mhurhangee/ep-ind-claims huggingface dataset:
A wind turbine blade with a leading edge protection system (9, 19, 27,60), wherein: the leading edge protection system (9, 19, 27, 60) comprises a shell portion (10, 18, 26, 82), a surface (15, 24, 32) of the shell portion (10, 18, 26, 82) forms part of an outer surface of the blade, the shell portion (10, 18, 26, 82) includes at least one cavity (12, 21, 29) integrally formed inside a material (11, 20, 28) of the shell portion (10, 18, 26, 82), and the at least one cavity is a closed cavity filled with a shock absorbing medium and/or the at least one cavity (21, 29) is filled with a shock absorbing material (22, 30); wherein the at least one closed cavity is filled with a gaseous medium characterised in that the leading edge protection system includes means to inflate the at least one cavity.
Storage container for a storage and dispensing station for a blister machine, comprising: a housing enclosing a receiving space, including an inside circular-cylindrical portion and a bottom surface having a dispensing opening, a separating device arranged in the inside circular-cylindrical portion of the housing having a conical surface facing the receiving space and having a plurality of channels extending vertically through the separating device having a channel width KB for receiving at least one small piece good to be separated and a retaining means having a retaining portion which is arranged above the dispensing opening in the circular-cylindrical housing, wherein the separating device comprises an electrically dischargeable discharging device, characterized in that the discharging device has at least one discharging projection extending from the conical surface of the separating device into the receiving space as well as a discharging contact means coupled in an electrically dischargeable manner to the at least one discharging projection for electrically coupling the discharging device to an electrically dischargeable component of a dispensing station which is assigned to the storage container and has a drive, so that the electrostatic charge of those small piece goods that are arranged above the surface of the separating device is reduced. a housing enclosing a receiving space, including an inside circular-cylindrical portion and a bottom surface having a dispensing opening, a separating device arranged in the inside circular-cylindrical portion of the housing having a conical surface facing the receiving space and having a plurality of channels extending vertically through the separating device having a channel width KB for receiving at least one small piece good to be separated and a retaining means having a retaining portion which is arranged above the dispensing opening in the circular-cylindrical housing, wherein the separating device comprises an electrically dischargeable discharging device, characterized in that the discharging device has at least one discharging projection extending from the conical surface of the separating device into the receiving space as well as a discharging contact means coupled in an electrically dischargeable manner to the at least one discharging projection for electrically coupling the discharging device to an electrically dischargeable component of a dispensing station which is assigned to the storage container and has a drive, so that the electrostatic charge of those small piece goods that are arranged above the surface of the separating device is reduced.
Magnetic flowmeter comprising: a flowtube; a flowtube module configured to sample a voltage induced in a fluid flowing through the flowtube and to generate a digital measurement signal representative thereof, said voltage being induced in response to a magnetic field applied to the fluid; wherein the flowtube module includes a processor-readable storage medium configured to store calibration data for the flowmeter and a flowtube processor connected to the processor-readable storage medium and configured to bundle the digital measurement signal and the calibration data by generating data packets including both the digital measurement signal and the calibration data; a transmitter module configured to generate a drive signal for driving the magnetic field applied to the fluid and to use the digital measurement signal and the calibration data to generate an output signal representative of a flow rate of the flowing fluid; and a single communication path between the flowtube module and the transmitter module for communicating both the drive signal from the transmitter module to the flowtube module and the digital measurement signal bundled with the calibration data from the flowtube module to the transmitter module. a flowtube; a flowtube module configured to sample a voltage induced in a fluid flowing through the flowtube and to generate a digital measurement signal representative thereof, said voltage being induced in response to a magnetic field applied to the fluid; wherein the flowtube module includes a processor-readable storage medium configured to store calibration data for the flowmeter and a flowtube processor connected to the processor-readable storage medium and configured to bundle the digital measurement signal and the calibration data by generating data packets including both the digital measurement signal and the calibration data; a transmitter module configured to generate a drive signal for driving the magnetic field applied to the fluid and to use the digital measurement signal and the calibration data to generate an output signal representative of a flow rate of the flowing fluid; and a single communication path between the flowtube module and the transmitter module for communicating both the drive signal from the transmitter module to the flowtube module and the digital measurement signal bundled with the calibration data from the flowtube module to the transmitter module.
A system for wirelessly detecting a status of a plurality of components (110A-1 10N) within a vehicle using a single connection, comprising: a plurality of modules (102A-102N) coupled with one or more sensors, wherein each of the modules is associated with a same type of component as the others of the modules and is configured to monitor a status of the associated component; wherein each of the modules comprises a wireless radio (104A-104N) and two electrical inputs (106, 108), wherein one of the electrical inputs is connected to a remote switch that when actuated disables the wireless radio, and wherein the other of the electrical inputs is connected to a second remote switch that when actuated causes the wireless radio to switch to a client; wherein each of the modules is configured to switch a configuration of its wireless radio between a wireless access point, WAP, and a client; wherein the system further comprises a processor and a set of instructions to dynamically configure a wireless radio of one of the modules to be the WAP and configure the wireless radios of the remaining modules to connect to the WAP as clients; and wherein the processor is further configured to automatically switch the module acting as the WAP to a client upon detection of a distinct wireless network of an aircraft server, and automatically connect the wireless radios of each module with the distinct wireless network of the aircraft server. a plurality of modules (102A-102N) coupled with one or more sensors, wherein each of the modules is associated with a same type of component as the others of the modules and is configured to monitor a status of the associated component; wherein each of the modules comprises a wireless radio (104A-104N) and two electrical inputs (106, 108), wherein one of the electrical inputs is connected to a remote switch that when actuated disables the wireless radio, and wherein the other of the electrical inputs is connected to a second remote switch that when actuated causes the wireless radio to switch to a client; wherein each of the modules is configured to switch a configuration of its wireless radio between a wireless access point, WAP, and a client; wherein the system further comprises a processor and a set of instructions to dynamically configure a wireless radio of one of the modules to be the WAP and configure the wireless radios of the remaining modules to connect to the WAP as clients; and wherein the processor is further configured to automatically switch the module acting as the WAP to a client upon detection of a distinct wireless network of an aircraft server, and automatically connect the wireless radios of each module with the distinct wireless network of the aircraft server.
A motor torque control device for an electric vehicle, comprising: a) a storage unit; b) gear stage detection means for detecting a gear stage of a transmission of the electric vehicle, which uses an electric motor as a power source, in current travelling; c) motor rotating speed detection means for detecting a motor rotating speed of the electric motor in current travelling; d) driving wheel rotating speed detection means for detecting a driving wheel rotating speed of the electric vehicle in current travelling; and e) motor torque control means for controlling motor output torque of the electric motor in current travelling, f) wherein the storage unit stores theoretical drive ratios corresponding with the gear stages respectively, and g) wherein, when a first gear stage is shifted down to a second gear stage, the motor torque control means makes the motor output torque increased, in the case that a relative value of a current drive ratio calculated on the basis of the motor rotating speed and the driving wheel rotating speed with respect to the theoretical drive ratio corresponding with the second gear stage is equal to or greater than a first threshold value, so that the current drive ratio becomes close to the theoretical drive ratio corresponding with the second gear stage; and h) wherein the relative value is the difference or the rate of the current drive ratio with respect to the theoretical drive ratio. a) a storage unit; b) gear stage detection means for detecting a gear stage of a transmission of the electric vehicle, which uses an electric motor as a power source, in current travelling; c) motor rotating speed detection means for detecting a motor rotating speed of the electric motor in current travelling; d) driving wheel rotating speed detection means for detecting a driving wheel rotating speed of the electric vehicle in current travelling; and e) motor torque control means for controlling motor output torque of the electric motor in current travelling, f) wherein the storage unit stores theoretical drive ratios corresponding with the gear stages respectively, and g) wherein, when a first gear stage is shifted down to a second gear stage, the motor torque control means makes the motor output torque increased, in the case that a relative value of a current drive ratio calculated on the basis of the motor rotating speed and the driving wheel rotating speed with respect to the theoretical drive ratio corresponding with the second gear stage is equal to or greater than a first threshold value, so that the current drive ratio becomes close to the theoretical drive ratio corresponding with the second gear stage; and h) wherein the relative value is the difference or the rate of the current drive ratio with respect to the theoretical drive ratio.
A method for producing oxalic acid comprising: receiving an anolyte feed at an anolyte region of an electrochemical cell including an anode; receiving a catholyte feed including carbon dioxide and an alkali metal hydroxide at a catholyte region of the electrochemical cell including a cathode; applying an electrical potential between the anode and the cathode sufficient to reduce the carbon dioxide to at least one reduction product; converting the at least one reduction product and the alkali metal hydroxide to an alkali metal oxalate via a thermal reactor; receiving the alkali metal oxalate at an electrochemical acidification electrolyzer; and converting the alkali metal oxalate to oxalic acid at an electrochemical acidification electrolyzer. receiving an anolyte feed at an anolyte region of an electrochemical cell including an anode; receiving a catholyte feed including carbon dioxide and an alkali metal hydroxide at a catholyte region of the electrochemical cell including a cathode; applying an electrical potential between the anode and the cathode sufficient to reduce the carbon dioxide to at least one reduction product; converting the at least one reduction product and the alkali metal hydroxide to an alkali metal oxalate via a thermal reactor; receiving the alkali metal oxalate at an electrochemical acidification electrolyzer; and converting the alkali metal oxalate to oxalic acid at an electrochemical acidification electrolyzer.
Apparatus for implanting in a heart of a human subject, the apparatus comprising: an interatrial anchor shaped to define an opening having a diameter of 4-8 mm; and a bag in fluid communication with the opening of the anchor, the apparatus having a capacity of between 4 and 20 cm 3 and being shaped to fit within a right atrium of the heart of the subject and characterized in that, when implanted, during atrial diastole, blood from a left atrium of the heart of the subject is received through the opening of the interatrial anchor into the bag, and during atrial systole, musculature of the right atrium compresses the bag to pump the blood into the left atrium. an interatrial anchor shaped to define an opening having a diameter of 4-8 mm; and a bag in fluid communication with the opening of the anchor, the apparatus having a capacity of between 4 and 20 cm 3 and being shaped to fit within a right atrium of the heart of the subject and characterized in that, when implanted, during atrial diastole, blood from a left atrium of the heart of the subject is received through the opening of the interatrial anchor into the bag, and during atrial systole, musculature of the right atrium compresses the bag to pump the blood into the left atrium.
A composition comprising an ethylene/alpha-olefin/non-conjugated polyene, and wherein the ethylene/alpha-olefin/non-conjugated polyene comprises the following property: a "13C NMR % iCB Peak Area," which is the {[(13C NMR peak area from 34.4 ppm to 34.6 ppm) divided by (the 13C NMR sum integral area from 160.0 to 100.0 and from 60.0 ppm to 0.00 ppm (whole spectra excluding tetrachloroethane solvent))] × 100}, that is > 0.010%, as determined by 13C NMR.
An underwater communication system comprising: an underwater structure that includes a shell body and that is disposed underwater, the shell body having a watertight structure; a non-conductive propagation cable that includes one end portion being brought into contact with an outside of the shell body; and a transmitting/reception unit (9, 10) that is arranged in the underwater structure and that wirelessly transmits and/or wirelessly receives an radio wave propagated through the propagation cable, characterized in that the one end portion of the propagation cable is fixed to the shell body, without making a hole in the shell body of the underwater structure, and the propagation cable includes a suction cup integrally formed at the one end portion, and the propagation cable is fixed to the shell body in such a manner that the suction cup is caused to adhere on an outside of the shell body. an underwater structure that includes a shell body and that is disposed underwater, the shell body having a watertight structure; a non-conductive propagation cable that includes one end portion being brought into contact with an outside of the shell body; and a transmitting/reception unit (9, 10) that is arranged in the underwater structure and that wirelessly transmits and/or wirelessly receives an radio wave propagated through the propagation cable, characterized in that the one end portion of the propagation cable is fixed to the shell body, without making a hole in the shell body of the underwater structure, and the propagation cable includes a suction cup integrally formed at the one end portion, and the propagation cable is fixed to the shell body in such a manner that the suction cup is caused to adhere on an outside of the shell body.
A collimator comprising: a leaf unit having a leaf (1908, 2207); a motor configured to drive the leaf (1908, 2207); and an elongated and flexible transmission unit having a first end and a second end; wherein the first end of the elongated and flexible transmission unit is connected to the motor and the second end of the elongated and flexible transmission unit is connected to the leaf (1908, 2207), and characterized in that the elongated and flexible transmission unit comprises a transmission line and an elastic piece operably connected to the transmission line, wherein the transmission line is configured to provide the leaf (1908, 2207) a pulling force, and the elastic piece is configured to provide the leaf (1908, 2207) an elastic force. a leaf unit having a leaf (1908, 2207); a motor configured to drive the leaf (1908, 2207); and an elongated and flexible transmission unit having a first end and a second end; wherein the first end of the elongated and flexible transmission unit is connected to the motor and the second end of the elongated and flexible transmission unit is connected to the leaf (1908, 2207), and characterized in that the elongated and flexible transmission unit comprises a transmission line and an elastic piece operably connected to the transmission line, wherein the transmission line is configured to provide the leaf (1908, 2207) a pulling force, and the elastic piece is configured to provide the leaf (1908, 2207) an elastic force.
A method for providing differentiated access control to individual applications on a computing device, the method comprising: differentiating applications into different classes of applications forming a plurality of application subsets (530, 540) comprising a first application subset and a second application subset; setting an expiry time on the computing device for each of the plurality of application subsets (530, 540), the expiry time for each of the plurality of application subsets (530, 540) being independently configurable; resetting the expiry time for at least one of the application subsets if activity occurs on the computing device prior to the expiry time for the at least one application subset; and locking each application associated with the first application subset to prevent each application associated with that first application subset from being launched or enabled if the expiry time for that first application subset is reached while allowing the launching or enablement of one or more applications associated with the second application subset unless the second application subset is locked, the applications of the first application subset being locked until determination of a successful authentication effects an unlocking of the first application subset. differentiating applications into different classes of applications forming a plurality of application subsets (530, 540) comprising a first application subset and a second application subset; setting an expiry time on the computing device for each of the plurality of application subsets (530, 540), the expiry time for each of the plurality of application subsets (530, 540) being independently configurable; resetting the expiry time for at least one of the application subsets if activity occurs on the computing device prior to the expiry time for the at least one application subset; and locking each application associated with the first application subset to prevent each application associated with that first application subset from being launched or enabled if the expiry time for that first application subset is reached while allowing the launching or enablement of one or more applications associated with the second application subset unless the second application subset is locked, the applications of the first application subset being locked until determination of a successful authentication effects an unlocking of the first application subset.
A method for symbol compensation, comprising, for a symbol consisting of a first portion and a second portion, the symbol is an Orthogonal Frequency Division Multiplexing (OFDM) symbol containing a set of constellation symbols in a modulation constellation, the method comprises: - estimating a length of the first portion; - calculating an average power of the first portion and an average power of the second portion based on the length of the first portion; - determining a relative scaling factor by which the average power of the first portion is scaled relative to that of the second portion; and - compensating for the first portion based on the relative scaling factor, characterized in that said estimating comprises: - creating a sequence of amplitude values comprising amplitude values of constellation symbols in the set that are mapped onto constellation points with highest amplitude values in the modulation constellation; - deriving a threshold based on the sequence; and - estimating the length of the first portion based on the number of amplitude values preceding the first amplitude value in the sequence that is larger than the threshold. - estimating a length of the first portion; - calculating an average power of the first portion and an average power of the second portion based on the length of the first portion; - determining a relative scaling factor by which the average power of the first portion is scaled relative to that of the second portion; and - compensating for the first portion based on the relative scaling factor, - creating a sequence of amplitude values comprising amplitude values of constellation symbols in the set that are mapped onto constellation points with highest amplitude values in the modulation constellation; - deriving a threshold based on the sequence; and - estimating the length of the first portion based on the number of amplitude values preceding the first amplitude value in the sequence that is larger than the threshold.
A vehicle brake control device comprising: a wheel deceleration calculating unit configured to calculate a wheel deceleration of each of wheels of a vehicle; and a front and rear wheel braking distribution controlling unit configured to execute a front and rear wheel braking distribution control for distributing a braking force on front and rear wheels, characterized in that the front and rear wheel braking distribution controlling unit is configured to start the front and rear wheel braking distribution control on front and rear wheels of one of left and right sides if an absolute value of a wheel deceleration of the front wheel is equal to or larger than a first threshold and an absolute value of a wheel deceleration of the rear wheel is equal to or larger than a second threshold. a wheel deceleration calculating unit configured to calculate a wheel deceleration of each of wheels of a vehicle; and a front and rear wheel braking distribution controlling unit configured to execute a front and rear wheel braking distribution control for distributing a braking force on front and rear wheels, characterized in that the front and rear wheel braking distribution controlling unit is configured to start the front and rear wheel braking distribution control on front and rear wheels of one of left and right sides if an absolute value of a wheel deceleration of the front wheel is equal to or larger than a first threshold and an absolute value of a wheel deceleration of the rear wheel is equal to or larger than a second threshold.