mhurhangee/patent-ind-claim-en huggingface dataset:
A method, comprising: monitoring electrical output in a control loop from a variable speed drive to a remote permanent magnet motor , the variable speed drive electrically connected to the permanent magnet motor via a power transmission line ; characterized by presetting, in a first step, a constant field frequency until a motor torque of the permanent magnet motor has exceeded a breakout torque of a rotor shaft of the permanent magnet motor ; in response to detecting a variation in the electrical output at the variable speed drive, synchronizing a frequency of the rotor shaft of the permanent magnet motor with the constant electromagnetic field frequency of a stator of the permanent magnet motor for a predetermined period of time of at least a minimum time needed for the permanent magnet motor to overcome oscillations of the rotor shaft after exceeding the breakout torque of the rotor shaft; accelerating, in a second step, after reaching the predetermined period of time, the rotor shaft speed by increasing the electromagnetic field frequency of the stator up to a preset operational frequency threshold; and in response to reaching the preset operational frequency threshold of the electromagnetic field frequency of the stator, in a third step, determining an internal position of the relatively synchronized spinning rotor with respect to the variable electromagnetic field frequency. monitoring electrical output in a control loop from a variable speed drive to a remote permanent magnet motor , the variable speed drive electrically connected to the permanent magnet motor via a power transmission line ; characterized by presetting, in a first step, a constant field frequency until a motor torque of the permanent magnet motor has exceeded a breakout torque of a rotor shaft of the permanent magnet motor ; in response to detecting a variation in the electrical output at the variable speed drive, synchronizing a frequency of the rotor shaft of the permanent magnet motor with the constant electromagnetic field frequency of a stator of the permanent magnet motor for a predetermined period of time of at least a minimum time needed for the permanent magnet motor to overcome oscillations of the rotor shaft after exceeding the breakout torque of the rotor shaft; accelerating, in a second step, after reaching the predetermined period of time, the rotor shaft speed by increasing the electromagnetic field frequency of the stator up to a preset operational frequency threshold; and in response to reaching the preset operational frequency threshold of the electromagnetic field frequency of the stator, in a third step, determining an internal position of the relatively synchronized spinning rotor with respect to the variable electromagnetic field frequency.
A slice assignment method executed by a device assigning a slice that is a virtual network generated on a network infrastructure to a service using the virtual network, the slice assignment method comprising: a correspondence information acquiring step of acquiring correspondence information that is information in which the service, the slice of an assignment destination of the service, and a tracking area are associated with each other; a presence-in-area status identifying step of identifying a presence-in-area status of a terminal ; and an assignment step of assigning the slice corresponding to the service used by the terminal and the tracking area represented by the presence-in-area status identified in the presence-in-area status identifying step on the basis of the correspondence information acquired in the correspondence information acquiring step, wherein, in the presence-in-area status identifying step, the device identifies the presence-in-area status of the terminal by acquiring the tracking area according to a tracking area update from the terminal , and wherein, in the assignment step, the device assigns the slice corresponding to the service used by the terminal and the tracking area according to the tracking area update on the basis of the correspondence information acquired in the correspondence information acquiring step with acquisition of the tracking area in the presence-in-area status identifying step as a trigger. a correspondence information acquiring step of acquiring correspondence information that is information in which the service, the slice of an assignment destination of the service, and a tracking area are associated with each other; a presence-in-area status identifying step of identifying a presence-in-area status of a terminal ; and an assignment step of assigning the slice corresponding to the service used by the terminal and the tracking area represented by the presence-in-area status identified in the presence-in-area status identifying step on the basis of the correspondence information acquired in the correspondence information acquiring step, wherein, in the presence-in-area status identifying step, the device identifies the presence-in-area status of the terminal by acquiring the tracking area according to a tracking area update from the terminal , and wherein, in the assignment step, the device assigns the slice corresponding to the service used by the terminal and the tracking area according to the tracking area update on the basis of the correspondence information acquired in the correspondence information acquiring step with acquisition of the tracking area in the presence-in-area status identifying step as a trigger.
Method of performing a rescue operation in an elevator system comprising an elevator car moving along a hoistway , wherein the method comprises: establishing a data connection between the elevator system and a remote service center , and sending an alarm message indicating a malfunction of the elevator system from the elevator system to the remote service center ; the remote service center requesting allowance from the elevator system to perform a remote manual rescue operation; the elevator system requesting authentication from the remote service center ; authenticating the remote service center and/or an operator at the remote service center as being allowed initiating an emergency rescue operation; initiating a remote manual emergency rescue operation via the data connection characterized in that the manual emergency rescue operation includes at least one of moving the elevator car over a predetermined distance along the hoistway and stopping the elevator car unless a control signal indicating to continue moving the elevator car is received via the data connection before the elevator car has been stopped; moving the elevator car for a predetermined period of time along the hoistway and stopping the elevator car unless a control signal indicating to continue moving the elevator car is received via the data connection before the elevator car has been stopped; and transmitting a remote hold signal to the elevator control and moving the elevator car in correspondence with a remote control signal only as long as the remote hold signal is received. establishing a data connection between the elevator system and a remote service center , and sending an alarm message indicating a malfunction of the elevator system from the elevator system to the remote service center ; the remote service center requesting allowance from the elevator system to perform a remote manual rescue operation; the elevator system requesting authentication from the remote service center ; authenticating the remote service center and/or an operator at the remote service center as being allowed initiating an emergency rescue operation; initiating a remote manual emergency rescue operation via the data connection characterized in that the manual emergency rescue operation includes at least one of moving the elevator car over a predetermined distance along the hoistway and stopping the elevator car unless a control signal indicating to continue moving the elevator car is received via the data connection before the elevator car has been stopped; moving the elevator car for a predetermined period of time along the hoistway and stopping the elevator car unless a control signal indicating to continue moving the elevator car is received via the data connection before the elevator car has been stopped; and transmitting a remote hold signal to the elevator control and moving the elevator car in correspondence with a remote control signal only as long as the remote hold signal is received.
Camera system , comprising: - a camera unit for capturing still and/or motion images of an object , wherein the camera unit is adjustable, based on a measurement signal , with respect to at least one parameter that is relevant for capturing the still and/or motion images; - a measurement unit for capturing a distance (R) between the object and the camera unit , wherein the measurement unit has: (i) a laser transceiver for transmitting a laser signal (L) and for receiving a laser signal reflected by the object; (ii) an evaluation unit that is coupled to the laser transceiver and is embodied to provide the measurement signal , wherein the measurement signal is indicative of the distance (R) between the object and the camera unit ; and (iii) a lens system having at least two lenses that are arranged at a distance from one another and through which the laser signal (L) transmitted by the laser transceiver passes, wherein at least one of the lenses is arranged to be movable so that the distance (D) between the at least two lenses is variably adjustable parallel to the laser signal transmission direction. - a camera unit for capturing still and/or motion images of an object , wherein the camera unit is adjustable, based on a measurement signal , with respect to at least one parameter that is relevant for capturing the still and/or motion images; - a measurement unit for capturing a distance (R) between the object and the camera unit , wherein the measurement unit has: (i) a laser transceiver for transmitting a laser signal (L) and for receiving a laser signal reflected by the object; (ii) an evaluation unit that is coupled to the laser transceiver and is embodied to provide the measurement signal , wherein the measurement signal is indicative of the distance (R) between the object and the camera unit ; and (iii) a lens system having at least two lenses that are arranged at a distance from one another and through which the laser signal (L) transmitted by the laser transceiver passes, wherein at least one of the lenses is arranged to be movable so that the distance (D) between the at least two lenses is variably adjustable parallel to the laser signal transmission direction. (i) a laser transceiver for transmitting a laser signal (L) and for receiving a laser signal reflected by the object; (ii) an evaluation unit that is coupled to the laser transceiver and is embodied to provide the measurement signal , wherein the measurement signal is indicative of the distance (R) between the object and the camera unit ; and (iii) a lens system having at least two lenses that are arranged at a distance from one another and through which the laser signal (L) transmitted by the laser transceiver passes, wherein at least one of the lenses is arranged to be movable so that the distance (D) between the at least two lenses is variably adjustable parallel to the laser signal transmission direction.
An image processing apparatus for processing an image captured by a medical imaging device, comprising: circuitry configured to acquire a normal light 3D image and at least one special light 3D image from the image captured by the medical imaging device, the special light 3D image having information limited to a specific wavelength band, generate depth information at a predetermined position of a patient using coordinates in the depth direction of elements in the 3D images, and detect at the predetermined position of the patient at least one of: the thickness of a blood puddle, the thickness of a transparent membrane or the thickness of mist on flesh surface from a difference between the depth coordinates of the normal light 3D image and the special light 3D image, or a structural relationship between blood vessels from a difference between depth coordinates of a first special light 3D image having information limited to a first wavelength in the specific wavelength band and a second special light 3D image having information limited to a second wavelength in the specific wavelength band, different to the first wavelength. circuitry configured to acquire a normal light 3D image and at least one special light 3D image from the image captured by the medical imaging device, the special light 3D image having information limited to a specific wavelength band, generate depth information at a predetermined position of a patient using coordinates in the depth direction of elements in the 3D images, and detect at the predetermined position of the patient at least one of: the thickness of a blood puddle, the thickness of a transparent membrane or the thickness of mist on flesh surface from a difference between the depth coordinates of the normal light 3D image and the special light 3D image, or a structural relationship between blood vessels from a difference between depth coordinates of a first special light 3D image having information limited to a first wavelength in the specific wavelength band and a second special light 3D image having information limited to a second wavelength in the specific wavelength band, different to the first wavelength.
A system comprising a chip and an external transmission line , the chip comprising: a bonding pad region comprising a signal pad Z and a ground pad , the bonding pad region having a first impedance and being connected to the external transmission line; a transmission section extending away from the bonding pad region and comprising a signal electrode electrically connected to the signal pad and a ground electrode electrically connected to the ground pad, the transmission section having a second impedance wherein the bonding pad region is between the transmission section and the external transmission line, wherein: the width of the signal electrode is less than the width of the signal pad , the width of the ground electrode is less than the width of the ground pad , the transmission section comprises a first non-conductive gap between the signal electrode and the ground electrode, and the bonding pad region comprises a second non-conductive gap between the signal pad and the ground pad; the width of the second non-conductive gap (Gb) is less than the width of either the signal pad or the ground pad (Pb); the impedance of the external transmission line is approximately equal to the second impedance; and the second impedance is not equal to the first impedance. a bonding pad region comprising a signal pad Z and a ground pad , the bonding pad region having a first impedance and being connected to the external transmission line; a transmission section extending away from the bonding pad region and comprising a signal electrode electrically connected to the signal pad and a ground electrode electrically connected to the ground pad, the transmission section having a second impedance wherein the bonding pad region is between the transmission section and the external transmission line, wherein: the width of the signal electrode is less than the width of the signal pad , the width of the ground electrode is less than the width of the ground pad , the transmission section comprises a first non-conductive gap between the signal electrode and the ground electrode, and the bonding pad region comprises a second non-conductive gap between the signal pad and the ground pad; the width of the second non-conductive gap (Gb) is less than the width of either the signal pad or the ground pad (Pb); the impedance of the external transmission line is approximately equal to the second impedance; and the second impedance is not equal to the first impedance. the width of the signal electrode is less than the width of the signal pad , the width of the ground electrode is less than the width of the ground pad , the transmission section comprises a first non-conductive gap between the signal electrode and the ground electrode, and the bonding pad region comprises a second non-conductive gap between the signal pad and the ground pad; the width of the second non-conductive gap (Gb) is less than the width of either the signal pad or the ground pad (Pb); the impedance of the external transmission line is approximately equal to the second impedance; and the second impedance is not equal to the first impedance.
A method comprising: - placing a synthetic filter fabric around a filtering surface , and - heating the fabric to a temperature of 100 to 160 °C, by an apparatus comprising at least one infrared element arrangement comprising at least one infrared element comprising a plurality of infrared radiators and means for moving the apparatus to a heating distance from the fabric , for shrinking the fabric on the filtering surface , characterised in that the method comprises: - moving the apparatus gradually along an axial direction of the filtering surface by the means for moving. - placing a synthetic filter fabric around a filtering surface , and - heating the fabric to a temperature of 100 to 160 °C, by an apparatus comprising at least one infrared element arrangement comprising at least one infrared element comprising a plurality of infrared radiators and means for moving the apparatus to a heating distance from the fabric , for shrinking the fabric on the filtering surface , - moving the apparatus gradually along an axial direction of the filtering surface by the means for moving.
A method for recycling a used absorbent article comprising superabsorbent polymers, in which at least one of the materials constituting the absorbent article is collected and recycled from the used absorbent article, wherein the method comprises: an ozone treatment step of treating a used absorbent article with ozone water, characterized in that the method further comprises: an ozone concentration adjustment step of adjusting an ozone concentration of wastewater from the ozone treatment step to 0.1 ppm by weight or less; a pH adjustment step of adjusting pH of the wastewater from the ozone treatment step to 2.0 to 7.0; and a microbial fuel cell step of introducing the ozone concentration-adjusted and pH-adjusted wastewater into a microbial fuel cell to reduce TOC concentration in the wastewater and collect electric power by power generation. an ozone concentration adjustment step of adjusting an ozone concentration of wastewater from the ozone treatment step to 0.1 ppm by weight or less; a pH adjustment step of adjusting pH of the wastewater from the ozone treatment step to 2.0 to 7.0; and a microbial fuel cell step of introducing the ozone concentration-adjusted and pH-adjusted wastewater into a microbial fuel cell to reduce TOC concentration in the wastewater and collect electric power by power generation.
A process for the production of an olefin oxide polymerization catalyst comprising: admixing at least one alkaline earth metal, liquid ammonia, an alkylene oxide, which is optionally substituted by aromatic radicals, and an organic nitrile having at least one acidic hydrogen atom to prepare a slurry of modified alkaline earth hexammine in liquid ammonia; continuously transferring the slurry of modified alkaline earth hexammine in liquid ammonia into a stripper vessel and continuously evaporating ammonia, thereby accumulating the modified catalyst in the stripper vessel; and upon complete transfer of the slurry of modified alkaline earth hexammine into the stripper vessel, aging the modified catalyst to obtain the final olefin oxide polymerization catalyst. admixing at least one alkaline earth metal, liquid ammonia, an alkylene oxide, which is optionally substituted by aromatic radicals, and an organic nitrile having at least one acidic hydrogen atom to prepare a slurry of modified alkaline earth hexammine in liquid ammonia; continuously transferring the slurry of modified alkaline earth hexammine in liquid ammonia into a stripper vessel and continuously evaporating ammonia, thereby accumulating the modified catalyst in the stripper vessel; and upon complete transfer of the slurry of modified alkaline earth hexammine into the stripper vessel, aging the modified catalyst to obtain the final olefin oxide polymerization catalyst.
An engine system comprising: an engine configured to output shaft power by burning fuel; and a system main portion configured to operate using the shaft power of the engine , the engine system further comprising: an operation controlling unit (A); and a power source unit (B) configured to convert commercial electric power to operating electric power and to supply the operating electric power to the operation controlling unit (A), wherein the system main portion comprises a fuel shutoff valve capable of shutting off supply of fuel to the engine , and wherein the power source unit (B) comprises: a system main portion-side power source unit configured to supply operating power for controlling operation of the system main portion ; and an engine-side power source unit configured to supply operating power for controlling operation of the engine , the system main portion-side power source unit and the engine-side power source unit being provided in a parallel manner, characterized in that the operation controlling unit (A) comprises a system main portion controlling unit and an engine controlling unit which are provided individually and separately, the system main portion controlling unit configured to receive operating power from the system main portion-side power source unit and to control operation of the system main portion , the engine controlling unit configured to receive operating power from the engine-side power source unit and to control operation of the engine . an operation controlling unit (A); and a power source unit (B) configured to convert commercial electric power to operating electric power and to supply the operating electric power to the operation controlling unit (A), wherein the system main portion comprises a fuel shutoff valve capable of shutting off supply of fuel to the engine , and wherein the power source unit (B) comprises: a system main portion-side power source unit configured to supply operating power for controlling operation of the system main portion ; and an engine-side power source unit configured to supply operating power for controlling operation of the engine , the system main portion-side power source unit and the engine-side power source unit being provided in a parallel manner, characterized in that the operation controlling unit (A) comprises a system main portion controlling unit and an engine controlling unit which are provided individually and separately, the system main portion controlling unit configured to receive operating power from the system main portion-side power source unit and to control operation of the system main portion , the engine controlling unit configured to receive operating power from the engine-side power source unit and to control operation of the engine .