mhurhangee/patent-ind-claim-en huggingface dataset:
A rotary wing aircraft comprising: at least one controllable component; a fly-by-wire flight control system for driving the at least one controllable component; and a flight control including a linear sensor module having a fixed housing , a piston movable within the housing in response to a pilot input, at least one biasing mechanism configured to cooperate with the piston to return the piston to a neutral position after the piston is moved in response to receipt of the pilot input, and a fly-by-wire input mounted to the piston to sense the movement of the piston indicative of the pilot input, wherein the flight control is in communication with the fly-by-wire flight control system that converts the fly-by-wire-input into a command to control the at least one controllable component. at least one controllable component; a fly-by-wire flight control system for driving the at least one controllable component; and a flight control including a linear sensor module having a fixed housing , a piston movable within the housing in response to a pilot input, at least one biasing mechanism configured to cooperate with the piston to return the piston to a neutral position after the piston is moved in response to receipt of the pilot input, and a fly-by-wire input mounted to the piston to sense the movement of the piston indicative of the pilot input, a linear sensor module having a fixed housing , a piston movable within the housing in response to a pilot input, at least one biasing mechanism configured to cooperate with the piston to return the piston to a neutral position after the piston is moved in response to receipt of the pilot input, and a fly-by-wire input mounted to the piston to sense the movement of the piston indicative of the pilot input, wherein the flight control is in communication with the fly-by-wire flight control system that converts the fly-by-wire-input into a command to control the at least one controllable component.
A transport chiller comprising: a compressor that compresses a refrigerant for cooling a transport container provided on a vehicle ; a frame ; the frame 14 includes a lower wall member 14a that has an upper surface which is a horizontal surface and a vertical wall member 14b that is connected to the lower wall member 14a and is erected upward; a lower anti-vibration support member that supports a part below a centroid (G) of the compressor with respect to the frame and has a lower elastic body that is a rubber vibration isolator; and an upper anti-vibration support member that supports a part above the centroid (G) of the compressor with respect to the frame and has an upper elastic body that is a rubber vibration isolator, wherein a spring constant of the upper elastic body is larger than a spring constant of the lower elastic body. a compressor that compresses a refrigerant for cooling a transport container provided on a vehicle ; a frame ; the frame 14 includes a lower wall member 14a that has an upper surface which is a horizontal surface and a vertical wall member 14b that is connected to the lower wall member 14a and is erected upward; a lower anti-vibration support member that supports a part below a centroid (G) of the compressor with respect to the frame and has a lower elastic body that is a rubber vibration isolator; and an upper anti-vibration support member that supports a part above the centroid (G) of the compressor with respect to the frame and has an upper elastic body that is a rubber vibration isolator, wherein a spring constant of the upper elastic body is larger than a spring constant of the lower elastic body.
An audio signal rendering method comprising: receiving multichannel signals including a height input channel signal, a horizontal input channel signal, and flag information; obtaining a first downmix matrix for three-dimensional rendering over an output layout; obtaining a second downmix matrix for two-dimensional rendering over the output layout; and rendering the multichannel signals including the height input channel signal and the horizontal input channel signal, using at least one of the first downmix matrix or the second downmix matrix, so as to provide a sound image having a sense of elevation via a plurality of output channel signals according to the output layout, wherein the output layout is 5.1 channel format, wherein a power of the rendered multichannel signals is preserved, wherein the first downmix matrix and the second downmix matrix are for different elevation rendering for the height input channel signal, and the multichannel signals include a first frame which has an applause sound characteristic or a second frame which has a general sound characteristic, wherein the first frame is rendered using the second downmix matrix in case that the flag information of the first frame indicates the applause sound characteristic, and wherein the second frame is rendered using the first downmix matrix in case that the flag information of the second frame indicates the general sound characteristic. receiving multichannel signals including a height input channel signal, a horizontal input channel signal, and flag information; obtaining a first downmix matrix for three-dimensional rendering over an output layout; obtaining a second downmix matrix for two-dimensional rendering over the output layout; and rendering the multichannel signals including the height input channel signal and the horizontal input channel signal, using at least one of the first downmix matrix or the second downmix matrix, so as to provide a sound image having a sense of elevation via a plurality of output channel signals according to the output layout, wherein the output layout is 5.1 channel format, wherein a power of the rendered multichannel signals is preserved, wherein the first downmix matrix and the second downmix matrix are for different elevation rendering for the height input channel signal, and the multichannel signals include a first frame which has an applause sound characteristic or a second frame which has a general sound characteristic, wherein the first frame is rendered using the second downmix matrix in case that the flag information of the first frame indicates the applause sound characteristic, and wherein the second frame is rendered using the first downmix matrix in case that the flag information of the second frame indicates the general sound characteristic.
A method for authenticating a component subsystem installable in a host device, comprising: the component subsystem performing the steps of: receiving, from the host device, a test voltage value at the component subsystem; applying an input voltage to a test cell, wherein the input voltage is generated based on the test voltage value by the component subsystem; reading a response voltage from the test cell, wherein the response voltage results from the input voltage applied to the test cell; and outputting the response voltage from the component subsystem to the host device; the method further comprising a host controller in the host device performing the step of comparing the response voltage to an expected output voltage based on the test voltage value for authenticating the component subsystem. receiving, from the host device, a test voltage value at the component subsystem; applying an input voltage to a test cell, wherein the input voltage is generated based on the test voltage value by the component subsystem; reading a response voltage from the test cell, wherein the response voltage results from the input voltage applied to the test cell; and outputting the response voltage from the component subsystem to the host device; the method further comprising a host controller in the host device performing the step of comparing the response voltage to an expected output voltage based on the test voltage value for authenticating the component subsystem.
A rotatory compressor comprising a lubricating oil in an interior of a hermetically sealed housing , and an electric motor and a rotatory compressing mechanism disposed in the housing, wherein an internal pressure of the housing is equal to a suction pressure of the compressing mechanism, and the compressing mechanism comprises: an air cylinder defining a compressing chamber and a sliding vane chamber therein; a piston disposed within the compressing chamber; an eccentric shaft adapted to revolute the piston; a sliding vane disposed in the sliding vane chamber and adapted to reciprocate synchronously with the piston; and a first bearing and a second bearing slidably supporting the eccentric shaft and connected with the sliding vane chamber, wherein an exhaust muffler is within one of the first bearing and the second bearing, and characterised in that an exhaust pipe is connected with the other of the first bearing and the second bearing, the exhaust muffler is communicated with the sliding vane chamber, the exhaust pipe is communicated with the sliding vane chamber, and the compressing chamber is capable of being communicated with the exhaust muffler, such that a refrigerant entering the exhaust muffler from the compressing chamber is adapted to flow through the sliding vane chamber and to be discharged from the exhaust pipe of the compressing mechanism. an air cylinder defining a compressing chamber and a sliding vane chamber therein; a piston disposed within the compressing chamber; an eccentric shaft adapted to revolute the piston; a sliding vane disposed in the sliding vane chamber and adapted to reciprocate synchronously with the piston; and a first bearing and a second bearing slidably supporting the eccentric shaft and connected with the sliding vane chamber, wherein an exhaust muffler is within one of the first bearing and the second bearing, and characterised in that an exhaust pipe is connected with the other of the first bearing and the second bearing, the exhaust muffler is communicated with the sliding vane chamber, the exhaust pipe is communicated with the sliding vane chamber, and the compressing chamber is capable of being communicated with the exhaust muffler, such that a refrigerant entering the exhaust muffler from the compressing chamber is adapted to flow through the sliding vane chamber and to be discharged from the exhaust pipe of the compressing mechanism.
A method of testing a motor of a robot arm for a fault during a start-up procedure of the robot arm , the robot arm comprising a first link connected to a second link by a joint , the joint permitting the second link to move relative to the first link , the motor for driving the joint , the motor being a multiple-phase motor , each phase of the motor comprising a motor winding and a motor drive circuit for applying power to the motor winding from a power supply rail and for applying drive signals to the motor winding , characterised in that the method comprises, in the following order: (i) driving the motor to a first known state; (ii) connecting a first phase only of the motor to the power supply rail ; (iii) driving a Pulse Width Modulation PWM signal through the motor drive circuit of the first phase of the motor ; (iv) driving the motor to a second known state, wherein the first known state is the same as the second known state, or the first known state is different to the second known state; (v) with the first phase of the motor disconnected from the power supply rail , driving the PWM signal through the motor drive circuit of the first phase of the motor ; and (vi) repeating steps (ii) to (v) for each of the other phases of the motor ; the method further comprising, during each of steps (i) to (vi), testing whether the current from the power supply rail to the motor drive circuit exceeds a current limit. (i) driving the motor to a first known state; (ii) connecting a first phase only of the motor to the power supply rail ; (iii) driving a Pulse Width Modulation PWM signal through the motor drive circuit of the first phase of the motor ; (iv) driving the motor to a second known state, wherein the first known state is the same as the second known state, or the first known state is different to the second known state; (v) with the first phase of the motor disconnected from the power supply rail , driving the PWM signal through the motor drive circuit of the first phase of the motor ; and (vi) repeating steps (ii) to (v) for each of the other phases of the motor ;
A system comprising a brushless DC, BLDC, electric motor for a propeller engine and a motor controller , the motor comprising: a rotor including one or more permanent magnets and one or more alternator windings ; and a stator including one or more stator windings , wherein the controller is configured to apply a first, transient DC voltage to the windings of the stator , wherein the first, transient DC voltage is configured to provide commutation switching for the windings of the stator so as to generate a torque on the rotor , characterised in that the controller is further configured to apply a second, static DC voltage to the windings of the stator , wherein the second, static DC voltage is configured to induce an electric current in the alternator windings so as to generate an AC voltage in the alternator windings . a rotor including one or more permanent magnets and one or more alternator windings ; and a stator including one or more stator windings , wherein the controller is configured to apply a first, transient DC voltage to the windings of the stator , wherein the first, transient DC voltage is configured to provide commutation switching for the windings of the stator so as to generate a torque on the rotor , characterised in that the controller is further configured to apply a second, static DC voltage to the windings of the stator , wherein the second, static DC voltage is configured to induce an electric current in the alternator windings so as to generate an AC voltage in the alternator windings .
A reset mechanism for a key duplication device comprising a reset apparatus , a spindle and a body , wherein the spindle is inserted into the body and is rotatably connected to the body , wherein the body is repeatedly moveable along the spindle , between a workspace and a loading area, wherein the reset apparatus comprises an elastic member connected with the body , characterised in that , the elastic member is a torsion spring mounted on the spindle, wherein a first torsion arm of the torsion spring is connected with the body which always moves towards the workspace, and wherein the second torsion arm is fixed relatively to the spindle , and the mechanism comprises a self-locking assembly, wherein the self-locking assembly comprises a first wedge and a second wedge , wherein the first wedge is fixedly arranged on the spindle and the second wedge is arranged on the reset apparatus , wherein the first wedge and the second wedge prevent movement of the body that is confined in the loading area, wherein the reset apparatus is provided with a drive part whose one end is near the first wedge , wherein when the drive part is pulled out, the drive part causes the second wedge move away to be freed from the first wedge , wherein a position of the body is automatically reset and the body returns to the workspace due to an action of the elastic member. wherein the reset apparatus comprises an elastic member connected with the body , characterised in that , the elastic member is a torsion spring mounted on the spindle, wherein a first torsion arm of the torsion spring is connected with the body which always moves towards the workspace, and wherein the second torsion arm is fixed relatively to the spindle , and the mechanism comprises a self-locking assembly, wherein the self-locking assembly comprises a first wedge and a second wedge , wherein the first wedge is fixedly arranged on the spindle and the second wedge is arranged on the reset apparatus , wherein the first wedge and the second wedge prevent movement of the body that is confined in the loading area, wherein the reset apparatus is provided with a drive part whose one end is near the first wedge , wherein when the drive part is pulled out, the drive part causes the second wedge move away to be freed from the first wedge , wherein a position of the body is automatically reset and the body returns to the workspace due to an action of the elastic member.
A process for deep conversion of a heavy hydrocarbon feed, comprising the following steps: a) ebullated bed hydroconversion of the feed, in the presence of hydrogen, in a hydroconversion section comprising at least one three-phase reactor containing at least one supported hydroconversion catalyst, b) atmospheric fractionation of at least a portion of the hydroconverted liquid effluent obtained from step a) in an atmospheric fractionation section in order to produce a fraction comprising a gasoline cut and a gas oil cut, and an atmospheric residue; c) vacuum fractionation of at least a portion of the atmospheric residue obtained from step b) in a vacuum fractionation section in order to obtain a vacuum gas oil fraction comprising light vacuum distillates (LVGO) and heavy vacuum distillates (HVGO) and an unconverted vacuum residue fraction, d) deasphalting at least a portion of the unconverted vacuum residue fraction obtained from step c) in a deasphalting section only by means of a paraffinic solvent under conditions for obtaining a hydrocarbon cut depleted in asphaltenes, termed deasphalted oil, and residual asphalt, e) liquid/liquid extraction carried out on the hydrocarbon cut depleted in asphaltenes in a section for the extraction of aromatics by means of a polar solvent under conditions for extracting aromatics in order to produce an extract enriched in aromatics and resins and a raffinate depleted in aromatics and resins, at least a portion of the extract being sent to the inlet to the hydroconversion section as an aromatic diluent. a) ebullated bed hydroconversion of the feed, in the presence of hydrogen, in a hydroconversion section comprising at least one three-phase reactor containing at least one supported hydroconversion catalyst, b) atmospheric fractionation of at least a portion of the hydroconverted liquid effluent obtained from step a) in an atmospheric fractionation section in order to produce a fraction comprising a gasoline cut and a gas oil cut, and an atmospheric residue; c) vacuum fractionation of at least a portion of the atmospheric residue obtained from step b) in a vacuum fractionation section in order to obtain a vacuum gas oil fraction comprising light vacuum distillates (LVGO) and heavy vacuum distillates (HVGO) and an unconverted vacuum residue fraction, d) deasphalting at least a portion of the unconverted vacuum residue fraction obtained from step c) in a deasphalting section only by means of a paraffinic solvent under conditions for obtaining a hydrocarbon cut depleted in asphaltenes, termed deasphalted oil, and residual asphalt, e) liquid/liquid extraction carried out on the hydrocarbon cut depleted in asphaltenes in a section for the extraction of aromatics by means of a polar solvent under conditions for extracting aromatics in order to produce an extract enriched in aromatics and resins and a raffinate depleted in aromatics and resins, at least a portion of the extract being sent to the inlet to the hydroconversion section as an aromatic diluent.
A top patch configured to be attached to an energy-storage apparatus , wherein the top patch defines a first pole through-hole and a first elongated hole in a length direction of the top patch , the first elongated hole comprises two side walls arranged opposite to each other in a width direction of the top patch , and each of the two side walls is provided with an extension bump ; the first elongated hole on one side of the extension bump forms a first explosion-proof valve through-hole , and the first elongated hole on the other side of the extension bump forms a second pole through-hole ; the first pole through-hole is spaced apart from the first elongated hole ; and a connecting through-hole is defined between two extension bumps , the connecting through-hole is located between the second pole through-hole and the first explosion-proof valve through-hole , and the connecting through-hole communicates with the second pole through-hole and the first explosion-proof valve through-hole .
A packaged catheter equipped with a dispensing device, comprising: (a) packaging defining a product retention chamber , (b) a catheter defining a longitudinal axis retained within the product retention chamber , and (c) a pair of separately translatable movement control devices , each configured to operably engage the catheter for permitting unidirectional movement of the catheter in a first axial direction relative to the movement control devices , wherein each movement control device is configured to slide along the longitudinal length of the catheter in a second axial direction (69 X2 ) coupled with an inability to slide along the longitudinal length of the catheter in the opposite first axial direction along the longitudinal length of the catheter . (a) packaging defining a product retention chamber , (b) a catheter defining a longitudinal axis retained within the product retention chamber , and (c) a pair of separately translatable movement control devices , each configured to operably engage the catheter for permitting unidirectional movement of the catheter in a first axial direction relative to the movement control devices , wherein each movement control device is configured to slide along the longitudinal length of the catheter in a second axial direction (69 X2 ) coupled with an inability to slide along the longitudinal length of the catheter in the opposite first axial direction along the longitudinal length of the catheter .
A shoulder module for an exoskeleton structure, the shoulder module being designed to connect an elbow module attached to an arm of a user to a back module attached to the back of the user, the shoulder module comprising: - a plurality of connecting parts , and - a first pivot connecting two of the connecting parts while allowing rotation of one of the connecting parts with respect to the other connecting part according to a first axis of rotation (X 1 ), during a rotation of the elbow module with respect to the back module , corresponding to an abduction or adduction movement of the shoulder of the user, wherein the connecting parts include a first connecting part comprising two parts mounted sliding with respect to one another by means of a first slideway , characterized in that the sliding of the parts with respect to one another allows shortening of the first connecting part during rotation of the elbow module with respect to the back module caused by an abduction movement of the shoulder of the user and allows lengthening of the first connecting part during rotation of the elbow module with respect to the back module caused by an adduction movement of the shoulder of the user, and characterized in that the first slideway comprises an elastic return element tending to oppose a separation of the parts with respect to one another leading to a lengthening of the first connecting part . - a plurality of connecting parts , and - a first pivot connecting two of the connecting parts while allowing rotation of one of the connecting parts with respect to the other connecting part according to a first axis of rotation (X 1 ), during a rotation of the elbow module with respect to the back module , corresponding to an abduction or adduction movement of the shoulder of the user,