mhurhangee/patent-ind-claim-en huggingface dataset:
A method for modifying the resistance profile of a spinach plant to Peronospora farinosa f. sp. spinaciae to change it as compared to its original resistance profile, comprising introducing a WOLF allele or a resistance-conferring part thereof into the genome of said spinach plant by transformation, wherein the WOLF allele encodes a CC-NBS-LRR protein that comprises in its amino acid sequence: a) the motif "MAEIGYSVC" at its N-terminus, and b) the motif "KWMCLR" or "HVGCVVDR", wherein introducing a WOLF allele into the genome of a spinach plant comprises the step of expressing in a spinach cell a recombinant nucleic acid construct comprising a coding sequence encoding one or more WOLF polypeptides, and wherein the nucleic acid construct is in particular designed for stable incorporation into the genome of a plant cell. a) the motif "MAEIGYSVC" at its N-terminus, and b) the motif "KWMCLR" or "HVGCVVDR",
A storage system comprising: a pressurized reservoir system having a first inlet fluidly connected to a point of entry at an upstream end of the pressurized reservoir system and a second inlet fluidly connected to an electrodeionization device and further having an outlet fluidly connected to the electrodeionization device defining a loop between the pressurized reservoir system and the electrodeionization device ; a distribution system fluidly connected to the pressurized reservoir via the outlet and to a point of use ; at least three conductivity sensors in the pressurized reservoir system ; and wherein the pressurized reservoir system has baffle plates adapted to disrupt any internal flow currents; wherein the pressurized reservoir system is a vessel ; wherein the at least three conductivity sensors are installed along a water flow direction and along the height of the vessel ; and wherein the storage system further comprises a controller configured to monitor a difference in water conductivity and to monitor the interface between treated water and raw water, wherein the controller is configured to regulate at least one operating parameter of the electrodeionization device based on signals from the conductivity sensors (20a, 20 b, 20c). a pressurized reservoir system having a first inlet fluidly connected to a point of entry at an upstream end of the pressurized reservoir system and a second inlet fluidly connected to an electrodeionization device and further having an outlet fluidly connected to the electrodeionization device defining a loop between the pressurized reservoir system and the electrodeionization device ; a distribution system fluidly connected to the pressurized reservoir via the outlet and to a point of use ; at least three conductivity sensors in the pressurized reservoir system ; and wherein the pressurized reservoir system has baffle plates adapted to disrupt any internal flow currents; wherein the pressurized reservoir system is a vessel ; wherein the at least three conductivity sensors are installed along a water flow direction and along the height of the vessel ; and
Method for temporarily covering an opening in a component of a wind turbine, comprising the steps: - positioning a cover comprising an inflatable torus and a tarpaulin , whose circumference is attached to the torus , over the opening such that the torus extends around the outer circumference of a wall whose inner circumference delimits the opening and that the tarpaulin extends across the opening , and - inflating the torus to attach the cover to the component . - positioning a cover comprising an inflatable torus and a tarpaulin , whose circumference is attached to the torus , over the opening such that the torus extends around the outer circumference of a wall whose inner circumference delimits the opening and that the tarpaulin extends across the opening , and - inflating the torus to attach the cover to the component .
An actuator assembly , comprising: a drive assembly comprising a drive arm assembly adapted to extend and retract in order to actuate a controlled member: the drive arm assembly comprises an actuation member ; a release member ; and a source of pressurized gas; wherein during a normal mode of operation, the actuation member and the release member are engaged with a securing mechanism to move in unison; wherein during an emergency mode of operation, pressurized gas automatically decouples the actuation member from the release member to move separately in order for the actuation member to extend the controlled member; and characterized in that the securing mechanism is adapted to lock the actuation member in a fully extended position during the emergency mode of operation. the drive arm assembly comprises an actuation member ; a release member ; and a source of pressurized gas; wherein during a normal mode of operation, the actuation member and the release member are engaged with a securing mechanism to move in unison; wherein during an emergency mode of operation, pressurized gas automatically decouples the actuation member from the release member to move separately in order for the actuation member to extend the controlled member; and characterized in that the securing mechanism is adapted to lock the actuation member in a fully extended position during the emergency mode of operation.
A swivel nut assembly configured to adaptively secure a first component to a second component , the swivel nut assembly comprising: a socket nut comprising a first portion having a first internal threading , and a second portion defining a swivel chamber ; and a swivel connector comprising a ball having a first external threading , wherein the swivel connector is moved into the swivel chamber via the first external threading threadably engaging the first internal threading to move the ball into the swivel chamber , wherein the ball is rotationally captured within the swivel chamber after the ball is moved into the swivel chamber ; wherein the swivel connector includes at least one internal wall that defines a central passage , wherein the internal wall is configured to threadably engage a fastener that passes into the central passage . a socket nut comprising a first portion having a first internal threading , and a second portion defining a swivel chamber ; and a swivel connector comprising a ball having a first external threading , wherein the swivel connector is moved into the swivel chamber via the first external threading threadably engaging the first internal threading to move the ball into the swivel chamber , wherein the ball is rotationally captured within the swivel chamber after the ball is moved into the swivel chamber ; wherein the swivel connector includes at least one internal wall that defines a central passage , wherein the internal wall is configured to threadably engage a fastener that passes into the central passage .
A loudspeaker (101a-d, 201a-b, 301a-c, 401-1a-e, 401-2a-e) for producing sound at bass frequencies including: a diaphragm (102a-d, 202a-b, 302a-c, 402-1a-e, 402-2a-e); a frame (Ma, 306c, 406a-e), wherein a proximal end (P) of the diaphragm is suspended from the frame by at least one proximal suspension element, wherein the at least one proximal suspension element is configured to substantially prevent translational movement of the proximal end of the diaphragm relative to the frame, whilst permitting translational movement of a distal end (D) of the diaphragm which is opposite to the proximal end of the diaphragm; a drive unit configured to move the distal end of the diaphragm based on an electrical signal, characterised in that the drive unit is configured to apply force to the diaphragm at a location on the diaphragm that corresponds to a node in the second harmonic mode of the diaphragm. a diaphragm (102a-d, 202a-b, 302a-c, 402-1a-e, 402-2a-e); a frame (Ma, 306c, 406a-e), wherein a proximal end (P) of the diaphragm is suspended from the frame by at least one proximal suspension element, wherein the at least one proximal suspension element is configured to substantially prevent translational movement of the proximal end of the diaphragm relative to the frame, whilst permitting translational movement of a distal end (D) of the diaphragm which is opposite to the proximal end of the diaphragm; a drive unit configured to move the distal end of the diaphragm based on an electrical signal, characterised in that the drive unit is configured to apply force to the diaphragm at a location on the diaphragm that corresponds to a node in the second harmonic mode of the diaphragm.
A spring-based seat diaphragm for an aircraft seat, comprising: at least one auxiliary spreader , the at least one auxiliary spreader configured to be transversely coupled to a first structural beam and a second structural beam, the at least one auxiliary spreader configured to be positioned between a first primary spreader and a second primary spreader, the first primary spreader and the second primary spreader configured to be parallel to the at least one auxiliary spreader, the first primary spreader and the second primary spreader configured to be being transversely coupled to the first structural beam and the second structural beam; and at least one spring , the at least one spring being proximate to the at least one auxiliary spreader, the at least one spring being parallel to the at least one auxiliary spreader, the at least one spring configured to be positioned being between the first primary spreader and the second primary spreader, the at least one spring including a plurality of bends configured to distribute user weight applied to a cushion installed on the aircraft seat over the spring-based seat diaphragm; a first set of bars and a second set of bars , the first set of bars and the second set of bars coupled to one or more portions of the at least one auxiliary spreader, the first set of bars and the second set of bars being positioned between the first primary spreader and the second primary spreader, the first set of bars being transversely coupled to a first end of the at least one auxiliary spreader, the second set of bars being transversely coupled to a second end of the at least one auxiliary spreader, the first set of bars and the second set of bars being configured to secure the at least one spring within the spring-based seat diaphragm, the spring-based seat diaphragm being configured to support an aft portion of the cushion, the first structural beam being configured to support a forward portion of the cushion. at least one auxiliary spreader , the at least one auxiliary spreader configured to be transversely coupled to a first structural beam and a second structural beam, the at least one auxiliary spreader configured to be positioned between a first primary spreader and a second primary spreader, the first primary spreader and the second primary spreader configured to be parallel to the at least one auxiliary spreader, the first primary spreader and the second primary spreader configured to be being transversely coupled to the first structural beam and the second structural beam; and at least one spring , the at least one spring being proximate to the at least one auxiliary spreader, the at least one spring being parallel to the at least one auxiliary spreader, the at least one spring configured to be positioned being between the first primary spreader and the second primary spreader, the at least one spring including a plurality of bends configured to distribute user weight applied to a cushion installed on the aircraft seat over the spring-based seat diaphragm;
A composition comprising a vault particle, wherein the vault particle comprises multiple copies of a modified amino acid sequence of major vault protein (MVP), wherein the modified sequence comprises a mutation, insertion, or deletion of at least one amino acid located in an unstructured region of a shoulder domain of the MVP, wherein the modified shoulder domain specifically binds to receptors or ligands expressed on cells, or receptors not expressed on cells.
A method for modifying a statistical metric relating to lost voice packets in a packet based voice communication system, receiving (S202) a statistical metric , the statistical metric being calculated based on a sequence of encoded voice packets received by a decoder and transmitted from one or more end-points in the voice communication system, and on one or more lost voice packets which were lost during the transmission from the one or more end-points or discarded due to latency and/or jitter in the transmission, the method characterized by receiving (S204) recovery data relating to recovered voice packets among the one or more of the lost voice packets, wherein the recovered voice packets are recovered using a forward error correction, FEC, scheme and FEC data relating to the lost voice packets , modifying (S206) the statistical metric based on the recovery data , and transmitting (S208) the modified statistical metric to a voice quality estimator so as to reduce a prediction error of a voice quality estimate when using the modified statistical metric as input to a voice quality estimating algorithm of the voice quality estimator . a sequence of encoded voice packets received by a decoder and transmitted from one or more end-points in the voice communication system, and on one or more lost voice packets which were lost during the transmission from the one or more end-points or discarded due to latency and/or jitter in the transmission, the method characterized by
A child car seat comprising a housing surrounding a backrest and a seat, and a handle for guiding the car seat, the child car seat comprising: a) at least two wheels, each of them being mounted on an axle around which it can rotate, the axle extending at least partly through the car seat housing, b) the handle is elongated, mounted with one of its ends to the car seat, and provided at its another, free end with a grip for pushing the car seat in front of oneself on the ground, the handle being configured and located relative to the axle so that in normal use the centre of gravity of the car seat with a handle is located between the grip and the axle, whereby the handle is mounted to the car seat housing, characterised in that the handle is mounted to the bottom part of the housing below the seat, wherein the handle is formed as a single stick-shaped element and is mounted to the seat of the car seat, from below, further away from the backrest and directed in this direction. a) at least two wheels, each of them being mounted on an axle around which it can rotate, the axle extending at least partly through the car seat housing, b) the handle is elongated, mounted with one of its ends to the car seat, and provided at its another, free end with a grip for pushing the car seat in front of oneself on the ground,
A composition comprising an aerosol that comprises particles having a mass median aerodynamic diameter less than 10 μm as determined by cascade impaction, wherein the particles comprise a nebulized solution comprising flecainide and a pharmaceutically acceptable excipient.
A process for the generation of energy (E1, E2, E4) and/or hydrocarbons and methanol (M60, M61) by utilization of carbonaceous materials (M10, M11) without the emission of carbon dioxide into the atmosphere, in which in a first process stage (P1) the carbonaceous materials (M10, M11) are supplied and pyrolysed, wherein pyrolysis coke (M21) and pyrolysis gas (M22) are formed; in a second process stage (P2), the pyrolysis coke (M21) from the first process stage (P1) is gasified, wherein synthesis gas (M24) is formed, and slag and other residues (M91, M92) are removed; and in a third process stage (P3), the synthesis gas (M24) from the second process stage (P2) is converted by Fischer-Tropsch synthesis or liquid-phase methanol synthesis into hydrocarbons and/or methanol (M60, M61), which are discharged; characterized in that the three process stages (P1, P2, P3) form a closed cycle, the pyrolysis gas (M22) of the first process stage (P1) is passed into the second process stage (P2), in the second process stage (P2) oxygen (M31) and, if appropriate, process steam (M50) is blown into a firebed formed by the pyrolysis coke (M21), the pyrolysis gas (M22) is blown spatially separated from the entry point of the oxygen into the gas phase above the firebed, where the polyatomic molecules contained in the pyrolysis gas are cracked and broken down, the temperature in the second process stage is 850 °C or above, wherein the pyrolysis coke and the pyrolysis gas remain in the second process stage for at least 2 seconds, the synthesis gas (M24) of the second process stage (P2) is passed into the third process stage (P3), and surplus gas (M25) from the third process stage (P3) is passed as recycle gas into the first process stage (P1).
Centrifuge comprising a housing , a rotor , a safety vessel in which the rotor is mounted on a drive shaft that extends through the safety vessel , and a centrifuge lid which delimits an interior space of the housing , wherein the safety vessel is provided in the interior space , a gaseous cooling medium enters the interior via an intake opening , flows through the interior and in doing so, is guided laterally past the safety vessel and at least past part of the drive motor via the rotor , and exits the interior of the housing laterally through an outlet opening , wherein a duct is provided for the gaseous cooling medium, which duct extends at least in part spirally around the safety vessel and forms at least one flow guide that partially delimits the duct in the radial direction and in the axial direction, with the result that a directed flow in a direction around the safety vessel is obtained at least in the area of the safety vessel , characterized in that the flow guide is formed by at least one molded part , the safety vessel is supported in the molded part by means of a clamping connection, and that the safety vessel is essentially only held in place by the molded part(s) .
A method for computing a stable binding structure between a target molecule and a drug candidate molecule having a heterocycle using a computer, the method comprising: arranging, when constructing a three-dimensional structure of the target molecule and a three-dimensional structure of the drug candidate molecule in a three-dimensional coordinate space by using three-dimensional structure data of the target molecule and three-dimensional structure data of the drug candidate molecule, the target molecule and the drug candidate molecule at a binding site of the target molecule; determining, as a point A1, a point using an area which is a depression in the binding site of the target molecule and where the heterocycle of the drug candidate molecule exists on a surface of the binding site of the target molecule, wherein the point A1 is a center of gravity of the area; determining, as a point A2, a center of gravity of the heterocycle; determining, as a point A3, a point which is a center of gravity of the binding site of the target molecule and is different from A1; determining, as a point A4, a point which is a coordinate of an arbitrary heavy atom of the drug candidate molecule and is different from the A2; determining, as a collective variable, a dihedral angle formed by a plane X formed by the points A1, A2, and A3 and a plane Y formed by the points A1, A2, and A4; and searching for the stable binding structure between the target molecule and the drug candidate molecule by using the collective variable using metadynamics, wherein vectors A1A2 and A2A3 are linearly independent of vector A2A4. arranging, when constructing a three-dimensional structure of the target molecule and a three-dimensional structure of the drug candidate molecule in a three-dimensional coordinate space by using three-dimensional structure data of the target molecule and three-dimensional structure data of the drug candidate molecule, the target molecule and the drug candidate molecule at a binding site of the target molecule; determining, as a point A1, a point using an area which is a depression in the binding site of the target molecule and where the heterocycle of the drug candidate molecule exists on a surface of the binding site of the target molecule, wherein the point A1 is a center of gravity of the area; determining, as a point A2, a center of gravity of the heterocycle; determining, as a point A3, a point which is a center of gravity of the binding site of the target molecule and is different from A1; determining, as a point A4, a point which is a coordinate of an arbitrary heavy atom of the drug candidate molecule and is different from the A2; determining, as a collective variable, a dihedral angle formed by a plane X formed by the points A1, A2, and A3 and a plane Y formed by the points A1, A2, and A4; and searching for the stable binding structure between the target molecule and the drug candidate molecule by using the collective variable using metadynamics, wherein vectors A1A2 and A2A3 are linearly independent of vector A2A4.
Secure parking device for bicycles, the secure parking device including: - a support frame structure, preferably made of metal, - at least one container housing or case for a bicycle seat, said container housing or case being a closed, or partially open, wholly or partially waterproof shell, and - holding and fastening means for securing different parts of a bicycle, characterized in that the support frame structure is triangular and comprises a first longitudinal bar and a second longitudinal bar anchored at respective supports or bases configured to be fixed to the ground and converging at their upper end in the container housing or case , the first longitudinal bar being disposed in a minimally oblique arrangement and the second longitudinal bar being disposed in a more oblique arrangement than the first longitudinal bar, said first longitudinal bar and said second longitudinal bar having height regulators and the holding and fastening means . - a support frame structure, preferably made of metal, - at least one container housing or case for a bicycle seat, said container housing or case being a closed, or partially open, wholly or partially waterproof shell, and - holding and fastening means for securing different parts of a bicycle,
A facility for managing a stream of articles , in particular in a line for manufacturing flat articles , such as panels, plates, mattresses, said articles having at least one flank, said facility comprising a conveyor assembly ( , comprising at least one inlet conveyor and at least one outlet conveyor , a through temporary storage space for the articles with an inlet side and an outlet side , the temporary storage space having a plurality of vertical storage locations adapted to vertically receive the articles , and being so arranged that the inlet side faces the inlet conveyor and the outlet side faces the outlet conveyor , said facility also comprising handling means adapted to place an article on, or remove an article from, the conveying assembly , and the temporary storage space , the handling means (31 and 32) being arranged on either side of the temporary storage space , so as to enable the temporary storage of the articles from the inlet conveyor through the inlet side and then the destocking thereof to the outlet conveyor through the outlet side , characterized in that the handling means comprise at least one inlet handling arm positioned between the inlet conveyor and the temporary storage space and adapted to remove at least one article from the inlet conveyor and place it in the temporary storage space by pivoting this article between its position on the inlet conveyors and its position in the temporary storage space , and at least one outlet handling arm positioned between the temporary storage space and the outlet conveyor and adapted to remove at least one article from the temporary storage space , and place it on the outlet conveyor , by pivoting this article between its position in the temporary storage space and its position on the outlet conveyor , and in that said handling arms are robots equipped with article gripping means adapted to rotate the articles so as to place them vertically in the temporary storage space , said gripping means being adapted to grip the articles on said flank.