mhurhangee/patent-ind-claim-en huggingface dataset:
A wind estimation system for an aircraft , the system comprising: a first sensor configured to sense a first position associated with an aircraft control component in a wind condition; a second sensor configured to sense a first configuration associated with a rotor system of the aircraft in the wind condition including sensing flapping angles (a 1 , b 1 ) of rotor blades of the aircraft; and at least one controller in communication with the first sensor and the second sensor , the at least one controller being configured to: determine a tip-path-plane angle of the aircraft based on the first position and the first configuration; and determine at least one of a current wind speed or current wind direction associated with the wind condition based on the tip-path-plane angle . a first sensor configured to sense a first position associated with an aircraft control component in a wind condition; a second sensor configured to sense a first configuration associated with a rotor system of the aircraft in the wind condition including sensing flapping angles (a 1 , b 1 ) of rotor blades of the aircraft; and at least one controller in communication with the first sensor and the second sensor , the at least one controller being configured to: determine a tip-path-plane angle of the aircraft based on the first position and the first configuration; and determine at least one of a current wind speed or current wind direction associated with the wind condition based on the tip-path-plane angle . determine a tip-path-plane angle of the aircraft based on the first position and the first configuration; and determine at least one of a current wind speed or current wind direction associated with the wind condition based on the tip-path-plane angle .
A quantum computing device comprising: a qubit ; a readout device coupled to the qubit, the readout device comprising a frequency filter having a filter frequency range, wherein the frequency filter is configured to attenuate transmission of signals outside of the filter frequency range; and an amplifier device coupled to the readout device without a circulator between the readout device and the amplifier device, wherein the amplifier device is configured to amplify a measurement signal from the readout device upon receiving a pump signal having a pump frequency that is outside of the filter frequency range of the frequency filter. a qubit ; a readout device coupled to the qubit, the readout device comprising a frequency filter having a filter frequency range, wherein the frequency filter is configured to attenuate transmission of signals outside of the filter frequency range; and an amplifier device coupled to the readout device without a circulator between the readout device and the amplifier device, wherein the amplifier device is configured to amplify a measurement signal from the readout device upon receiving a pump signal having a pump frequency that is outside of the filter frequency range of the frequency filter.
An antioxidant dietary supplement composition comprising grapeseed extract, green tea extract, pine bark extract and pomegranate extract which composition comprises from 30 to 45% by weight of grapeseed extract, from 30 to 45% by weight of green tea extract, from 5 to 20% by weight of pine bark extract and from 5 to 20% by weight of pomegranate extract, wherein the % by weight is based on the total weight of the grapeseed extract, green tea extract, pine bark extract and pomegranate extract in the composition.
A cartridge comprising the following cartridge components: a. a container having an internal volume ; b. a first gel inside the internal volume, the gel comprising: i. a hydrocolloid, and ii. a sweetener different to the hydrocolloid; wherein the first gel is not a fluid; wherein the hydrocolloid is a pectin; wherein when heated to 80°C the first gel becomes a paste, the paste being more fluid than the gel, and the cartridge is arranged to eject the paste; wherein when the paste is subsequently cooled to below 10°C, the paste becomes a second gel, and the second gel is not a fluid; wherein the cartridge comprises an exit hole or provision for an exit hole to be made, and wherein the exit hole is arranged to be mounted to a 3-D printer. a. a container having an internal volume ; b. a first gel inside the internal volume, the gel comprising: i. a hydrocolloid, and ii. a sweetener different to the hydrocolloid; i. a hydrocolloid, and ii. a sweetener different to the hydrocolloid; wherein the first gel is not a fluid; wherein the hydrocolloid is a pectin; wherein when heated to 80°C the first gel becomes a paste, the paste being more fluid than the gel, and the cartridge is arranged to eject the paste; wherein when the paste is subsequently cooled to below 10°C, the paste becomes a second gel, and the second gel is not a fluid; wherein the cartridge comprises an exit hole or provision for an exit hole to be made, and wherein the exit hole is arranged to be mounted to a 3-D printer.
A vortex ring generation device for releasing an airflow in a form of a vortex ring from a release port , the device comprising: a plurality of gas chamber units (A) each having an air chamber (S), the plurality of gas chamber units (A) each including: a fixing member forming the air chamber (S); and a movable member moving to push air out of the air chamber (S), the movable members of all of the gas chamber units (A) being coupled together to form one movable body (M), the vortex ring generation device further comprising: an actuator configured to drive the movable body (M); characterized by a communication path (C) allowing the air chambers (S) of the plurality of gas chamber units (A) to communicate with each other; wherein each air chamber (S) communicates with the release port ; the actuator being connected to an end portion of the movable body (M). a plurality of gas chamber units (A) each having an air chamber (S), the plurality of gas chamber units (A) each including: a fixing member forming the air chamber (S); and a movable member moving to push air out of the air chamber (S), the movable members of all of the gas chamber units (A) being coupled together to form one movable body (M), the vortex ring generation device further comprising: an actuator configured to drive the movable body (M); characterized by a communication path (C) allowing the air chambers (S) of the plurality of gas chamber units (A) to communicate with each other; wherein each air chamber (S) communicates with the release port ; the actuator being connected to an end portion of the movable body (M). a fixing member forming the air chamber (S); and a movable member moving to push air out of the air chamber (S), the movable members of all of the gas chamber units (A) being coupled together to form one movable body (M), the vortex ring generation device further comprising: an actuator configured to drive the movable body (M); characterized by a communication path (C) allowing the air chambers (S) of the plurality of gas chamber units (A) to communicate with each other; wherein each air chamber (S) communicates with the release port ; the actuator being connected to an end portion of the movable body (M). an actuator configured to drive the movable body (M); characterized by a communication path (C) allowing the air chambers (S) of the plurality of gas chamber units (A) to communicate with each other; wherein each air chamber (S) communicates with the release port ; the actuator being connected to an end portion of the movable body (M).
A method of an electronic device for providing a one-time proof of knowledge about a one-time signing key to a server without revealing the one-time signing key, the one-time signing key comprising a value of a hash chain where the hash chain comprises values bound by a root of a hash tree on top of a sequence formed by possible one-time signing keys, the method comprising computing a hash as a hash function from the one-time signing key; and transmitting , to the server, the computed hash, an identity associated with the electronic device and a hash path of the hash.
Device for controlling the temperature of an electric energy store , in particular of a rechargeable battery, of a vehicle , having a first flow path which opens into a housing of the electric energy store , and having a ventilation system for temperature-controlled ventilation of a passenger compartment of the vehicle , which ventilation system has a heating and/or cooling device and a second flow path which leads from the at least one heating and/or cooling device into the passenger compartment , wherein the two flow paths are connected in the device in such a way that an airflow in in each case one of the two flow paths is fluidically independent of an airflow in the respective other of the two flow paths , wherein the device has a heat exchanger , connected in both flow paths , for pure heat exchange between the airflows in the two flow paths , characterized in that the heat exchanger is arranged upstream of the electric energy store in the flow direction, wherein the device has a supply air inlet for air from the surroundings of the vehicle, which supply air inlet is configured to divide a supply anflow into a first partial flow and a second partial flow, and the first partial flow is fed to the first flow path , and the second partial flow is fed to an inlet of the ventilation system .
A partially deformable composite member for a downhole tool comprising: a resilient portion ; and a deformable portion ; wherein the resilient portion has greater or increased resilience to deformation as compared to the deformable portion ; whereby the deformable portion has at least one groove formed therein, wherein the at least one groove is formed in a helical pattern, wherein the deformable portion further comprises an outer surface , and an inner surface , and wherein a depth ( d ) of the at least one groove extends from the outer surface to the inner surface , and wherein the resilient portion and the deformable portion are made of a first material , and wherein a second material is bonded to the deformable portion and at least partially fills into the at least one groove , such that, during setting of the downhole tool, an exterior surface of a seal element compresses against an interior surface of the composite member and as a result the deformable portion is urged radially outward and into engagement with a surrounding tubular. a resilient portion ; and a deformable portion ;
A method of monitoring an operation status of a confined laser cutting tool , the method comprising: forming a confining column with a nozzle in fluid communication with a reservoir of confining fluid ; emitting light in the form of laser beams from a laser source ; directing the emitted laser beams into the confining column comprised of the confining liquid to form a confined laser beam , the confined laser beam comprising the confining column and a portion of the laser beams confined therein; sensing a characteristic of the confined laser beam with a sensor ; and characterized by the step of determining the operation status of the confined laser cutting tool based on the sensed characteristic of the confined laser beam , wherein the step of determining comprising determining a remaining usable life of the nozzle based on the sensed intensity, wherein the step of sensing comprises sensing an optical characteristic of the re-emitted light from the confined laser beam within a predetermined wavelength range, wherein the predetermined wavelength range includes approximately six hundred nanometers or greater, and the sensed optical characteristic of the re-emitted light from the confined laser beam comprises an intensity at a wavelength greater than about six hundred nanometers. forming a confining column with a nozzle in fluid communication with a reservoir of confining fluid ; emitting light in the form of laser beams from a laser source ; directing the emitted laser beams into the confining column comprised of the confining liquid to form a confined laser beam , the confined laser beam comprising the confining column and a portion of the laser beams confined therein; sensing a characteristic of the confined laser beam with a sensor ; and characterized by the step of determining the operation status of the confined laser cutting tool based on the sensed characteristic of the confined laser beam , wherein the step of determining comprising determining a remaining usable life of the nozzle based on the sensed intensity, wherein the step of sensing comprises sensing an optical characteristic of the re-emitted light from the confined laser beam within a predetermined wavelength range, wherein the predetermined wavelength range includes approximately six hundred nanometers or greater, and the sensed optical characteristic of the re-emitted light from the confined laser beam comprises an intensity at a wavelength greater than about six hundred nanometers.
An information processing device comprising: a feature amount acquiring means configured to acquire a feature amount of identification object data; a selection means configured to select a feature amount of a portion, used for identification, specified in advance from the feature amount acquired by the feature amount acquiring means; a duplication means configured to duplicate the feature amount of the portion selected by the selection means; an identification means , comprising a binary neural network , configured to have learned an identification object using multiple-valued weighting; an input means configured to input the feature amount of the portion selected by the selection means and the feature amount of the portion duplicated by the duplication means into the identification means ; and an output means configured to output an identification result of being identified by the identification means using the feature amounts input by the input means. a feature amount acquiring means configured to acquire a feature amount of identification object data; a selection means configured to select a feature amount of a portion, used for identification, specified in advance from the feature amount acquired by the feature amount acquiring means; a duplication means configured to duplicate the feature amount of the portion selected by the selection means; an identification means , comprising a binary neural network , configured to have learned an identification object using multiple-valued weighting; an input means configured to input the feature amount of the portion selected by the selection means and the feature amount of the portion duplicated by the duplication means into the identification means ; and an output means configured to output an identification result of being identified by the identification means using the feature amounts input by the input means.
Method for monitoring a surrounding area of a motor vehicle , wherein measurement points of surfaces of objects in the surrounding area that are detected by at least two sensor devices of the motor vehicle are received, characterized in that first measurement points of a first surface area detected by a first sensor device are received and second measurement points, which are detected by a second sensor device , of a second surface area that is free of overlaps with the first surface area are received, the first and second measurement points lie in non-overlapping areas of the detection areas of the first and second sensor devices, a relative position of the surface areas with respect to each other is determined based on the first and second measurement points, and it is determined based on the relative position whether the surface areas are to be assigned to an individual object and, if so, the surface areas are combined into a total surface area of the object .
A secondary battery module , comprising: a plurality of sub modules , each including at least two battery cells and a cooling fin wherein the battery cells are disposed on both side surfaces of the cooling fin ; a cooling plate which is coupled to the plurality of the sub modules ; and side structures having bus bars , wherein the side structures are coupled to side surfaces of the plurality of sub modules adjacent to each other, wherein a terminal unit is disposed at each of the plurality of sub modules , wherein the terminal unit includes a contact terminal disposed between electrode tabs of the adjacent battery cells ; and a wing terminal which extends outwardly from one end of the contact terminal , wherein the terminal unit disposed at one of the plurality of sub modules is connected with another terminal unit disposed at another sub module by one of the bus bars , wherein the wing terminal of the terminal unit is positioned to face a wing terminal of another terminal unit adjacent to the terminal unit , and wherein the wing terminals which face each other contact the bus bar . a cooling plate which is coupled to the plurality of the sub modules ; and side structures having bus bars , wherein the side structures are coupled to side surfaces of the plurality of sub modules adjacent to each other, wherein a terminal unit is disposed at each of the plurality of sub modules , wherein the terminal unit includes a contact terminal disposed between electrode tabs of the adjacent battery cells ; and a wing terminal which extends outwardly from one end of the contact terminal , wherein the terminal unit disposed at one of the plurality of sub modules is connected with another terminal unit disposed at another sub module by one of the bus bars , wherein the wing terminal of the terminal unit is positioned to face a wing terminal of another terminal unit adjacent to the terminal unit , and wherein the wing terminals which face each other contact the bus bar .
A lens system that comprises a first optical system (F) and forms an intermediate image that is formed inside the first optical system (F) by light from an input side, into a final image on an output side, wherein the first optical system (F) includes a first subsystem (F1) with a negative refractive power, a second subsystem (F2) with positive refractive power that is positioned on the output side of a movable space of the first subsystem (F1) and does not move during the focusing; and a third subsystem (F3) with positive refractive power that is positioned on the output side of the second subsystem (F2) and moves during the focusing for compensating the movement of the fist subsystem (F1) to correct aberrations due to the focusing, and the first subsystem (F1) includes: a first lens (L110) that is disposed at a position closest to the intermediate image on the input side for forming the intermediate image and moves during a focusing; and a second lens (L201) that is disposed at a position closest to the intermediate image on the output side and moves together with the first lens (L110) with a constant air gap between the first lens (L110) and the second lens (L201) during the focusing. wherein the first optical system (F) includes a first subsystem (F1) with a negative refractive power, a second subsystem (F2) with positive refractive power that is positioned on the output side of a movable space of the first subsystem (F1) and does not move during the focusing; and a third subsystem (F3) with positive refractive power that is positioned on the output side of the second subsystem (F2) and moves during the focusing for compensating the movement of the fist subsystem (F1) to correct aberrations due to the focusing, and the first subsystem (F1) includes: a first lens (L110) that is disposed at a position closest to the intermediate image on the input side for forming the intermediate image and moves during a focusing; and a second lens (L201) that is disposed at a position closest to the intermediate image on the output side and moves together with the first lens (L110) with a constant air gap between the first lens (L110) and the second lens (L201) during the focusing. a first lens (L110) that is disposed at a position closest to the intermediate image on the input side for forming the intermediate image and moves during a focusing; and a second lens (L201) that is disposed at a position closest to the intermediate image on the output side and moves together with the first lens (L110) with a constant air gap between the first lens (L110) and the second lens (L201) during the focusing.
A drive unit for a drive train of an electrically driven motor vehicle, in particular a hybrid motor vehicle, having a first electric rotary machine and a second electric rotary machine and a first shaft and a second shaft , wherein a rotor of the first electric rotary machine is connected in a rotationally fixed manner to the first shaft and a rotor of the second electric rotary machine is connected in a rotationally fixed manner to the second shaft , and wherein the drive unit further comprises a separating clutch with which the rotor of the first electric rotary machine can be or is connected to the second shaft for torque transmission, wherein one of the two electric rotary machines is arranged, at least in regions, radially and axially within a space radially delimited by the other electric rotary machine , the separating clutch is connected with its input side to the first shaft , and with its output side , to the second shaft , the drive unit has a second transmission stage which is formed by a toothing of the second shaft and a first gear which meshes with the toothing of the second shaft , a torque provided by the rotor of the first electric rotary machine is transmitted via the second transmission stage when the separating clutch is closed, and wherein the two shafts are arranged coaxially, the second shaft is designed as a hollow shaft and the first shaft runs in sections within the second shaft , characterized in that the separating clutch is designed as a multi-plate clutch, the input side of which is formed by inner plates, which are arranged axially next to the rotor of the first electric rotary machine on the first shaft , and outer plates of the separating clutch are connected to the second shaft as its output side . wherein one of the two electric rotary machines is arranged, at least in regions, radially and axially within a space radially delimited by the other electric rotary machine , the separating clutch is connected with its input side to the first shaft , and with its output side , to the second shaft , the drive unit has a second transmission stage which is formed by a toothing of the second shaft and a first gear which meshes with the toothing of the second shaft , a torque provided by the rotor of the first electric rotary machine is transmitted via the second transmission stage when the separating clutch is closed, and wherein the two shafts are arranged coaxially, the second shaft is designed as a hollow shaft and the first shaft runs in sections within the second shaft , characterized in that the separating clutch is designed as a multi-plate clutch, the input side of which is formed by inner plates, which are arranged axially next to the rotor of the first electric rotary machine on the first shaft , and outer plates of the separating clutch are connected to the second shaft as its output side .
Platform provided for receiving a wheelchair having two rear wheels , the platform comprising two stops provided at least for immobilizing said wheels, also comprising a motor for translational movement along a path, further comprising control means for said motor , characterized in that the platform comprises a presence detector which produces a presence signal only when the two wheels are inserted between said stops and in that the platform comprises means for disabling said control means if said presence signal is absent.
An apparatus for fitting and/or removing wheel nuts , the apparatus including a base structure that supports a movable wheel engaging portion, the wheel engaging portion including an annular rotatable member with a central void, the annular rotatable member supporting a socket wrench and a positioning device , wherein the positioning device can be used to locate the wheel engaging portion to aid the socket wrench to fit or remove a wheel nut .