mhurhangee/patent-ind-claim-en huggingface dataset:
A method, comprising: receiving flight data from one or more aircraft flight data systems ; determining if the aircraft is near stall or in a stall using the flight data; determining if the aircraft is in uncoordinated flight while near stall or in a stall to determine if the aircraft is near spin or in a spin using the flight data; if the aircraft is determined to be near spin: sending a signal to an automated control system for inputting automatic control to the aircraft to avoid a spin by coordinating the aircraft or avoiding a stall while uncoordinated; determining whether a pilot inputs a stall-avoidance control input to avoid a spin within a threshold period of time before inputting automatic control to the aircraft; and overriding the pilot input and inputting automatic control to the aircraft regardless of the threshold period of time if the pilot inputs a stall-exacerbating input within the threshold period of time. receiving flight data from one or more aircraft flight data systems ; determining if the aircraft is near stall or in a stall using the flight data; determining if the aircraft is in uncoordinated flight while near stall or in a stall to determine if the aircraft is near spin or in a spin using the flight data; if the aircraft is determined to be near spin: sending a signal to an automated control system for inputting automatic control to the aircraft to avoid a spin by coordinating the aircraft or avoiding a stall while uncoordinated; determining whether a pilot inputs a stall-avoidance control input to avoid a spin within a threshold period of time before inputting automatic control to the aircraft; and overriding the pilot input and inputting automatic control to the aircraft regardless of the threshold period of time if the pilot inputs a stall-exacerbating input within the threshold period of time. sending a signal to an automated control system for inputting automatic control to the aircraft to avoid a spin by coordinating the aircraft or avoiding a stall while uncoordinated; determining whether a pilot inputs a stall-avoidance control input to avoid a spin within a threshold period of time before inputting automatic control to the aircraft; and overriding the pilot input and inputting automatic control to the aircraft regardless of the threshold period of time if the pilot inputs a stall-exacerbating input within the threshold period of time.
A button sound processor , comprising: a first component comprising a housing , the housing having an interior containing an RF coil and a sound processing apparatus ; and a second component comprising a magnet , wherein the button sound processor has a skin interface side configured to interface with skin of a recipient, and the button sound processor is configured such that the second component comprising the magnet is installable into and removable from the housing of the first component of the button sound processor from the skin interface side , with the housing of the first component providing a complete barrier between the second component and the interior of the housing . a first component comprising a housing , the housing having an interior containing an RF coil and a sound processing apparatus ; and a second component comprising a magnet , wherein the button sound processor has a skin interface side configured to interface with skin of a recipient, and the button sound processor is configured such that the second component comprising the magnet is installable into and removable from the housing of the first component of the button sound processor from the skin interface side , with the housing of the first component providing a complete barrier between the second component and the interior of the housing .
Lubrication device for coupling , comprising a body provided at one longitudinal end with an ejection head extending along a longitudinal axis (A1), the body comprising a circumferential face and a main channel capable of conveying a lubrication fluid to the ejection head , the ejection head having an ejection orifice arranged to eject the lubrication fluid from the main channel , this ejection orifice defining an ejection direction (D1) and opening onto an end face of the ejection head , the end face being oriented relative to the longitudinal axis (A1) of the ejection head such as to guide the lubrication fluid to flow towards the circumferential face up to a stall strip partly delimiting the end face , characterised in that it comprises means for guiding the lubrication fluid towards the stall strip .
A test hammer to carry out a strike on a section of a device under test , wherein the test hammer comprises: a motion sensor , and a transmission module to transmit a strike start indication signal (s2) if the motion sensor detects a motion state which indicates a start of a strike with the test hammer , and/or to transmit an impact indication signal (s3) if the motion sensor detects a motion state which indicates an impact of the test hammer , wherein the motion sensor is an acceleration sensor, and characterized in that the transmission module is able to output the strike start indication signal (s2) if the acceleration sensor has detected an acceleration which exceeds a predetermined first threshold (a1), and/or the transmission module is able to output the impact indication signal (s3) if the acceleration sensor has detected an acceleration which exceeds a predetermined second threshold (a2), and/or the transmission module is able to output the impact indication signal (s3) if the acceleration sensor has detected an acceleration which has a component in a direction which is opposite to a direction of the acceleration which has exceeded the first threshold (a1). a motion sensor , and a transmission module to transmit a strike start indication signal (s2) if the motion sensor detects a motion state which indicates a start of a strike with the test hammer , and/or to transmit an impact indication signal (s3) if the motion sensor detects a motion state which indicates an impact of the test hammer , wherein the motion sensor is an acceleration sensor, and characterized in that the transmission module is able to output the strike start indication signal (s2) if the acceleration sensor has detected an acceleration which exceeds a predetermined first threshold (a1), and/or the transmission module is able to output the impact indication signal (s3) if the acceleration sensor has detected an acceleration which exceeds a predetermined second threshold (a2), and/or the transmission module is able to output the impact indication signal (s3) if the acceleration sensor has detected an acceleration which has a component in a direction which is opposite to a direction of the acceleration which has exceeded the first threshold (a1).
A virtual reality (VR) control method , comprising: displaying , by a head-mounted VR device a VR environment (102, 400 the VR environment presented from a first-person perspective in the VR environment that is defined with respect to a reference frame in the VR environment, and a graphical indicator of a current real-world position (302a-f, 602, 630) of the head-mounted VR device with respect to a real-world reference position , wherein the graphical indicator tracks the perspective during movement of the perspective to remain displayed during the movement of the perspective; determining a velocity of the reference frame based on a displacement between the current real-world position and the real-world reference position; and translating the reference frame in the VR environment at the velocity, wherein the graphical indicator comprises a feature that indicates a direction of the velocity (314b-f, 536a) with respect to an orientation of the perspective (312a-f), wherein the orientation of the perspective is based on a real-world orientation of the head-mounted VR device, and wherein the feature moves based on changes in the orientation of the perspective, such that the feature indicates the direction of the velocity independent of the changes in the orientation of the perspective. displaying , by a head-mounted VR device a VR environment (102, 400 the VR environment presented from a first-person perspective in the VR environment that is defined with respect to a reference frame in the VR environment, and a graphical indicator of a current real-world position (302a-f, 602, 630) of the head-mounted VR device with respect to a real-world reference position , wherein the graphical indicator tracks the perspective during movement of the perspective to remain displayed during the movement of the perspective; a VR environment (102, 400 the VR environment presented from a first-person perspective in the VR environment that is defined with respect to a reference frame in the VR environment, and a graphical indicator of a current real-world position (302a-f, 602, 630) of the head-mounted VR device with respect to a real-world reference position , wherein the graphical indicator tracks the perspective during movement of the perspective to remain displayed during the movement of the perspective; determining a velocity of the reference frame based on a displacement between the current real-world position and the real-world reference position; and translating the reference frame in the VR environment at the velocity, wherein the graphical indicator comprises a feature that indicates a direction of the velocity (314b-f, 536a) with respect to an orientation of the perspective (312a-f), wherein the orientation of the perspective is based on a real-world orientation of the head-mounted VR device, and wherein the feature moves based on changes in the orientation of the perspective, such that the feature indicates the direction of the velocity independent of the changes in the orientation of the perspective.
A processing unit configured to execute instructions, comprising: circuitry that, in response to an instruction, receives an input vector , applies an activation function to the input vector by performing a hardware approximation of the activation function, and then generates an output vector based on the activation function; and a lookup table that is referenced during the hardware approximation of the activation function, wherein the lookup table identifies particular circuits of the circuitry to use when processing a particular activation function. circuitry that, in response to an instruction, receives an input vector , applies an activation function to the input vector by performing a hardware approximation of the activation function, and then generates an output vector based on the activation function; and a lookup table that is referenced during the hardware approximation of the activation function, wherein the lookup table identifies particular circuits of the circuitry to use when processing a particular activation function.
A food holder for a food slicer , the food holder comprising a tubular section and a plate extending across the tubular section , the plate defining a top face and a bottom face , the bottom face comprising a food-engaging surface moveable in a cutting direction relative to a cutting surface of the food slicer to cut a food product held between the food-engaging surface and the cutting surface , characterized in that the food-engaging surface is inclined or sloped with respect to the cutting surface substantially from an uppermost point at the front of the tubular section of the food holder to a lowermost point at the rear of the tubular section of the food holder , said front and rear of the tubular section being defined with reference to said cutting direction, so that at least a portion of the food-engaging surface is arranged to be positioned behind the food product with respect to the cutting direction during use to exert a pushing force on the back of the food product to push it along the cutting surface of the food slicer .
Plug part that is connectable to a mating part for forming a plug-in connection, the mating part being used as a connector of a device , comprising at least one nonvolatile memory , a communication unit , a microprocessor and a cable leading out from the plug part as a connector to a network, characterized in that information is stored in the memory , which, for authorizing operation of the device, comprises permissible combinations of hardware and software versions.
Gas fired radiant emitter , comprising - a burner deck onto which premix gas is combusted when the emitter is in use; and - a metal plate provided at the combustion side of the burner deck , for acting as radiant screen; wherein the metal plate is at least over part of its surface - and preferably over its full surface - spaced from the burner deck ; wherein the metal plate comprises a plurality of elongated slots for passage through the metal plate of flue gas generated on the burner deck ; wherein the plurality of elongated slots comprise a first elongated slot , wherein the first elongated slot has a first tangent along a position along its length; wherein the plurality of elongated slots comprise a second elongated slot , wherein the second elongated slot has a second tangent along a position along its length; wherein the angle between the first tangent and the second tangent is between 45° and 135°, preferably between 75° and 105°. - a burner deck onto which premix gas is combusted when the emitter is in use; and - a metal plate provided at the combustion side of the burner deck , for acting as radiant screen;
A tissue product comprising at least one multi-layered tissue web having a first and a second outer layer and a middle layer disposed there between, wherein the first and the second outer layers comprise short wood pulp fibers having an average fiber length less than 1.2 mm, and from about 5 to about 20 weight percent (wt%) long, high-coarseness cellulosic fiber having an average fiber length greater than about 2.0 mm and a coarseness of 20 mg/100 m or greater, wherein the middle layer contains less than about 0.25 wt% of long high-coarseness fiber, the tissue product having a geometric mean tensile (GMT) from about 700 to about 1,200 g/3" (g/7.62 cm) and a TS7 value less than about 12.0 dB V 2 rms, wherein the coarseness is measured according to the test procedure described herein.
A grain handling system comprising: a piece of equipment (500;400) configured for moving grain particles; a sensor subsystem (1002;1110) including a particle movement sensor and an optical sensor ; said particle movement sensor comprising a microphone in proximity to a particle movement path and configured for detecting a characteristic of said moving particles and generating an output signal corresponding to said moving particle characteristic; said optical sensor configured for detecting an optical characteristic of said grain and generating an output signal corresponding to said optical characteristic; and said particle movement and optical sensor output signals comprising a sensor subsystem input to a processor (212;1116), said microphone is configured for detecting sound waves from said particles in said path, for transforming said sound waves into electrical signals, and for sending said electrical signals to said processor; said processor (212;1116) configured for providing output based on particle movement and controlling an operating variable of said equipment piece in response to particle movement; characterized in that , said processor (212;1116) is configured for analyzing said electrical signals, for determining a pattern of grain particle delivery, for calculating a timing offset for optical data capture, and for triggering optical data capture at said timing offset upon receiving an electrical signal from said microphone. a piece of equipment (500;400) configured for moving grain particles; a sensor subsystem (1002;1110) including a particle movement sensor and an optical sensor ; said particle movement sensor comprising a microphone in proximity to a particle movement path and configured for detecting a characteristic of said moving particles and generating an output signal corresponding to said moving particle characteristic; said optical sensor configured for detecting an optical characteristic of said grain and generating an output signal corresponding to said optical characteristic; and said particle movement and optical sensor output signals comprising a sensor subsystem input to a processor (212;1116), said microphone is configured for detecting sound waves from said particles in said path, for transforming said sound waves into electrical signals, and for sending said electrical signals to said processor; said processor (212;1116) configured for providing output based on particle movement and controlling an operating variable of said equipment piece in response to particle movement; characterized in that , said processor (212;1116) is configured for analyzing said electrical signals, for determining a pattern of grain particle delivery, for calculating a timing offset for optical data capture, and for triggering optical data capture at said timing offset upon receiving an electrical signal from said microphone.
A wheelchair braking system comprising: a brake control mechanism comprising, a mounting member , an operation mechanism comprising a joystick , and a link mechanism comprising a first link , a second link , a third link , a fourth link and a fifth link , a first braking circuit capable of applying a braking force to a first wheel, and a second braking circuit capable of applying a braking force to a second wheel, characterized in that the first link is configured to receive the joystick , and that the first link is rotationally coupled to the second link , and that the first link is rotationally coupled to the fourth link , wherein the second link engages the first braking circuit by way of the third link rotationally coupled to the second link , and wherein the fourth link engages the second braking circuit by way of the fifth link rotationally coupled to the fourth link . a brake control mechanism comprising, a mounting member , an operation mechanism comprising a joystick , and a link mechanism comprising a first link , a second link , a third link , a fourth link and a fifth link , a mounting member , an operation mechanism comprising a joystick , and a link mechanism comprising a first link , a second link , a third link , a fourth link and a fifth link , a first braking circuit capable of applying a braking force to a first wheel, and a second braking circuit capable of applying a braking force to a second wheel, characterized in that the first link is configured to receive the joystick , and that the first link is rotationally coupled to the second link , and that the first link is rotationally coupled to the fourth link , wherein the second link engages the first braking circuit by way of the third link rotationally coupled to the second link , and wherein the fourth link engages the second braking circuit by way of the fifth link rotationally coupled to the fourth link .
An autonomous work vehicle travel system that manages autonomous travel of a work vehicle that travels while working in a work site, the system comprising: a satellite positioning module that outputs positioning data indicating a vehicle position of the work vehicle; an area setting unit that sets an area to be worked in the work site; a route managing unit that calculates a travel route element set, the travel route element set being an aggregate of multiple travel route elements constituting a travel route covering the area to be worked (CA), and stores the travel route element set so as to be capable of readout; a route element selecting unit that selects, during travel of the work vehicle in a current travel route element, a next travel route element, which is to be traveled after the travel is completed for the current travel route element, sequentially from the travel route element set; and an autonomous travel controlling unit that causes the work vehicle to travel autonomously on the basis of the next travel route element and the vehicle position. a satellite positioning module that outputs positioning data indicating a vehicle position of the work vehicle; an area setting unit that sets an area to be worked in the work site; a route managing unit that calculates a travel route element set, the travel route element set being an aggregate of multiple travel route elements constituting a travel route covering the area to be worked (CA), and stores the travel route element set so as to be capable of readout; a route element selecting unit that selects, during travel of the work vehicle in a current travel route element, a next travel route element, which is to be traveled after the travel is completed for the current travel route element, sequentially from the travel route element set; and an autonomous travel controlling unit that causes the work vehicle to travel autonomously on the basis of the next travel route element and the vehicle position.
Robot arm comprising several joints and several links which can be adjusted relative to each other by the movements of the joints of the robot arm , wherein a drive device is assigned to each driven joint and the respective drive device is designed to adjust the joint of the robot arm assigned to it, specifically by respective automatic actuation of a motor of the respective drive device , comprising a distal end link which is designed as a tool flange , a hand link which is arranged directly upstream of the distal end link in the kinematic chain of the joints and links and on which the distal end link is rotatably mounted about a flange rotation axis (A), and an additional output link which is rotatably mounted on the hand link about a rotation axis (D), which is parallel to the flange rotation axis (A), and is arranged on the hand link so as to lie opposite the distal end link , characterized in that a first drive device (6.1) is assigned to the distal end link and is designed to move the distal end link and a second drive device (6.2) that is different from the first drive device (6.1) is assigned to the additional output link , the second drive device being designed to move the additional output link .
A cleaning utensil having a dewatering mechanism comprising; an outer casing having a base portion and sidewalls, said sidewalls comprising cavities allowing water flow, a cylindrical bowl located in said outer casing , wherein said bowl has a cylindrical inner volume which is convergent in its radial dimension from its top rim towards its bottom wall, a wringer having a base plate and a plurality of wringer arms which are distributed around the periphery of said base plate and which extend towards the upper rim of the cylindrical bowl , characterized in that the wringer has a helical drill attached to its base plate and extending in the vertical direction (-y) towards the base portion of said outer casing , the outer casing has a drill nut which is sized and shaped to accommodate said helical drill and which has inner helix, such that when said helical drill engages the inner helix of said drill nut , both of the helical drill and the wringer simultaneously rotate around the vertical axis (y) and also displace towards the base portion of the outer casing , each of said plurality of wringer arms are flexibly connected to the base plate through a flexible bending portion , such that when the wringer displace towards the base portion of the outer casing , the plurality of wringer arms are bent inwardly in the radial direction.