mhurhangee/ep-ind-claims huggingface dataset:
An electromagnetic filter element comprising: a support comprising a magnetic material, wherein the support defines an opening; a solenoid coupled to the support and configured to, when energized, cause the support to generate a magnetic field; and a plurality of elongated magnetic members arranged in a planar array positioned within the opening of the support, wherein each magnetic member comprises a first end and a second end, and wherein the first end of each magnetic member is coupled to a side (16, 18) of the support at a pivot point and each magnetic member is rotatable about the pivot point. a support comprising a magnetic material, wherein the support defines an opening; a solenoid coupled to the support and configured to, when energized, cause the support to generate a magnetic field; and a plurality of elongated magnetic members arranged in a planar array positioned within the opening of the support, wherein each magnetic member comprises a first end and a second end, and wherein the first end of each magnetic member is coupled to a side (16, 18) of the support at a pivot point and each magnetic member is rotatable about the pivot point.
A motor, comprising: a control part assembly having an air inlet through which air is introduced, an air flow path configured to communicate with the air inlet, and a printed circuit board including a plurality of heat sinks arranged around an outer circumference of the air inlet; and a motor part assembly having an upper housing, a lower housing, a stator configured to generate magnetic flux when a current is applied, a rotor structured to be rotated while electromagnetically interacting with the stator, a motor shaft provided to be rotated together with the rotor, an impeller coupled to the motor shaft and provided to be rotated to generate air flow, and a diffuser unit disposed at an outer side along a radial direction of the impeller while affixed to the stator, wherein the upper housing and the lower housing are coupled to each other, wherein the motor part assembly and the control part assembly comprise independent modules configured to be detachably coupled to each other, and wherein each of the plurality of heat sinks includes an inner side surface facing the air inlet and is located entirely upstream of the stator in the air flow path. a control part assembly having an air inlet through which air is introduced, an air flow path configured to communicate with the air inlet, and a printed circuit board including a plurality of heat sinks arranged around an outer circumference of the air inlet; and a motor part assembly having an upper housing, a lower housing, a stator configured to generate magnetic flux when a current is applied, a rotor structured to be rotated while electromagnetically interacting with the stator, a motor shaft provided to be rotated together with the rotor, an impeller coupled to the motor shaft and provided to be rotated to generate air flow, and a diffuser unit disposed at an outer side along a radial direction of the impeller while affixed to the stator, wherein the upper housing and the lower housing are coupled to each other, wherein the motor part assembly and the control part assembly comprise independent modules configured to be detachably coupled to each other, and wherein each of the plurality of heat sinks includes an inner side surface facing the air inlet and is located entirely upstream of the stator in the air flow path.
A personal information anonymization method, comprising: classifying each of a plurality of data including personal information into any one of a plurality of groups based on a degree of commonality of the personal information; performing, for each of the groups, an anonymization process that standardizes the personal information of each of data belonging to each of the groups; calculating, for each of the groups, a total number of the data belonging to each of the groups; calculating, for each of the groups, a ratio of the total number of the data belonging to each of the groups with respect to a total number of data in the plurality of data; and outputting, as a recommended value for an anonymization, the total number of data belonging to the group of a highest ratio among the calculated ratios respective to each of the groups. classifying each of a plurality of data including personal information into any one of a plurality of groups based on a degree of commonality of the personal information; performing, for each of the groups, an anonymization process that standardizes the personal information of each of data belonging to each of the groups; calculating, for each of the groups, a total number of the data belonging to each of the groups; calculating, for each of the groups, a ratio of the total number of the data belonging to each of the groups with respect to a total number of data in the plurality of data; and outputting, as a recommended value for an anonymization, the total number of data belonging to the group of a highest ratio among the calculated ratios respective to each of the groups.
A method to determine a state of a valve for a gas turbine engine, the method comprising steps to: a) determine a first pressure of a fluid flow at a first location within a gas turbine engine; b) determine a second pressure of a compressed fluid at a second location within the gas turbine engine when the valve is in the first position; c) compare the first pressure and the second pressure to determine the state of the valve; d) command the valve to move from the first position towards a second position; e) determine the second pressure of the compressed fluid at the second location; f) compare the pressure at the second location when the valve is in the first position to the pressure at the second location when the valve has been commanded to move towards the second position; and, g) determine whether the valve has moved from the first position towards the second position when commanded to do so. a) determine a first pressure of a fluid flow at a first location within a gas turbine engine; b) determine a second pressure of a compressed fluid at a second location within the gas turbine engine when the valve is in the first position; c) compare the first pressure and the second pressure to determine the state of the valve; d) command the valve to move from the first position towards a second position; e) determine the second pressure of the compressed fluid at the second location; f) compare the pressure at the second location when the valve is in the first position to the pressure at the second location when the valve has been commanded to move towards the second position; and, g) determine whether the valve has moved from the first position towards the second position when commanded to do so.
A high specific strength steel sheet comprising, by wt%: C: 0.01% to 2.0%, Si: 9.0% or less, Mn: 5.0% to 40.0%, P: 0.04% or less, S: 0.04% or less, Al: 4.0% to 20.0%, Ni: 0.3% to 20.0%, N: 0.001% to 0.05%, optionally at least one selected from the group consisting of Cr: 0.01% to 7.0%, Co: 0.01% to 15.0%, Cu: 0.01% to 15.0%, Ru: 0.01% to 15.0%, Rh: 0.01% to 15.0%, Pd: 0.01% to 15.0%, Ir: 0.01% to 15.0%, Pt: 0.01% to 15.0%, Au: 0.01% to 15.0%, Li: 0.001% to 3.0%, Sc: 0.005% to 3.0%, Ti: 0.005% to 3.0%, Sr: 0.005% to 3.0%, Y: 0.005% to 3.0%, Zr: 0.005% to 3.0%, Mo: 0.005% to 3.0%, Lu: 0.005% to 3.0%, Ta: 0.005% to 3.0%, a lanthanoid rare earth metal: 0.005% to 3.0%, V: 0.005% to 1.0%, Nb: 0.005% to 1.0%, W: 0.01% to 5.0%, Ca: 0.001% to 0.02%, Mg: 0.0002% to 0.4%, and B: 0.0001% to 0.1%, and a balance of iron (Fe) and inevitable impurities, wherein the high specific strength steel sheet comprising an Fe-Al-based intermetallic compound in an austenite matrix in a volume fraction of 1% to 50%; κ-carbide ((Fe,Mn)3AIC), a perovskite carbide having an L12 structure in the austenite matrix, in a volume fraction of 15% or less; and ferrite in a volume fraction of 15% or less, and wherein if manganese (Mn) is included in an amount of 5.0% to less than 14.0%, carbon is included in an amount of 0.6% or greater, and if manganese (Mn) is included in an amount of 14.0% to less than 20.0%, carbon is included in an amount of 0.3% or greater.
A communication system for facilitating control over a function of a vehicle, the communication system comprising: a base station positioned in the vehicle; and a mobile communication unit; the base station comprising a first transmitter for transmitting a signal to the mobile communication unit and a first receiver for receiving a signal from the mobile communication unit; the base station being further configured to cause the mobile communication unit to operate in accordance with a limited-response duty cycle, wherein the base station is configured to cause the mobile communication unit to operate in accordance with the limited-response duty cycle in response to a determination that the mobile communication unit is located within the vehicle; wherein the limited-response duty cycle comprises a period of inactivity, during which the mobile communication unit is unable to receive a transmission, and a period of activity, during which the mobile communication unit is capable of receiving a transmission; and wherein the base station is configured to control operation of one or more vehicle systems by communication with the mobile communication unit and the one or more vehicle systems. a base station positioned in the vehicle; and a mobile communication unit; the base station comprising a first transmitter for transmitting a signal to the mobile communication unit and a first receiver for receiving a signal from the mobile communication unit; the base station being further configured to cause the mobile communication unit to operate in accordance with a limited-response duty cycle, wherein the base station is configured to cause the mobile communication unit to operate in accordance with the limited-response duty cycle in response to a determination that the mobile communication unit is located within the vehicle; wherein the limited-response duty cycle comprises a period of inactivity, during which the mobile communication unit is unable to receive a transmission, and a period of activity, during which the mobile communication unit is capable of receiving a transmission; and wherein the base station is configured to control operation of one or more vehicle systems by communication with the mobile communication unit and the one or more vehicle systems.
A wind turbine rotor blade comprising a blade body and an electric heating system, wherein said blade body comprises a support surface that is in contact with the heating system, wherein the heating system comprises - a first heating layer comprising an electrically conducting element, resulting in the first heating layer being electrically conductive, - a first electric conductor that is electrically connected to the first heating layer at a first connection side of the first heating layer, - a second electric conductor that is electrically connected to the first heating layer at a second connection side of the first heating layer, and - wherein the first and second electric conductor (14, 24) are being connected to an electric power source such that an electric current can be directed through the first heating layer in a first general current direction between the first connection side and the second connection side, characterized in that the heating system comprises at least one auxiliary bypass layer comprising an electrically conducting element, which bypass layer is in electric contact with the first heating layer, and that at least a part of the bypass layer is configured to reroute the electric current of the first heating layer to pass through the bypass layer when the electric conductivity through the first heating layer is reduced or interrupted in a failure region thereof, and thereby is provided an electric bypass in the bypass layer for the electric current to bypass the failure region. - a first heating layer comprising an electrically conducting element, resulting in the first heating layer being electrically conductive, - a first electric conductor that is electrically connected to the first heating layer at a first connection side of the first heating layer, - a second electric conductor that is electrically connected to the first heating layer at a second connection side of the first heating layer, and - wherein the first and second electric conductor (14, 24) are being connected to an electric power source such that an electric current can be directed through the first heating layer in a first general current direction between the first connection side and the second connection side,
A hybrid work machine, including: - an engine; - an electric motor connected to the engine in such a manner that a torque can be transmitted to the engine; - an electric storage device configured to supply electric power to the electric motor; - a monitoring device configured to monitor a state of the electric storage device and to acquire electric storage device information; - a hydraulic pump driven by power of the engine and power of the electric motor; and - a pump regulator configured to regulate a delivery flow rate of the hydraulic pump, characterized in that the hybrid work machine comprises: - an increasing rate computing section configured to compute an allowable increasing rate (r) in response to the electric storage device information for pump absorption power that is absorption power of the hydraulic pump; - a limited power computing section configured to compute limited pump power (WPlim) that is a limited value of the pump absorption power on the basis of the allowable increasing rate (r); and - a pump control section configured to output a command signal to the pump regulator in response to the limited pump power (WPlim) and to control the delivery flow rate of the hydraulic pump. - an engine; - an electric motor connected to the engine in such a manner that a torque can be transmitted to the engine; - an electric storage device configured to supply electric power to the electric motor; - a monitoring device configured to monitor a state of the electric storage device and to acquire electric storage device information; - a hydraulic pump driven by power of the engine and power of the electric motor; and - a pump regulator configured to regulate a delivery flow rate of the hydraulic pump, characterized in that - an increasing rate computing section configured to compute an allowable increasing rate (r) in response to the electric storage device information for pump absorption power that is absorption power of the hydraulic pump; - a limited power computing section configured to compute limited pump power (WPlim) that is a limited value of the pump absorption power on the basis of the allowable increasing rate (r); and - a pump control section configured to output a command signal to the pump regulator in response to the limited pump power (WPlim) and to control the delivery flow rate of the hydraulic pump.
Discharge region of a centrifugal compressor, comprising a scroll casing which is asymmetrically formed in the circumferential direction and can be positioned in different angular positions in the circumferential direction, and also a vaned diffuser which can be positioned in different angular positions in the circumferential direction, with a plurality of guide elements which are arranged in a distributed manner in the circumferential direction, wherein the angular spacing (α 0) of two guide elements which are arranged adjacently to each other differs from the angular spacing (α 1) of two other guide elements which are arranged adjacently to each other, characterized in that means (23, 33) are provided for positioning the vaned diffuser with regard to the angular position of the asymmetrically formed scroll casing.
System for delivering volatile substances, that comprises a carcass, said carcass comprising: - a container inside of which a volatile substances is housed, including an opening; - a ventilation surface placed above the container opening, provided with ventilation windows through which the fragrance of said volatile substances passes; and - a fan for the ventilation of the fragrance of said volatile substance, said fan being placed over said ventilation surface suctioning the fragrance of said volatile substance, - an air intake made up of a plurality of holes, - an outlet for the air suctioned by means of said fan, characterised in that said carcass comprises a protruding frame defining a cavity, said air outlet is formed by only one slit, said slit being located along the whole frame, through which passes the air drawn by said fan. - a container inside of which a volatile substances is housed, including an opening; - a ventilation surface placed above the container opening, provided with ventilation windows through which the fragrance of said volatile substances passes; and - a fan for the ventilation of the fragrance of said volatile substance, said fan being placed over said ventilation surface suctioning the fragrance of said volatile substance, - an air intake made up of a plurality of holes, - an outlet for the air suctioned by means of said fan, - an air intake made up of a plurality of holes, - an outlet for the air suctioned by means of said fan, characterised in that said carcass comprises a protruding frame defining a cavity, said air outlet is formed by only one slit, said slit being located along the whole frame, through which passes the air drawn by said fan.
Plant protection and/or plant growth promotion system, comprising at least one anchor peptide for increased binding to a plant organ or a plant part, a support function, which is indirectly or directly bound to the anchor peptide, and an active substance for protecting the plant and/or promoting plant growth and/or yield, wherein the active substance is physically or chemically bound to the support function.
Device for fastening an actuator, particularly an electric actuator, to a support, particularly a wall of a heating, ventilation and/or air conditioning system, the device including an actuator comprising a casing, along the perimeter of which a plurality of fastening areas are positioned, said actuator further comprising an output shaft protruding externally from the casing, and a support comprising a mounting seat into which the actuator can be fitted by axial insertion and subsequent rotation, the mounting seat comprising a bottom wall having an aperture provided for the insertion of the output shaft of the actuator, and a plurality of stop members protruding from the bottom wall, each of which is adapted to receive a corresponding fastening area of the casing of the actuator, and comprises a projection spaced away from the bottom wall of the mounting seat and having an axial stop surface facing toward the bottom wall of the mounting seat and provided for axially locking the casing of the actuator, wherein the mounting seat comprises a perimetral wall arranged around the mounting seat, with which wall said stop members are integrally formed, each stop member further comprising a perimetral wall extension which extends axially from the bottom wall and is laterally connected to the perimetral wall, the respective projection being axially connected to the respective perimetral wall extension and laterally connected to the perimetral wall, and wherein the fastening device further comprises at least one spring element formed on the bottom wall and/or the perimetral wall of the mounting seat, said spring element being engaged by the casing of the actuator during the axial insertion of the actuator, and springing at the end of the rotation of the casing of the actuator to rotationally lock the casing of the actuator between the spring element and the perimetral wall and/or the stop members of the mounting seat, wherein the casing of the actuator has an approximately rectangular body with four corners in plan view, the fastening areas being positioned at three of the four corners of the casing and the stop members being three in number, wherein, when the casing of the actuator is rotationally locked, said casing is retained on the one hand by the spring element which acts as a stop for a side surface of the casing of the actuator, and on the other hand by the perimetral wall extensions of the stop members, each of which acts as a stop for a respective fastening area, and by a portion of the perimetral wall which acts as a stop for a fourth corner of the casing.
A positioning method in micromachining process for a bulk silicon, comprising: fabricating a first pattern, a stepper lithography machine alignment mark configured to position the first pattern, and a first alignment mark for a double-sided lithography machine configured to position the stepper lithography machine alignment mark on a first surface of a first substrate; fabricating a second alignment mark for a double-sided lithography machine corresponding to the first alignment mark for a double-sided lithography machine on a second surface of the first substrate opposite to the first surface; bonding a second substrate on the first surface of the first substrate; performing a grinding process to a first surface of the second substrate; fabricating a third alignment mark for a double-sided lithography machine corresponding to the second alignment mark for a double-sided lithography machine on the first surface of the second substrate; and finding a position corresponding to the stepper lithography machine alignment mark by the third alignment mark for a double-sided lithography machine on the first surface of the second substrate. fabricating a first pattern, a stepper lithography machine alignment mark configured to position the first pattern, and a first alignment mark for a double-sided lithography machine configured to position the stepper lithography machine alignment mark on a first surface of a first substrate; fabricating a second alignment mark for a double-sided lithography machine corresponding to the first alignment mark for a double-sided lithography machine on a second surface of the first substrate opposite to the first surface; bonding a second substrate on the first surface of the first substrate; performing a grinding process to a first surface of the second substrate; fabricating a third alignment mark for a double-sided lithography machine corresponding to the second alignment mark for a double-sided lithography machine on the first surface of the second substrate; and finding a position corresponding to the stepper lithography machine alignment mark by the third alignment mark for a double-sided lithography machine on the first surface of the second substrate.
Method for sending data from a transmitting station, by means of a data transmission channel, to a receiving station which needs the data to carry out a necessary action on the basis of the data, wherein the data are sent in response to an identification signal representing an item of information relating to a free data transmission capacity of the data transmission channel, characterized in that the method has a step of analysing the identification signal with respect to a code which uniquely identifies the transmitting station as the transmitting station from which the data are to be sent, and from which the receiving station requires a data transmission, and in that the transmitting station transmits the data only when they are required by the receiving station.