mhurhangee/patent-ind-claim-en huggingface dataset:
A resilient seal for living quarters having main living area walls defining a main living area , an aperture in one of said main living area walls slidably receiving a slide out room having slide out room walls defining auxiliary living space, said one main living area wall having an outside surface , an inside surface , and a transverse surface extending between said inside and said outside surfaces , said transverse surface defining said aperture, said resilient seal comprising: an attachment member adapted to extend along said one main living area wall adjacent to said aperture ; said attachment member having a groove connector having a pair of upstanding walls extending from and substantially perpendicular to said attachment member; said attachment member having a bulb portion integrally attached to one of said upstanding walls by an offsetting member spacing said bulb portion from said attachment member, said bulb portion including an inner wall and an arcuate outer portion ; characterized in that each said upstanding wall terminates in a corresponding overhanging wall being substantially parallel to and spaced from said attachment member and forming an L-shaped tab , said L-shaped tabs cooperating to form said groove; and in that said bulb portion is hingeably moveable about said offsetting member between a resting position locating said inner wall relatively near said L-shaped tabs and a bent position wherein said inner wall is located relatively far from said L-shaped tabs , said bulb portion overlaying said groove connector in said resting position. an attachment member adapted to extend along said one main living area wall adjacent to said aperture ; said attachment member having a groove connector having a pair of upstanding walls extending from and substantially perpendicular to said attachment member; said attachment member having a bulb portion integrally attached to one of said upstanding walls by an offsetting member spacing said bulb portion from said attachment member, said bulb portion including an inner wall and an arcuate outer portion ;
A control arm for a robotic surgical system , the control arm comprising: a base ; a swivel member rotatably supported on the base about a first axis of rotation (A 1 ); a vertical member pivotally supported on the swivel member about a second axis of rotation (A 2 ); a horizontal member pivotally supported by the vertical member about a third axis of rotation (A 3 ); and a drive mechanism disposed on the base to independently rotate the swivel member about the first axis of rotation, pivot the vertical member about the second axis of rotation, and pivot the horizontal member about the third axis of rotation, wherein the drive mechanism includes: a first drive motor ; a rotation shaft disposed about the first axis of rotation and rotatably fixed to the swivel member; and a rotation flange including a cylindrical member disposed about the first axis of rotation and rotatably fixed to the rotation shaft, the cylindrical member operably coupled to the first drive motor to affect rotation of the swivel member about the first axis of rotation; characterised in that the rotation of the rotation flange is limited by stops that extend from a lower surface of the base. a base ; a swivel member rotatably supported on the base about a first axis of rotation (A 1 ); a vertical member pivotally supported on the swivel member about a second axis of rotation (A 2 ); a horizontal member pivotally supported by the vertical member about a third axis of rotation (A 3 ); and a drive mechanism disposed on the base to independently rotate the swivel member about the first axis of rotation, pivot the vertical member about the second axis of rotation, and pivot the horizontal member about the third axis of rotation, wherein the drive mechanism includes: a first drive motor ; a rotation shaft disposed about the first axis of rotation and rotatably fixed to the swivel member; and a rotation flange including a cylindrical member disposed about the first axis of rotation and rotatably fixed to the rotation shaft, the cylindrical member operably coupled to the first drive motor to affect rotation of the swivel member about the first axis of rotation; characterised in that the rotation of the rotation flange is limited by stops that extend from a lower surface of the base. a first drive motor ; a rotation shaft disposed about the first axis of rotation and rotatably fixed to the swivel member; and a rotation flange including a cylindrical member disposed about the first axis of rotation and rotatably fixed to the rotation shaft, the cylindrical member operably coupled to the first drive motor to affect rotation of the swivel member about the first axis of rotation; characterised in that the rotation of the rotation flange is limited by stops that extend from a lower surface of the base.
An inverter apparatus, wherein the inverter apparatus comprises an inverter circuit and a control unit, the inverter circuit is configured to convert a direct current into two or more levels, and the control unit is configured to: obtain an output voltage and an output current of the inverter circuit, wherein the output voltage comprises an output voltage direction and an output voltage amplitude, and the output current comprises an output current direction and an output current amplitude; detect, based on the output voltage direction and the output current direction, whether output power of the inverter circuit is active power or reactive power; and when the inverter circuit outputs reactive power and the output current amplitude of the reactive power is greater than a current threshold, control the inverter circuit in a full-bridge two-level bipolar control mode; characterised in that : when the inverter circuit outputs active power, or when the inverter circuit outputs reactive power and the output current amplitude is not greater than a current threshold, control the inverter circuit in a three-level control mode. obtain an output voltage and an output current of the inverter circuit, wherein the output voltage comprises an output voltage direction and an output voltage amplitude, and the output current comprises an output current direction and an output current amplitude; detect, based on the output voltage direction and the output current direction, whether output power of the inverter circuit is active power or reactive power; and when the inverter circuit outputs reactive power and the output current amplitude of the reactive power is greater than a current threshold, control the inverter circuit in a full-bridge two-level bipolar control mode; characterised in that : when the inverter circuit outputs active power, or when the inverter circuit outputs reactive power and the output current amplitude is not greater than a current threshold, control the inverter circuit in a three-level control mode.
A processor implemented method for adjusting the position of a steered wheel of a vehicle comprising: detecting , by a processor , a steering position value of a steering control device of a vehicle such that the steering position value corresponds to an angular position of the steering control device; calculating , by the processor , a traction speed breakpoint at or above which steering desensitization may occur; defining , by the processor , a maximum commencement steer angle at or below which steering desensitization may commence; determining , by the processor , if the angular position of the steering control device or an angular position of the steered wheel is equal to or less than the maximum commencement steer angle; detecting , by the processor , a traction speed of one of a traction motor or a traction wheel of the vehicle ; determining , by the processor , if the traction speed is equal to or above the traction speed breakpoint; calculating , by the processor , a steering desensitization value when the angular position of one of the steering control device or the steered wheel is equal to or less than the maximum commencement steer angle and the traction speed is equal to or above the traction speed breakpoint; calculating , by the processor , a wheel angle setpoint based on the calculated steering desensitization value and the angular position of the steering control device; and adjusting a position of the steered wheel of the vehicle based on the calculated wheel angle setpoint. detecting , by a processor , a steering position value of a steering control device of a vehicle such that the steering position value corresponds to an angular position of the steering control device; calculating , by the processor , a traction speed breakpoint at or above which steering desensitization may occur; defining , by the processor , a maximum commencement steer angle at or below which steering desensitization may commence; determining , by the processor , if the angular position of the steering control device or an angular position of the steered wheel is equal to or less than the maximum commencement steer angle; detecting , by the processor , a traction speed of one of a traction motor or a traction wheel of the vehicle ; determining , by the processor , if the traction speed is equal to or above the traction speed breakpoint; calculating , by the processor , a steering desensitization value when the angular position of one of the steering control device or the steered wheel is equal to or less than the maximum commencement steer angle and the traction speed is equal to or above the traction speed breakpoint; calculating , by the processor , a wheel angle setpoint based on the calculated steering desensitization value and the angular position of the steering control device; and adjusting a position of the steered wheel of the vehicle based on the calculated wheel angle setpoint.
A production method for a dicyanocyclohexane compound, the method comprising: bringing a phthalic acid compound in an aqueous ammonia solution into contact with hydrogen in the presence of a fixed bed catalyst in a reactor thereby obtaining an aqueous ammonia solution of a cyclohexanedicarboxylic acid compound; heat concentrating said aqueous ammonia solution to obtain a heated concentrate of the aqueous ammonia solution of the cyclohexanedicarboxylic acid compound; and subjecting the heated concentrate to a cyanation reaction thereby obtaining the dicyanocyclohexane compound, wherein the cyclohexanedicarboxylic acid compound includes cyclohexanedicarboxylic acid and a derivative thereof which is an ammonium salt of cyclohexanedicarboxylic acid or carboxamidocyclohexanecarboxylic acid, the phthalic acid compound includes phthalic acid, phthalic anhydride, isophthalic acid and terephthalic acid, as well as an ammonium salt thereof, the dicyanocyclohexane compound is dicyano-cyclohexane. bringing a phthalic acid compound in an aqueous ammonia solution into contact with hydrogen in the presence of a fixed bed catalyst in a reactor thereby obtaining an aqueous ammonia solution of a cyclohexanedicarboxylic acid compound; heat concentrating said aqueous ammonia solution to obtain a heated concentrate of the aqueous ammonia solution of the cyclohexanedicarboxylic acid compound; and subjecting the heated concentrate to a cyanation reaction thereby obtaining the dicyanocyclohexane compound, wherein the cyclohexanedicarboxylic acid compound includes cyclohexanedicarboxylic acid and a derivative thereof which is an ammonium salt of cyclohexanedicarboxylic acid or carboxamidocyclohexanecarboxylic acid, the phthalic acid compound includes phthalic acid, phthalic anhydride, isophthalic acid and terephthalic acid, as well as an ammonium salt thereof, the dicyanocyclohexane compound is dicyano-cyclohexane.
A method of analyzing a product to determine the degree of freezing of the product, comprising: (a) providing a correlation of the degree of freezing of a product having the composition of the product that is to be analyzed, that is conductive, correlated with the phase angle exhibited by a product having the composition of the product that is to be analyzed, at two or more different degrees of freezing, wherein the phase angle exhibited by a given product is a function of the reactive signal of the given product and the resistive signal of the given product measured in an electromagnetic field of a given strength and frequency applied to the given product; (b) applying an electromagnetic field of said given strength and frequency to the product being analyzed, measuring the reactive signal and the resistive signal exhibited by the product being analyzed in said electromagnetic field at said given strength and frequency, and determining the phase angle exhibited by the product being analyzed from the measured reactive signal and resistive signal of the product being analyzed; and (c) determining the degree of freezing of the product being analyzed from the phase angle determined in step (b) in accordance with said correlation. (a) providing a correlation of the degree of freezing of a product having the composition of the product that is to be analyzed, that is conductive, correlated with the phase angle exhibited by a product having the composition of the product that is to be analyzed, at two or more different degrees of freezing, wherein the phase angle exhibited by a given product is a function of the reactive signal of the given product and the resistive signal of the given product measured in an electromagnetic field of a given strength and frequency applied to the given product; (b) applying an electromagnetic field of said given strength and frequency to the product being analyzed, measuring the reactive signal and the resistive signal exhibited by the product being analyzed in said electromagnetic field at said given strength and frequency, and determining the phase angle exhibited by the product being analyzed from the measured reactive signal and resistive signal of the product being analyzed; and (c) determining the degree of freezing of the product being analyzed from the phase angle determined in step (b) in accordance with said correlation.
A method for wireless communication performed by a user equipment, UE comprising: receiving , from a base station serving the UE , a first type of reference signal and a second type of reference signal, wherein the first type of reference signal is different from the second type of reference signal; receiving , from the base station , a radio link monitoring, RLM, configuration comprising a first signal quality threshold and an indicator that the UE is to apply, in an RLM function, the first signal quality threshold to both of the first type of reference signal and the second type of reference signal; determining a first signal quality of the first type of reference signal and a second signal quality of the second type of reference signal; determining that the UE is out-of-sync for communication with the base station when both the first signal quality and the second signal quality are below the first signal quality threshold; and recovering communication with the base station based at least in part on the determination that the UE is out-of-sync. receiving , from a base station serving the UE , a first type of reference signal and a second type of reference signal, wherein the first type of reference signal is different from the second type of reference signal; receiving , from the base station , a radio link monitoring, RLM, configuration comprising a first signal quality threshold and an indicator that the UE is to apply, in an RLM function, the first signal quality threshold to both of the first type of reference signal and the second type of reference signal; determining a first signal quality of the first type of reference signal and a second signal quality of the second type of reference signal; determining that the UE is out-of-sync for communication with the base station when both the first signal quality and the second signal quality are below the first signal quality threshold; and recovering communication with the base station based at least in part on the determination that the UE is out-of-sync.
Assembly of a driver and a switch in a GIS (Gas Insulation Switchgear), the driver comprising: a motor ; a shaft driven by the motor being connected with a moving contact of the switch ; a gear being connected with one end portion of the shaft and configured to transfer power of the motor to cause the shaft to reciprocate the moving contact through the shaft ; a cam spline being combined with the shaft and being space apart from the gear ; a micro-switch being connected with the cam spline and configured to control an operation of the motor ; characterised in that the micro-switch is located outside an enclosure enclosing the switch . a motor ; a shaft driven by the motor being connected with a moving contact of the switch ; a gear being connected with one end portion of the shaft and configured to transfer power of the motor to cause the shaft to reciprocate the moving contact through the shaft ; a cam spline being combined with the shaft and being space apart from the gear ; a micro-switch being connected with the cam spline and configured to control an operation of the motor ; characterised in that the micro-switch is located outside an enclosure enclosing the switch .
An electric motor comprising: - a frame defining an inner volume; - a rotor and a stator , the rotor and the stator being housed in the inner volume; - at least one primary cooling circuit crossing the stator , the primary circuit comprising a primary inlet and a primary outlet , each in fluidic communication with the outside of the motor , the primary inlet being adapted for receiving an external fluid (FE) coming from the outside, the external fluid (FE) being intended to circulate in the primary circuit and to emerge through the primary outlet ; - at least one cooling device outside the frame , the cooling device comprising a secondary inlet , a secondary outlet and at least one secondary conduit , the secondary inlet and the secondary outlet being in fluidic communication with the inner volume, the secondary conduit being adapted for connecting the secondary inlet and the secondary outlet and extending at least partly on the outside of the frame , and - at least one secondary cooling circuit separated from the primary circuit , the secondary circuit crossing the rotor and being in fluidic communication with the secondary inlet and the secondary outlet of the cooling device , an internal fluid (FI) being intended to circulate in the secondary circuit and in the cooling device , the motor further comprising a channel delimiting an internal space, the channel extending between an internal wall of the cooling device and an external wall of the stator , the primary circuit comprising a deviation, connected to the primary inlet , so as to supply the channel from a fraction of the external fluid (FE) received by the primary inlet . - a frame defining an inner volume; - a rotor and a stator , the rotor and the stator being housed in the inner volume; - at least one primary cooling circuit crossing the stator , the primary circuit comprising a primary inlet and a primary outlet , each in fluidic communication with the outside of the motor , the primary inlet being adapted for receiving an external fluid (FE) coming from the outside, the external fluid (FE) being intended to circulate in the primary circuit and to emerge through the primary outlet ; - at least one cooling device outside the frame , the cooling device comprising a secondary inlet , a secondary outlet and at least one secondary conduit , the secondary inlet and the secondary outlet being in fluidic communication with the inner volume, the secondary conduit being adapted for connecting the secondary inlet and the secondary outlet and extending at least partly on the outside of the frame , and - at least one secondary cooling circuit separated from the primary circuit , the secondary circuit crossing the rotor and being in fluidic communication with the secondary inlet and the secondary outlet of the cooling device , an internal fluid (FI) being intended to circulate in the secondary circuit and in the cooling device ,
A silencer unit for a heat recovery ventilation (HRV) unit for providing supply air, preferably outside air (fresh air), to an apartment or parts thereof and for removing return air, preferably exhaust air (used air), from said apartment or parts thereof, the heat recovery ventilation unit comprising: a supply air outlet for establishing supply air flow communication with said apartment; a return air inlet for establishing return air flow communication with said apartment; an exhaust air outlet for establishing exhaust air flow communication with the atmosphere; an outside air inlet for establishing outside air flow communication with the atmosphere, wherein the silencer unit is be connected to air inlets and air outlets of the heat recovery ventilation unit, wherein the silencer unit comprises separate silencer ducts to be connected to said supply air outlet, return air inlet, exhaust air outlet and outside air inlet, respectively, of the heat recovery ventilation unit, characterized in that the silencer ducts to be connected to the supply air outlet and the return air inlet of the HRV unit have a rectangular cross section along their entire duct length. a supply air outlet for establishing supply air flow communication with said apartment; a return air inlet for establishing return air flow communication with said apartment; an exhaust air outlet for establishing exhaust air flow communication with the atmosphere; an outside air inlet for establishing outside air flow communication with the atmosphere, wherein the silencer unit is be connected to air inlets and air outlets of the heat recovery ventilation unit, wherein the silencer unit comprises separate silencer ducts to be connected to said supply air outlet, return air inlet, exhaust air outlet and outside air inlet, respectively, of the heat recovery ventilation unit, characterized in that the silencer ducts to be connected to the supply air outlet and the return air inlet of the HRV unit have a rectangular cross section along their entire duct length.