mhurhangee/patent-ind-claim-en huggingface dataset:
A motorized tool for agricultural use, particularly of the energy-saving type, comprising at least one movable part that is adapted to engage objects to be processed within a work area, means for varying the working speed of said at least one movable part , detection means adapted to detect said objects entering said work area and functionally associated with said variator means so as to vary automatically the working speed of said at least one movable part between a working speed value equal to zero and a maximum speed value in relation to the presence and/or consistency of said objects , and means for the electronic management of said variator means which are functionally associated with said detection means in order to process the measurement performed by said detection means and convert it into an electrical signal associated with a predefined working speed value of said at least one movable part , characterized in that said detection means are arranged at an inlet of the work area of said at least one movable part , in that said electronic management means comprise transducer means which are associated directly with said detection means and comprise at least one transducer of the mechanical type and at least one contactless shape measurement transducer, and in that said detection means comprise at least one movable element which rotates integrally with a control rod arranged above said inlet of said work area of said at least one movable part and transversely with respect to the approach direction of said objects and is associated rotatably with the framework of said tool so that it can move between an inactive position, in which said at least one movable element is arranged by gravity in a substantially vertical position with respect to the ground on which said tool works, so as to be able to engage said objects entering said work area, and a maximum detection position, in which said at least one movable element is arranged in a position that is raised substantially with respect to the ground on which said tool works as a consequence of the engagement of at least one of said objects entering said work area, said at least one transducer of the mechanical type comprising an angular position transducer which is associated with said control rod in such a manner as to measure its angular rotation with respect to said inactive position.
A folding device, comprising a power assembly arranged to be fixed relative to a flexible panel having a bending part, at least one movement assembly connected with the power assembly , and at least one connecting rod assembly , wherein the folding device is configured to be mounted on the bending part to fold the flexible panel around a bending centerline of the bending part, the connecting rod assembly is configured to movably connect to the movement assembly and movably connect to the flexible panel , wherein the movement assembly is configured to be moved by the power assembly to move in a direction substantially parallel to the bending centerline of the bending part, wherein the connecting rod assembly is configured to move along with the movement of the movement assembly and to rotate relative to the movement assembly , wherein at least a part of the flexible panel is is configured to be driven by the connecting rod assembly to move and be in a folded state or an unfolded state, and the connecting rod assembly comprises a first support rod and second support rod respectively connected to the movement assembly , with the first support rod configured to be connected to the flexible panel on one side of the bending part and the second support rod configured to be connected to the flexible panel on the other side of the bending part.
A harvesting head for an agricultural harvesting machine , the head comprising: a first frame portion adapted to be connected to the harvesting machine ; a second frame portion moveably connected to the first frame portion ; an upper control arm pivotally connected to the first frame portion and pivotally connected to the second frame portion ; and a lower control arm pivotally connected to the first frame portion and pivotally connected to the second frame portion , characterized in that the connection between the first frame portion , second frame portion , upper control arm , and a lower control arm is configured to create a roll center of the second frame portion positioned at or below ground level, when the harvesting header is attached to the harvesting machine . a first frame portion adapted to be connected to the harvesting machine ; a second frame portion moveably connected to the first frame portion ; an upper control arm pivotally connected to the first frame portion and pivotally connected to the second frame portion ; and a lower control arm pivotally connected to the first frame portion and pivotally connected to the second frame portion , characterized in that the connection between the first frame portion , second frame portion , upper control arm , and a lower control arm is configured to create a roll center of the second frame portion positioned at or below ground level, when the harvesting header is attached to the harvesting machine .
A method of forming a nanoporous open-cell foam comprising the steps of: heating a first solvent selected from the group consisting of toluene, xylene, benzene and mixtures thereof, trichloroethane, trichlorobenzene and mixtures thereof, and polybutene, decalin and mixtures thereof; dissolving a polymer powder selected from the group consisting of polyethylene powder, polypropylene powder, polybutylene powder or a polypropylene and polybutylene mixture in the heated solvent; cooling the solvent polymer mix to form a polymer fibril structure; exchanging the first solvent for a second solvent selected from the group consisting of liquid carbon dioxide, methane, ethane, propane, ethylene and mixtures thereof or menthol, camphene, tert-butanol and mixtures thereof; and removing the second solvent from the polymer fibril structure, wherein the removing step comprises lyophilization or critical point drying. heating a first solvent selected from the group consisting of toluene, xylene, benzene and mixtures thereof, trichloroethane, trichlorobenzene and mixtures thereof, and polybutene, decalin and mixtures thereof; dissolving a polymer powder selected from the group consisting of polyethylene powder, polypropylene powder, polybutylene powder or a polypropylene and polybutylene mixture in the heated solvent; cooling the solvent polymer mix to form a polymer fibril structure; exchanging the first solvent for a second solvent selected from the group consisting of liquid carbon dioxide, methane, ethane, propane, ethylene and mixtures thereof or menthol, camphene, tert-butanol and mixtures thereof; and removing the second solvent from the polymer fibril structure, wherein the removing step comprises lyophilization or critical point drying.
A device for generating a force sensing for a flight control system of an aircraft, this device comprising: - a chassis which is provided for being securely fixed to a frame of the aircraft, - a shaft which is mounted in rotation on the chassis about an axis of rotation (X-X), - two first frictional surfaces (12A and 13A) which, in service, are secured either to the chassis or to the shaft, and - two second frictional surfaces (24A and 33A) which, in service, are: - secured either to the shaft when the first frictional surfaces are secured to the chassis , or to the chassis when the two first frictional surfaces are secured to the shaft, and - bearing respectively against the two first frictional surfaces (12A and 13A) along the axis of rotation (X-X) so as to produce a friction which is to be surpassed to put the shaft in rotation about the axis of rotation relative to the chassis, characterized in that the two first frictional surfaces (12A and 13A) are spherical by being respectively centered on distinct points (P1 and P2), by which the axis of rotation (X-X) passes into service, and in that the two second frictional surfaces (24A and 33A) are toroidal so as, in service, to respectively bear against the two first frictional surfaces (12A and 13A), by swiveling each about the point (P1, P2) on which is centered the corresponding first frictional surface, to produce said friction. - a chassis which is provided for being securely fixed to a frame of the aircraft, - a shaft which is mounted in rotation on the chassis about an axis of rotation (X-X), - two first frictional surfaces (12A and 13A) which, in service, are secured either to the chassis or to the shaft, and - two second frictional surfaces (24A and 33A) which, in service, are: - secured either to the shaft when the first frictional surfaces are secured to the chassis , or to the chassis when the two first frictional surfaces are secured to the shaft, and - bearing respectively against the two first frictional surfaces (12A and 13A) along the axis of rotation (X-X) so as to produce a friction which is to be surpassed to put the shaft in rotation about the axis of rotation relative to the chassis, characterized in that the two first frictional surfaces (12A and 13A) are spherical by being respectively centered on distinct points (P1 and P2), by which the axis of rotation (X-X) passes into service, and in that the two second frictional surfaces (24A and 33A) are toroidal so as, in service, to respectively bear against the two first frictional surfaces (12A and 13A), by swiveling each about the point (P1, P2) on which is centered the corresponding first frictional surface, to produce said friction. - secured either to the shaft when the first frictional surfaces are secured to the chassis , or to the chassis when the two first frictional surfaces are secured to the shaft, and - bearing respectively against the two first frictional surfaces (12A and 13A) along the axis of rotation (X-X) so as to produce a friction which is to be surpassed to put the shaft in rotation about the axis of rotation relative to the chassis,
Firearm suppressor, in particular a rifle suppressor, which suppressor has a substantially rotationally symmetrical cylindrical form and comprises a suppressor housing , chambers for expansion and burning of propellant gases and arranged inside the suppressor housing , an aperture for a projectile configured to be fired by the firearm and located around an imaginary center axis of the suppressor , which suppressor comprises an inner flow guide structure , which suppressor comprises a circumferential chamber inside the suppressor housing and a baffle chamber with baffles , which inner flow guide structure is located inside the circumferential chamber and comprises radially inclined guide openings , and a sleeve is provided around the baffles configured to form a separate burning chamber for the propellant gases, characterized in that the radially inclined guide openings have an inclination angle of 30 - 70 degrees in relation to travel direction of the projectile, that a tubing for gas is provided in the circumferential chamber inside the suppressor housing and that inlet end/-s of the tubing is in flow connection with the radially inclined guide openings of the inner flow guide structure .
A system comprising: an engine control system configured to control an engine , wherein the engine control system comprises a processor configured to: receive a vibration signal sensed by a knock sensor disposed in an engine ; receive a crankshaft signal sensed by a crank angle sensor disposed in the engine , wherein the crankshaft signal is representative of an engine crank angle; and monitor a valve timing by deriving a cylinder head acceleration measurement via the vibration signal received by the knock sensor , wherein the processor is configured to monitor the valve timing by deriving a valve lash based on the vibration signal, the engine crank angle, and a threshold valve lash model, wherein the processor is configured to derive a valve train condition by executing a valve timing change model, which valve timing change model is suitable for deriving a sudden valve timing change. receive a vibration signal sensed by a knock sensor disposed in an engine ; receive a crankshaft signal sensed by a crank angle sensor disposed in the engine , wherein the crankshaft signal is representative of an engine crank angle; and monitor a valve timing by deriving a cylinder head acceleration measurement via the vibration signal received by the knock sensor , wherein the processor is configured to monitor the valve timing by deriving a valve lash based on the vibration signal, the engine crank angle, and a threshold valve lash model, wherein the processor is configured to derive a valve train condition by executing a valve timing change model, which valve timing change model is suitable for deriving a sudden valve timing change.
A method of operation of a storage device including a processor and associated storage , comprising the processor: responsive to a process being activated in the storage device processor , recognizing a credential waterfalling security provider containing a credential range for at least one user stored in said storage ; determining if there is at least one pending command in the credential waterfalling security provider; in response to determining that there is at least one pending command for a downstream target in the credential range of the credential waterfalling security provider, configuring a next command of the at least one pending command, where configuring the next command comprises determining if one or more other downstream storage devices are a target of the next command and the next command is either a lock command or an unlock command; if the one or more other downstream storage devices are the target of the next command, determining if there are any remaining targets of the next command; and if any of the targets of the next command remain, delivering the at least one pending command to a next target of the remaining targets. responsive to a process being activated in the storage device processor , recognizing a credential waterfalling security provider containing a credential range for at least one user stored in said storage ; determining if there is at least one pending command in the credential waterfalling security provider; in response to determining that there is at least one pending command for a downstream target in the credential range of the credential waterfalling security provider, configuring a next command of the at least one pending command, where configuring the next command comprises determining if one or more other downstream storage devices are a target of the next command and the next command is either a lock command or an unlock command; if the one or more other downstream storage devices are the target of the next command, determining if there are any remaining targets of the next command; and if any of the targets of the next command remain, delivering the at least one pending command to a next target of the remaining targets.
A control apparatus for controlling tomographic imaging and eyeground imaging, the control apparatus comprising: tomographic-image obtaining means for obtaining, from a tomographic-image pickup unit based on combined light obtained by combining return light returned from a subject's eye irradiated with measurement light with reference light corresponding to the measurement light, a first tomographic B-scan image of an eyeground of the subject's eye during preview scanning by the tomographic-image pickup unit for adjusting tomographic imaging, and second tomographic B-scan images of the eyeground in response to an instruction for the tomographic imaging after a position of a capturing unit is adjusted by a user operation with a joystick ; control means for adjusting a gate position, which refers to the adjustment of the difference between optical path length of the reference light and optical path length of the measurement light; and display control means for causing a display means to display the first tomographic B-scan image, a slider for indicating the gate position, and an indicator for indicating the ratio of the maximum brightness of the first tomographic B-scan image and the brightness of background noise, and then for causing the display means to display, in a tomographic image check screen, the second tomographic B-scan images obtained in response to the instruction, and a retake button for selecting re-obtainment of the second tomographic B-scan images of the subject's eye. tomographic-image obtaining means for obtaining, from a tomographic-image pickup unit based on combined light obtained by combining return light returned from a subject's eye irradiated with measurement light with reference light corresponding to the measurement light, a first tomographic B-scan image of an eyeground of the subject's eye during preview scanning by the tomographic-image pickup unit for adjusting tomographic imaging, and second tomographic B-scan images of the eyeground in response to an instruction for the tomographic imaging after a position of a capturing unit is adjusted by a user operation with a joystick ; control means for adjusting a gate position, which refers to the adjustment of the difference between optical path length of the reference light and optical path length of the measurement light; and display control means for causing a display means to display the first tomographic B-scan image, a slider for indicating the gate position, and an indicator for indicating the ratio of the maximum brightness of the first tomographic B-scan image and the brightness of background noise, and then for causing the display means to display, in a tomographic image check screen, the second tomographic B-scan images obtained in response to the instruction, and a retake button for selecting re-obtainment of the second tomographic B-scan images of the subject's eye.
A photogrammetry system comprising: a two-dimensional camera responsive to first executable instructions which when executed by the 2D camera is operable to: capture a 2D image, and transmit the 2D image; and a processing system communicatively couplable to the 2D camera, wherein the processing system is responsive to second executable instructions which when executed by the processing system is operable to: receive the 2D image from the 2D camera, the 2D image having a three-dimensional data set associated therewith, process the 2D image to generate a processed image identifying regions to be masked; characterised in that the processing system is further operable to: mask at least a portion of the 3D data set based at least in part on the processed image. a two-dimensional camera responsive to first executable instructions which when executed by the 2D camera is operable to: capture a 2D image, and transmit the 2D image; and capture a 2D image, and transmit the 2D image; and a processing system communicatively couplable to the 2D camera, wherein the processing system is responsive to second executable instructions which when executed by the processing system is operable to: receive the 2D image from the 2D camera, the 2D image having a three-dimensional data set associated therewith, process the 2D image to generate a processed image identifying regions to be masked; receive the 2D image from the 2D camera, the 2D image having a three-dimensional data set associated therewith, process the 2D image to generate a processed image identifying regions to be masked;
Pushbutton for unlocking a lock of a door, hood, cover or hatch, in particular of an agricultural vehicle, for example of a tractor or of a construction machine, having a) a pushbutton housing , b) an actuating button which is mounted in the pushbutton housing and which has an unactuated and an actuated position, c) a locking mechanism for locking the actuating button in its unactuated position, wherein the actuating button can be moved in its unlocked state linearly along an actuating axis in a pushbutton actuating direction from its unactuated position into its actuated position relative to the pushbutton housing , characterized in that the pushbutton is designed in such a way that the actuating button returns automatically from its actuated position into its unactuated position and is automatically locked in the process. a) a pushbutton housing , b) an actuating button which is mounted in the pushbutton housing and which has an unactuated and an actuated position, c) a locking mechanism for locking the actuating button in its unactuated position, wherein the actuating button can be moved in its unlocked state linearly along an actuating axis in a pushbutton actuating direction from its unactuated position into its actuated position relative to the pushbutton housing ,
A method for dynamically displaying a guide interface element, the method comprising: receiving an input invoking display of a guide interface element; in response to the input: determining guide data for populating the guide interface element; determining, based at least in part on a characteristic of the guide data, a display duration for the guide interface element, wherein the characteristic of the guide data is indicative of an interest level in information contained in the guide data; identifying, from the guide data, one or more indicators relating to one or more content assets; comparing the one or more content assets with an interest profile; determining an interest metric reflecting a matching level between the one or more content assets and the interest profile based on the comparing; determining the display duration based on the interest metric; and generating for display, the guide interface element for the determined display duration. receiving an input invoking display of a guide interface element; in response to the input: determining guide data for populating the guide interface element; determining, based at least in part on a characteristic of the guide data, a display duration for the guide interface element, wherein the characteristic of the guide data is indicative of an interest level in information contained in the guide data; identifying, from the guide data, one or more indicators relating to one or more content assets; comparing the one or more content assets with an interest profile; determining an interest metric reflecting a matching level between the one or more content assets and the interest profile based on the comparing; determining the display duration based on the interest metric; and generating for display, the guide interface element for the determined display duration. determining guide data for populating the guide interface element; determining, based at least in part on a characteristic of the guide data, a display duration for the guide interface element, wherein the characteristic of the guide data is indicative of an interest level in information contained in the guide data; identifying, from the guide data, one or more indicators relating to one or more content assets; comparing the one or more content assets with an interest profile; determining an interest metric reflecting a matching level between the one or more content assets and the interest profile based on the comparing; determining the display duration based on the interest metric; and generating for display, the guide interface element for the determined display duration.