address configured to receive incoming data from a peripheral device (120, 220, 420) via an integrated input/output, IIO, (116, 216, 416, 516) and also accessible by a core (112, 212, 412, 512) configured to poll the address via a caching agent, CA; identifying a cache line collision between the core (112, 212, 412, 512) and the IIO (116, 216, 416, 516) comprising determining that the core (112, 212, 412, 512) is polling the address at a rate that is determined to interfere with access to the address by the IIO (116, 216, 416, 516); and reducing a rate of the core's access to the address in response to the identification of the cache line collision.
An uncoloured laundry additive material for promotion of anti redeposition of particulate soil, the material having a maximum extinction coefficient in L mol -1 cm -1 of less than 800, preferably less than 100, in the wavelength range 400 to 750 nm and comprising at least two polyalkoxylated polyethyleneimines, which can be the same or different, cross-linked to one another by a difunctional uncoloured aromatic cross linker which also has a maximum extinction coefficient in L mol -1 cm -1 of less than 800, preferably less than 100, in the wavelength range 400 to 750 nm, said cross linker containing an aromatic group comprising at least one aromatic ring and two reactive groups selected from -SO 2 CH 2 CH 2 OSO 3 Na and NHCOCH=CH 2.
A method of producing a viral expression vector which, when present in a cell, is capable of inhibiting binding of HIV to the cell and preventing HIV fusion into the cell, the method comprising: inserting a first nucleic acid molecule encoding an inhibitory nucleic acid capable of down regulating expression of an HIV co-receptor into the vector, wherein the inhibitory nucleic acid is a small interfering RNA (siRNA) or a short hairpin RNA (shRNA) having a double-stranded region; and inserting a second nucleic acid molecule which encodes an HIV fusion inhibitor protein into the vector. inserting a first nucleic acid molecule encoding an inhibitory nucleic acid capable of down regulating expression of an HIV co-receptor into the vector, wherein the inhibitory nucleic acid is a small interfering RNA (siRNA) or a short hairpin RNA (shRNA) having a double-stranded region; and inserting a second nucleic acid molecule which encodes an HIV fusion inhibitor protein into the vector.
A method for detecting an opening and closing of an object comprising: causing a piezoelectric transducer of a wireless sensor (102, 104, 106) to oscillate in response to an opening of the object; harvesting energy generated as a result of the piezoelectric transducer's oscillation to power a transceiver of the wireless sensor (102, 104, 106) transmitting, from the transceiver to a remote device, information indicating that the opening of the object has been detected by the wireless sensor (102, 104, 106) coupled to the object; detecting the opening of the object when first and second elements (302, 304) of said wireless sensor (102. 104, 106) are pulled apart; wherein the first element comprises a magnet and the second element comprises the piezoelectric transducer with an end having a magnetic coating; wherein the piezoelectric transducer is cantilevered within an enclosure of the wireless sensor (102, 104, 106) by a mechanical support; characterized in that the piezoelectric transducer element can oscillate within the enclosure in two opposing directions (318, 320). causing a piezoelectric transducer of a wireless sensor (102, 104, 106) to oscillate in response to an opening of the object; harvesting energy generated as a result of the piezoelectric transducer's oscillation to power a transceiver of the wireless sensor (102, 104, 106) transmitting, from the transceiver to a remote device, information indicating that the opening of the object has been detected by the wireless sensor (102, 104, 106) coupled to the object; detecting the opening of the object when first and second elements (302, 304) of said wireless sensor (102. 104, 106) are pulled apart; wherein the first element comprises a magnet and the second element comprises the piezoelectric transducer with an end having a magnetic coating; wherein the piezoelectric transducer is cantilevered within an enclosure of the wireless sensor (102, 104, 106) by a mechanical support; characterized in that the piezoelectric transducer element can oscillate within the enclosure in two opposing directions (318, 320).
A working medium accumulator, comprising a plurality of layers of metal sheet, wherein at least some of the sheet layers are contacted with a further structure in a thermally conductive manner, wherein the sheet layers are disposed one above the other in a stacked manner, wherein a sorbent, in particular activated carbon, is disposed on at least one side of a particular sheet layer for the adsorption and desorption of the working medium, and wherein the sorbent has a thermally highly conductive, in particular bonded connection with the sheet layer, wherein the sorbent has a patterning with respect to at least one direction of thermal expansion and the patterning (17a, 17b) is in the form of a notch or filling of the sorbent and the further structures are in the form of tubes, in particular flat tubes, wherein passages are formed in the sheet layers for passage of the tubes.
A composition comprising tetrahydrocannabinol and fluvoxamine, for use in treating a subject with acute respiratory failure and/or acute respiratory distress syndrome (ARDS), optionally caused by cytokine storm.
A gas turbine engine characterised by: an offset core configured to rotate about a first axis; and a propulsion assembly comprising a fan section and a low-pressure turbine connected to the offset core, the fan section in communication with the low-pressure turbine by a shaft configured to rotate about a second axis, different than the first axis, the shaft comprising: a nosecone inlet duct disposed within the fan section; an inner channel extending along a length of the shaft between the nosecone inlet duct and at least one air duct circumscribing the shaft; at least one shaft vent disposed within the at least one air duct; and at least one heat exchanger; wherein the at least one air duct is configured to deliver air from the nosecone inlet duct to the at least one heat exchanger. an offset core configured to rotate about a first axis; and a propulsion assembly comprising a fan section and a low-pressure turbine connected to the offset core, the fan section in communication with the low-pressure turbine by a shaft configured to rotate about a second axis, different than the first axis, the shaft comprising: a nosecone inlet duct disposed within the fan section; an inner channel extending along a length of the shaft between the nosecone inlet duct and at least one air duct circumscribing the shaft; at least one shaft vent disposed within the at least one air duct; a nosecone inlet duct disposed within the fan section; an inner channel extending along a length of the shaft between the nosecone inlet duct and at least one air duct circumscribing the shaft; at least one shaft vent disposed within the at least one air duct; and at least one heat exchanger; wherein the at least one air duct is configured to deliver air from the nosecone inlet duct to the at least one heat exchanger.
A medical diagnostic X-ray imaging apparatus provided with an X-ray source a hollow carrier to which the X-ray source is connected, said carrier being an elongated C-arm extending between two ends; and a cooling device containing a cooling agent for cooling the X-ray source during operation of the X-ray apparatus, the cooling device comprising two separate channels (21,23) through which the cooling agent can circulate, the channels being formed by an internal partition within the elongated carrier, wherein the internal partition is a partitioning wall extending in the elongated carrier and being arranged parallel thereto, the partitioning wall being provided with at least two openings (29, 31) for the circulation of the cooling agent, so that the individual channels (21, 23) are in direct communication with each other, and wherein the cooling device extends in its entirety within the carrier.
A power-source monitoring apparatus comprising: an abnormality detecting unit configured to detect an abnormality in a power source, the power source supplying electric power to an autonomous driving apparatus of a vehicle; the abnormality detecting unit further configured to output a switching instruction to cause the autonomous driving apparatus to be supplied with electric power from a reserve electric power source, and to request a driver to start manual driving when the abnormality detecting unit detects the abnormality in the power source; an accident detecting unit configured to detect an occurrence of a vehicle accident; a measurement unit configured to measure an elapsed time interval from a time point at which the abnormality detecting unit detects an abnormality in the power source until the accident detecting unit detects the occurrence of the vehicle accident; a recording unit that records therein the elapsed time interval measured by the measurement unit; a determination unit configured to: when the elapsed time interval recorded in the recording unit is within a predetermined time interval, determine that a cause of the vehicle accident is a negligence of the autonomous driving apparatus; and when the elapsed time interval recorded in the recording unit is not within the predetermined time interval, determine that a cause of the vehicle accident is a negligence of a driver. an abnormality detecting unit configured to detect an abnormality in a power source, the power source supplying electric power to an autonomous driving apparatus of a vehicle; the abnormality detecting unit further configured to output a switching instruction to cause the autonomous driving apparatus to be supplied with electric power from a reserve electric power source, and to request a driver to start manual driving when the abnormality detecting unit detects the abnormality in the power source; an accident detecting unit configured to detect an occurrence of a vehicle accident; a measurement unit configured to measure an elapsed time interval from a time point at which the abnormality detecting unit detects an abnormality in the power source until the accident detecting unit detects the occurrence of the vehicle accident; a recording unit that records therein the elapsed time interval measured by the measurement unit; a determination unit configured to: when the elapsed time interval recorded in the recording unit is within a predetermined time interval, determine that a cause of the vehicle accident is a negligence of the autonomous driving apparatus; and when the elapsed time interval recorded in the recording unit is not within the predetermined time interval, determine that a cause of the vehicle accident is a negligence of a driver.