mhurhangee/patent-ind-claim-en huggingface dataset:
An aircraft windshield wiper control system , characterized in that it comprises: an aircraft weather radar system that detects precipitation in a travel path of an aircraft ; and a wiper control module that receives information from the aircraft weather radar system , generates a wiper control signal based on the received information, and controls operation of a motor drive of a wiper on the aircraft . an aircraft weather radar system that detects precipitation in a travel path of an aircraft ; and a wiper control module that receives information from the aircraft weather radar system , generates a wiper control signal based on the received information, and controls operation of a motor drive of a wiper on the aircraft .
A lamp, comprising a body ; a mounting plate mounted with an electrical assembly and having a clamping member and an end, wherein the end is provided with a first positioning groove ; a clamping plate fixed on the body ; and a positioning member comprising a positioning plate fixed on the body and a knob movable along a vertical direction and rotatable around an axis of the knob , wherein the knob is provided with a first protrusion , and the first protrusion is configured to engage with the first positioning groove and drive the clamping member to abut against the clamping plate . a body ; a mounting plate mounted with an electrical assembly and having a clamping member and an end, wherein the end is provided with a first positioning groove ; a clamping plate fixed on the body ; and a positioning member comprising a positioning plate fixed on the body and a knob movable along a vertical direction and rotatable around an axis of the knob , wherein the knob is provided with a first protrusion , and the first protrusion is configured to engage with the first positioning groove and drive the clamping member to abut against the clamping plate .
A physics package for an optical lattice clock, the physics package comprising: a MOT device that is arranged along a beam axis of an atom beam, and captures an atom population; an optical lattice formation portion that forms an optical lattice using incident optical lattice light, confines the atom population captured by the MOT device in the optical lattice, and moves the atom population to a clock transition space for prompting clock transition along a movement axis perpendicular to the beam axis; and a vacuum chamber that includes a substantially prism-shaped main body that encloses the MOT device and the optical lattice formation portion, wherein a central axis of the vacuum chamber passes through the clock transition space, and is configured substantially parallel with the beam axis. a MOT device that is arranged along a beam axis of an atom beam, and captures an atom population; an optical lattice formation portion that forms an optical lattice using incident optical lattice light, confines the atom population captured by the MOT device in the optical lattice, and moves the atom population to a clock transition space for prompting clock transition along a movement axis perpendicular to the beam axis; and a vacuum chamber that includes a substantially prism-shaped main body that encloses the MOT device and the optical lattice formation portion, wherein a central axis of the vacuum chamber passes through the clock transition space, and is configured substantially parallel with the beam axis.
An audio processing device (ADP) comprising • a multitude of electric input signals (X 1 , ..., X N ), where N>=2, each electric input signal being provided in a digitized (I 1 , ..., I N ) form in a time-frequency representation comprising a number of frequency bands k and a number of time instances m, and • a control unit (CTR; WNR) receiving said digitized electric input signals (I 1 , ..., I N ) and providing a resulting signal (Y(k, m)), wherein the control unit (CTR; WNR) is configured to determine the resulting signal from said digitized electric input signals (I 1 , ..., I N ), or signals derived therefrom, according to a predefined scheme CHARACTERIZED IN THAT the predefined scheme comprises: • a criterion resulting in the selection of the contents of a given time-frequency unit (k, m) of one of the respective electric input signals (X 1 , ..., X N ), or a signal derived therefrom, for being used in the corresponding time-frequency unit ( k , m ) of the resulting signal (Y(k, m)); and • selecting the time frequency units ( k, m ) having the largest signal to noise ratio (SNR). • a multitude of electric input signals (X 1 , ..., X N ), where N>=2, each electric input signal being provided in a digitized (I 1 , ..., I N ) form in a time-frequency representation comprising a number of frequency bands k and a number of time instances m, and • a control unit (CTR; WNR) receiving said digitized electric input signals (I 1 , ..., I N ) and providing a resulting signal (Y(k, m)), wherein the control unit (CTR; WNR) is configured to determine the resulting signal from said digitized electric input signals (I 1 , ..., I N ), or signals derived therefrom, according to a predefined scheme • a criterion resulting in the selection of the contents of a given time-frequency unit (k, m) of one of the respective electric input signals (X 1 , ..., X N ), or a signal derived therefrom, for being used in the corresponding time-frequency unit ( k , m ) of the resulting signal (Y(k, m)); and • selecting the time frequency units ( k, m ) having the largest signal to noise ratio (SNR).
A pump system comprising: a drive motor ; a pump head including a rotor coupled to the drive motor, wherein the pump head is configured to receive tubing; a controller coupled to the drive motor and configured to control a rotation of the drive motor and rotor, wherein rotation of the rotor compresses tubing to move a liquid within the tubing from an inlet to an outlet of the pump head; characterized by : a bubble sensor coupled to the tubing downstream from the outlet, wherein the bubble sensor is configured to send a signal to the controller in response to presence of a gas bubble within the tubing, wherein the controller is configured to: determine a quantity of bubbles detected based on the signal ; determine an alert in response to the quantity of bubbles detected exceeding a threshold ; and stop the drive motor after a safe operating time from the alert , wherein the threshold and the safe operating time are based, at least in part, on a characteristic of the tubing. a drive motor ; a pump head including a rotor coupled to the drive motor, wherein the pump head is configured to receive tubing; a controller coupled to the drive motor and configured to control a rotation of the drive motor and rotor, wherein rotation of the rotor compresses tubing to move a liquid within the tubing from an inlet to an outlet of the pump head; characterized by : a bubble sensor coupled to the tubing downstream from the outlet, wherein the bubble sensor is configured to send a signal to the controller in response to presence of a gas bubble within the tubing, wherein the controller is configured to: determine a quantity of bubbles detected based on the signal ; determine an alert in response to the quantity of bubbles detected exceeding a threshold ; and stop the drive motor after a safe operating time from the alert , wherein the threshold and the safe operating time are based, at least in part, on a characteristic of the tubing. a bubble sensor coupled to the tubing downstream from the outlet, wherein the bubble sensor is configured to send a signal to the controller in response to presence of a gas bubble within the tubing, wherein the controller is configured to: determine a quantity of bubbles detected based on the signal ; determine an alert in response to the quantity of bubbles detected exceeding a threshold ; and stop the drive motor after a safe operating time from the alert , wherein the threshold and the safe operating time are based, at least in part, on a characteristic of the tubing. determine a quantity of bubbles detected based on the signal ; determine an alert in response to the quantity of bubbles detected exceeding a threshold ; and stop the drive motor after a safe operating time from the alert , wherein the threshold and the safe operating time are based, at least in part, on a characteristic of the tubing.
A method of authorizing access to a third party service , comprising: providing, from a mobile device management server to an instance of an application configured to access the third party service a token that includes data comprising or otherwise associated with a device identifier of a device on which the instance of the application is installed, wherein the device on which the instance of the application is installed is configured to send to the third party service a service access authorization request that includes the token ; characterized by the further steps of: receiving at the mobile device management server from the third party service an authorization query that includes the token, wherein the third party service is configured to send the authorization query in response to the service access authorization request; using the received token to determine device information associated with the service access authorization request; and providing from the mobile device management server to the third party service a notification that is based on the determined device information, wherein the third party service is configured to provide service access to the device based on the notification. providing, from a mobile device management server to an instance of an application configured to access the third party service a token that includes data comprising or otherwise associated with a device identifier of a device on which the instance of the application is installed, wherein the device on which the instance of the application is installed is configured to send to the third party service a service access authorization request that includes the token ; characterized by the further steps of: receiving at the mobile device management server from the third party service an authorization query that includes the token, wherein the third party service is configured to send the authorization query in response to the service access authorization request; using the received token to determine device information associated with the service access authorization request; and providing from the mobile device management server to the third party service a notification that is based on the determined device information, wherein the third party service is configured to provide service access to the device based on the notification. receiving at the mobile device management server from the third party service an authorization query that includes the token, wherein the third party service is configured to send the authorization query in response to the service access authorization request; using the received token to determine device information associated with the service access authorization request; and providing from the mobile device management server to the third party service a notification that is based on the determined device information, wherein the third party service is configured to provide service access to the device based on the notification.
Injection molding device comprising a. a mold plate with at least one pocket having at least one discharge opening to discharge melted plastic from said pocket into at least one mold cavity interconnected to said pocket and b. at least one nozzle comprising a housing , which during operation is interconnected to said pocket , and per discharge opening a needle arranged displaceable in an axial direction (z) in said housing in a needle bore between i. a closed position in which the needle closes the thereto related discharge opening thereby preventing melted plastic from flowing from the pocket into the at least one mold cavity , and ii. an open position in which the needle releases the discharge opening such that melted plastic flows from the pocket into the at least one mold cavity ; and c. a melt channel discharging into the pocket to supply melted plastic into the pocket , wherein d. the melt channel supplies the melted plastic into the pocket independently of the needle arranged in the needle bore , characterized in that, e. the nozzle comprises more than one needle and the melt channel is oriented centralized between the needles in the housing . a. a mold plate with at least one pocket having at least one discharge opening to discharge melted plastic from said pocket into at least one mold cavity interconnected to said pocket and b. at least one nozzle comprising a housing , which during operation is interconnected to said pocket , and per discharge opening a needle arranged displaceable in an axial direction (z) in said housing in a needle bore between i. a closed position in which the needle closes the thereto related discharge opening thereby preventing melted plastic from flowing from the pocket into the at least one mold cavity , and ii. an open position in which the needle releases the discharge opening such that melted plastic flows from the pocket into the at least one mold cavity ; and i. a closed position in which the needle closes the thereto related discharge opening thereby preventing melted plastic from flowing from the pocket into the at least one mold cavity , and ii. an open position in which the needle releases the discharge opening such that melted plastic flows from the pocket into the at least one mold cavity ; and c. a melt channel discharging into the pocket to supply melted plastic into the pocket , wherein d. the melt channel supplies the melted plastic into the pocket independently of the needle arranged in the needle bore , characterized in that, e. the nozzle comprises more than one needle and the melt channel is oriented centralized between the needles in the housing .
A needle-free injection device having a syringe end , the needle-free injection device comprising: an injector tube ; a compressible main spring which can be selectively compressed to place the needle-free injection device in an armed configuration, the main spring being positioned within the injector tube ; a hammer , the hammer being positioned within the injector tube ; an upper handle pivotally attached to the needle-free injection device such that the upper handle pivots between an open and a closed position; a return sleeve engaged with the main spring ; and an upper linkage engaged with the upper handle and the return sleeve , wherein the upper linkage causes the return sleeve to move away from the syringe end, causing the main spring to be compressed into the armed configuration, when the upper handle is moved from the open to the closed position, characterized in that the return sleeve is positioned outside of the injector tube , and the needle-free injection device further comprises a return spring biasing the return sleeve toward the syringe end of the needle-free injection device . an injector tube ; a compressible main spring which can be selectively compressed to place the needle-free injection device in an armed configuration, the main spring being positioned within the injector tube ; a hammer , the hammer being positioned within the injector tube ; an upper handle pivotally attached to the needle-free injection device such that the upper handle pivots between an open and a closed position; a return sleeve engaged with the main spring ; and an upper linkage engaged with the upper handle and the return sleeve , wherein the upper linkage causes the return sleeve to move away from the syringe end, causing the main spring to be compressed into the armed configuration, when the upper handle is moved from the open to the closed position, characterized in that the return sleeve is positioned outside of the injector tube , and the needle-free injection device further comprises a return spring biasing the return sleeve toward the syringe end of the needle-free injection device .
An apparatus for investigating naphtha reforming, the apparatus comprising: a plurality of reactors arranged in parallel with reaction chambers (R1, R2, ···), the individual reactors having a catalyst capacity in the range from 0.5 to 200 ccm, a reactant fluid supply common to two or more of these reactors, a process control, an analysis unit, where each individual reactor is equipped with an individually controllable heating device and has an outlet line for product fluid stream, wherein the analysis unit is operatively connected to each said outlet line for product stream, and wherein the analysis unit is functionally associated with the control of the apparatus, where the analysis unit is suitable for analyzing a gaseous product fluid stream, and the analysis unit together with the process control allow the determination and optimization of an octane number in the reactors arranged in parallel, where the analysis unit is a gas chromatograph or the gaseous product fluid stream is characterized by means of IR spectroscopy, and where the temperature of the controllable heating device of the respective reactor from whose outlet line the product fluid stream was analyzed can be adapted. a plurality of reactors arranged in parallel with reaction chambers (R1, R2, ···), the individual reactors having a catalyst capacity in the range from 0.5 to 200 ccm, a reactant fluid supply common to two or more of these reactors, a process control, an analysis unit, where each individual reactor is equipped with an individually controllable heating device and has an outlet line for product fluid stream, wherein the analysis unit is operatively connected to each said outlet line for product stream, and wherein the analysis unit is functionally associated with the control of the apparatus, where the analysis unit is suitable for analyzing a gaseous product fluid stream, and the analysis unit together with the process control allow the determination and optimization of an octane number in the reactors arranged in parallel, where the analysis unit is a gas chromatograph or the gaseous product fluid stream is characterized by means of IR spectroscopy, and where the temperature of the controllable heating device of the respective reactor from whose outlet line the product fluid stream was analyzed can be adapted.
A pin for use in a process for honing a seat of a nozzle body tip; the pin comprising a elongate main shaft portion and an end portion ; wherein the pin comprises at least one shoulder , the or each shoulder being located at a position between the main shaft portion and an end of the end portion remote from the main shaft , characterized in that the pin is provided with flatted sections , wherein the flatted sections are separated by non-flatted sections ; wherein the end portion is frustoconical, and wherein the flatted sections each comprise a flat which extends axially partially along the main shaft portion and partially into the end portion ; and wherein a maximum diameter of the end portion is less than a maximum diameter of the shaft portion and wherein the at least one shoulder comprises shoulders formed by junctions , at the non-flatted sections , of the main shaft portion and the end portion .
A motor vehicle comprising an air-heating blower device for a passenger compartment of said motor vehicle, said device comprising: - a body with at least one inlet opening and at least one outlet opening , - an electrically driven axial fan (F) rotatably mounted around its axis within the body of said device for generating a flow of air from the inlet openings to the outlet openings , and - an electric heater (H) carried by the body and adapted to heat the airflow directed towards the outlet opening , said electric heater (H) comprising a heater body to which one or more electric resistors are associated, said heater body (H) having a substantially cylindrical shape, having a heater axis substantially aligned with the axis of said fan, so as to be embedded within the airflow activated by the fan (F), characterized in that the fan (F) is associated to an electric motor (M) with toroidal geometry, having an annular rotor (R) which is rotatable within an annular stator (S) and defining a central opening inside thereof, said fan (F) having one or more blades (B) which are carried by the rotor (R) and each blade (B) extending into said central opening towards a free end of the blade (B) which terminates at a distance from the central axis of the fan (F), and in that the annular body of the rotor (R) and/or the annular body of the stator (S) define a guide tube for the airflow activated by the fan (F), and in that the conformation of said one or more blades (B) is such as to converge the airflow towards a focus point (P) positioned downstream the fan (F) with reference to the flow direction. - a body with at least one inlet opening and at least one outlet opening , - an electrically driven axial fan (F) rotatably mounted around its axis within the body of said device for generating a flow of air from the inlet openings to the outlet openings , and - an electric heater (H) carried by the body and adapted to heat the airflow directed towards the outlet opening , said electric heater (H) comprising a heater body to which one or more electric resistors are associated, said heater body (H) having a substantially cylindrical shape, having a heater axis substantially aligned with the axis of said fan, so as to be embedded within the airflow activated by the fan (F),
Method for automatically detecting and characterizing a resin flash on the surface of a composite part comprising a matrix formed from a transparent or scattering resin and a fibrous reinforcement , characterized in that the method comprises the steps consisting of: a. obtaining a geometric definition of the zone of the part to be tested; b. obtaining a file, referred to as the criteria file , comprising resin thickness distribution tolerances corresponding to the nature of the zone to be tested; c. illuminating a portion, referred to as the measurement point , of the surface of said zone to be tested using a laser source having a low temporal coherence; d. measuring the resin thickness (d 1 , d 2 , d 3 ) at the measuring point using an interferometric approach based on optical coherence tomography, i.e. what is called OCT; e. recording the thickness value measured in step d) and the spatial coordinates of the measurement point ; f. moving the laser source to another measurement point and repeating steps c) to f) so as to carry out a scan until the zone to be tested has been entirely covered; g. comparing the resin thickness profile of the zone to be tested with the criteria file . a. obtaining a geometric definition of the zone of the part to be tested; b. obtaining a file, referred to as the criteria file , comprising resin thickness distribution tolerances corresponding to the nature of the zone to be tested; c. illuminating a portion, referred to as the measurement point , of the surface of said zone to be tested using a laser source having a low temporal coherence; d. measuring the resin thickness (d 1 , d 2 , d 3 ) at the measuring point using an interferometric approach based on optical coherence tomography, i.e. what is called OCT; e. recording the thickness value measured in step d) and the spatial coordinates of the measurement point ; f. moving the laser source to another measurement point and repeating steps c) to f) so as to carry out a scan until the zone to be tested has been entirely covered; g. comparing the resin thickness profile of the zone to be tested with the criteria file .