mhurhangee/ep-ind-claims huggingface dataset:
A method of detecting a fault on a far-end power converter (14; 14 1, 14 2) within a DC transmission network (10, 40, 70) comprising a near-end power converter (12, 12 3) and at least one far-end power converter (14; 14 1, 14 2) interconnected with one another by one or more portions (16, 42, 44) of transmission medium, the method comprising the steps of: (a) establishing a linear time-invariant model (22; 48; 58) of the transmission medium lying between the or each far-end power converter (14; 14 1, 14 2) and the near-end power converter (12; 12 3); (b) determining a response characteristic of the time-invariant model (22; 48; 58); (c) measuring an output operating property (y a, y b) of the transmission medium at the near-end power converter (12, 12 3); (d) identifying one far-end power converter (14; 14 1, 14 2) as a far-end power converter of interest; (e) deriving a corresponding input operating property (x a, x b) of the transmission medium at the far-end power converter of interest by applying an inverse of the response characteristic of the time-invariant model (22; 48; 58) to the measured output operating property (y a, y b) of the transmission medium at the near-end power converter (12; 12 3); and (f) comparing the derived input operating property (x a, x b) of the transmission medium at the far-end power converter of interest with a fault characteristic to determine whether there is a fault on the far-end power converter of interest. (a) establishing a linear time-invariant model (22; 48; 58) of the transmission medium lying between the or each far-end power converter (14; 14 1, 14 2) and the near-end power converter (12; 12 3); (b) determining a response characteristic of the time-invariant model (22; 48; 58); (c) measuring an output operating property (y a, y b) of the transmission medium at the near-end power converter (12, 12 3); (d) identifying one far-end power converter (14; 14 1, 14 2) as a far-end power converter of interest; (e) deriving a corresponding input operating property (x a, x b) of the transmission medium at the far-end power converter of interest by applying an inverse of the response characteristic of the time-invariant model (22; 48; 58) to the measured output operating property (y a, y b) of the transmission medium at the near-end power converter (12; 12 3); and (f) comparing the derived input operating property (x a, x b) of the transmission medium at the far-end power converter of interest with a fault characteristic to determine whether there is a fault on the far-end power converter of interest.
Fitting part for a drive rod fitting of a window, a window door or the like, having two components that are movable relative to one another and having a bearing gap between the two components that are movable relative to one another, characterized in that a non-running, plastically deformable material is arranged in the bearing gap.
A dental furnace for firing dental-ceramic compounds, comprising a firing chamber for receiving ceramic elements to be fired, and a heating device for heating/firing said ceramic element, characterized in that said heating device comprises at least one quick-response heating element for producing IR radiation in the range of 0.8 - 5 μm, wherein the at least one heating element has one or several resistance heating conductors consisting of tungsten and molybdenum, and the resistance heating conductor(s) is/are each arranged in a gas-filled chamber made of material permeable to infrared radiation and heat-resistant up to at least 1100 °C. a firing chamber for receiving ceramic elements to be fired, and a heating device for heating/firing said ceramic element, characterized in that said heating device comprises at least one quick-response heating element for producing IR radiation in the range of 0.8 - 5 μm, wherein the at least one heating element has one or several resistance heating conductors consisting of tungsten and molybdenum, and the resistance heating conductor(s) is/are each arranged in a gas-filled chamber made of material permeable to infrared radiation and heat-resistant up to at least 1100 °C.
A disposable loading unit for use with a surgical cutting and stapling apparatus, said disposable loading unit comprising: a carrier; a housing coupled to said carrier and configured for operable attachment to the surgical stapling apparatus; a staple cartridge supported in said carrier; an anvil assembly movably coupled to said carrier for selective movable travel between open and closed positions relative to said staple cartridge; an axial drive assembly having a distal end portion supporting a blade, said distal end portion constructed to move in a distal direction through said staple cartridge in response to a drive motion imparted to said axial drive assembly from the surgical stapling apparatus; and a blade monitoring system operably associated with said axial drive assembly and configured to detect strain experienced by said blade, and transmit data related thereto to the surgical instrument to which said disposable loading unit is attached. a carrier; a housing coupled to said carrier and configured for operable attachment to the surgical stapling apparatus; a staple cartridge supported in said carrier; an anvil assembly movably coupled to said carrier for selective movable travel between open and closed positions relative to said staple cartridge; an axial drive assembly having a distal end portion supporting a blade, said distal end portion constructed to move in a distal direction through said staple cartridge in response to a drive motion imparted to said axial drive assembly from the surgical stapling apparatus; and a blade monitoring system operably associated with said axial drive assembly and configured to detect strain experienced by said blade, and transmit data related thereto to the surgical instrument to which said disposable loading unit is attached.
Method for wirelessly, in particular inductively, transmitting energy from an energy transmitting device to a load, wherein at least one method step (46, 50) comprises capturing at least one resonant frequency (f res) and an actual quality (Q act,n+1 (f res)) as a value point (80, 82, 84, 86, 88, 90) of the wireless energy transmission and at least one further method step (54, 56) comprises making a decision to interrupt the energy transmission from the energy transmitting device to the load for a foreign object detection, characterized in that the decision to perform the foreign object detection is based on a hysteresis for the limits of the resonant frequency (f res) and the actual quality (Q act,n+1 (f res)) in such a way that the hysteresis consists of at least three hysteresis regions (74, 76, 78) for the limits of the resonant frequency (f res) and the actual quality (Q act,n+1 (f res)), and in that after a cycle time (T cycle) has elapsed the further method step (54, 56) comprises determining in which hysteresis region (74, 76, 78) the value point (80, 82, 84, 86, 88, 90) lies.
A trampoline with a jumping mat mounted in a frame, wherein the frame is mounted on a ground part so as to be adjustable in inclination, and the trampoline is movable in a transport position, wherein the frame with the jumping mat is adjustable in discrete, different inclination positions relative to the ground part and the inclination positions can be fixed by means of at least one clamping mechanism, characterised in that the clamping mechanism for specifying inclination positions has an arrangement of latching means on the frame and a latching receptacle on the ground part, in that the latching means are arranged on a support pivotably mounted on the frame and in that the trampoline has two identically designed clamping mechanisms on opposite sides.
A vehicle lamp, comprising: a light source unit comprising at least one light source configured to generate light; a shield portion located closer to a front of the vehicle lamp as compared to the light source unit, and configured to receive the light generated by the light source and to transmit at least a portion of the received light to form a beam pattern, the shield portion comprising: a first shield configured to form at least part of the beam pattern; and a second shield having a light transmittance that is configured to be controlled to modify the beam pattern; a drive unit configured to drive the shield portion; and at least one processor configured to control at least one of the shield portion or the drive unit to modify the beam pattern, characterized in that the first shield is provided at a first side of a rotatable body, and the second shield is provided at a second side opposite to the first side. a light source unit comprising at least one light source configured to generate light; a shield portion located closer to a front of the vehicle lamp as compared to the light source unit, and configured to receive the light generated by the light source and to transmit at least a portion of the received light to form a beam pattern, the shield portion comprising: a first shield configured to form at least part of the beam pattern; and a second shield having a light transmittance that is configured to be controlled to modify the beam pattern; a drive unit configured to drive the shield portion; and at least one processor configured to control at least one of the shield portion or the drive unit to modify the beam pattern, a first shield configured to form at least part of the beam pattern; and a second shield having a light transmittance that is configured to be controlled to modify the beam pattern; a drive unit configured to drive the shield portion; and at least one processor configured to control at least one of the shield portion or the drive unit to modify the beam pattern, characterized in that the first shield is provided at a first side of a rotatable body, and the second shield is provided at a second side opposite to the first side.
A switching power supply including a first auxiliary power supply for causing a secondary winding and a first auxiliary winding of a transformer to induce voltage by ON/OFF control of a switching element connected to a primary winding of the transformer, the voltage induced by the secondary winding being smoothened to output a DC voltage, and the voltage induced by the first auxiliary winding being smoothened to charge a capacitor in the first auxiliary power supply, the switching power supply comprising: a control circuit for starting the ON/OFF control of the switching element when a voltage of the capacitor becomes greater than or equal to a first threshold value, causing the secondary winding of the transformer and the first auxiliary winding to induce voltage by the ON/OFF control, and stopping the ON/OFF control when the voltage of the capacitor becomes smaller than or equal to a second threshold value smaller than the first threshold value; an activation circuit for charging the capacitor with voltage from power supply input to the switching power supply; the switching power supply being characterised by further comprising: a determination unit for determining a lifespan of the switching power supply based on the voltage of the capacitor after the voltage of the capacitor becomes greater than or equal to the first threshold value. a control circuit for starting the ON/OFF control of the switching element when a voltage of the capacitor becomes greater than or equal to a first threshold value, causing the secondary winding of the transformer and the first auxiliary winding to induce voltage by the ON/OFF control, and stopping the ON/OFF control when the voltage of the capacitor becomes smaller than or equal to a second threshold value smaller than the first threshold value; an activation circuit for charging the capacitor with voltage from power supply input to the switching power supply; the switching power supply being characterised by further comprising: a determination unit for determining a lifespan of the switching power supply based on the voltage of the capacitor after the voltage of the capacitor becomes greater than or equal to the first threshold value. a determination unit for determining a lifespan of the switching power supply based on the voltage of the capacitor after the voltage of the capacitor becomes greater than or equal to the first threshold value.
A molecular sieve having, in its calcined form, an X-ray diffraction pattern including the peaks listed in the following table: 2-Theta d -Spacing, nm Relative Intensity 7.80 ± 0.30 1.133 W 9.02 ± 0.30 0.979 VS 9.78 ± 0.30 0.904 M 15.69 ± 0.30 0.564 S 16.72 ± 0.30 0.530 W 18.28 ± 0.30 0.485 VS 21.04 ± 0.30 0.422 W 23.53 ± 0.30 0.378 M 26.22 ± 0.30 0.340 VS 27.36 ± 0.30 0.326 W.
Apparatus for the transmission of video data to a vehicle (10, 20), comprising - stationary video cameras (160, 170) for capturing video data, - at least one stationary transmitting device for transmitting the captured video data in a radio-based manner, - a position determining device for determining the position of the vehicle (10, 20), and - a vehicle-side receiving device for receiving the transmitted video data of at least one of the video cameras (160, 170) in a radio-based manner, characterized in that - the at least one transmitting device is configured in such a way that the video data for at least one portion of the video cameras (160, 170) are transmitted on different radio channels (26, 181), such that by selecting at least one of the radio channels, the video data are also selected, - provision is made of a vehicle-side control device for selecting at least one of the radio channels (26, 181) depending on the determined position of the vehicle (10, 20), and - the vehicle-side receiving device is configured for receiving, in a radio-based manner, the video data of the at least one of the video cameras (160, 170) that are transmitted on the at least one selected radio channel (26, 181). - stationary video cameras (160, 170) for capturing video data, - at least one stationary transmitting device for transmitting the captured video data in a radio-based manner, - a position determining device for determining the position of the vehicle (10, 20), and - a vehicle-side receiving device for receiving the transmitted video data of at least one of the video cameras (160, 170) in a radio-based manner, - the at least one transmitting device is configured in such a way that the video data for at least one portion of the video cameras (160, 170) are transmitted on different radio channels (26, 181), such that by selecting at least one of the radio channels, the video data are also selected, - provision is made of a vehicle-side control device for selecting at least one of the radio channels (26, 181) depending on the determined position of the vehicle (10, 20), and - the vehicle-side receiving device is configured for receiving, in a radio-based manner, the video data of the at least one of the video cameras (160, 170) that are transmitted on the at least one selected radio channel (26, 181).
An in-device coexistence, IDC, indication message sending method, wherein the method comprises: Receiving, by a terminal device, configuration information sent by a network device; and if the configuration information indicates that the terminal device can send an IDC indication message, sending, by the terminal device, the IDC indication message to the network device, wherein the IDC indication message comprises interfering frequency indication information; wherein the interfering frequency indication information is used to indicate supplementary uplink SUL frequency information or a type of an interfering frequency, wherein the type of the interfering frequency includes the normal uplink frequency and the SUL frequency, and the interfering frequency indication information comprises a measurement object MO of the interfering frequency or the SUL frequency information of the interfering frequency. Receiving, by a terminal device, configuration information sent by a network device; and if the configuration information indicates that the terminal device can send an IDC indication message, sending, by the terminal device, the IDC indication message to the network device, wherein the IDC indication message comprises interfering frequency indication information; wherein the interfering frequency indication information is used to indicate supplementary uplink SUL frequency information or a type of an interfering frequency, wherein the type of the interfering frequency includes the normal uplink frequency and the SUL frequency, and the interfering frequency indication information comprises a measurement object MO of the interfering frequency or the SUL frequency information of the interfering frequency.
A device comprising: a transmit chain operable for receiving an input comprising a digital form of a first signal and for converting the digital form of the first signal into an analog form of the first signal; a receive chain; and a cancellation block coupled to the receive chain and the transmit chain, wherein the transmit chain is further operable for transmitting the analog form of the first signal while a second signal is being received by the receive chain in a frequency band that overlaps a frequency band used for transmitting the first signal, wherein the cancellation block is operable for generating a third signal that accounts for interference between the first signal transmitted by the transmit chain and the second signal received by the receive chain, and wherein the receive chain is operable for applying the third signal to the second signal received by the receive chain to produce a compensated second signal; characterized in that an analog form of the second signal received by the receive chain and the analog form of the first signal transmitted by the transmit chain are input to the cancellation block via a feedback chain that is parallel to the transmit chain and the receive chain, the feedback chain comprising analog-to-digital converters. a transmit chain operable for receiving an input comprising a digital form of a first signal and for converting the digital form of the first signal into an analog form of the first signal; a receive chain; and a cancellation block coupled to the receive chain and the transmit chain, wherein the transmit chain is further operable for transmitting the analog form of the first signal while a second signal is being received by the receive chain in a frequency band that overlaps a frequency band used for transmitting the first signal, wherein the cancellation block is operable for generating a third signal that accounts for interference between the first signal transmitted by the transmit chain and the second signal received by the receive chain, and wherein the receive chain is operable for applying the third signal to the second signal received by the receive chain to produce a compensated second signal; characterized in that an analog form of the second signal received by the receive chain and the analog form of the first signal transmitted by the transmit chain are input to the cancellation block via a feedback chain that is parallel to the transmit chain and the receive chain, the feedback chain comprising analog-to-digital converters.
A bone fixation system, comprising: an insertion guide, comprising: a handle member having a first end and a second end, the handle member comprising: a body disposed at the first end of the handle member; and an alignment member extending from a portion of the body to the second end of the handle member, wherein the body is wider than the alignment member, and wherein the alignment member forms an oblique first angle (β) relative to the body; and a guide member coupled to the second end of the handle member, wherein the guide member is curved, wherein the guide member has a bone contacting surface on a distal end of the guide member, and wherein the bone contacting surface is curved to match a portion of an exterior surface of a metatarsal bone; a guide wire, wherein the guide member has a through hole for receiving the guide wire; and a fastener with a cannulation for receiving the guide wire. an insertion guide, comprising: a handle member having a first end and a second end, the handle member comprising: a body disposed at the first end of the handle member; and an alignment member extending from a portion of the body to the second end of the handle member, wherein the body is wider than the alignment member, and wherein the alignment member forms an oblique first angle (β) relative to the body; and a guide member coupled to the second end of the handle member, wherein the guide member is curved, wherein the guide member has a bone contacting surface on a distal end of the guide member, and wherein the bone contacting surface is curved to match a portion of an exterior surface of a metatarsal bone; a handle member having a first end and a second end, the handle member comprising: a body disposed at the first end of the handle member; and an alignment member extending from a portion of the body to the second end of the handle member, wherein the body is wider than the alignment member, and wherein the alignment member forms an oblique first angle (β) relative to the body; and a body disposed at the first end of the handle member; and an alignment member extending from a portion of the body to the second end of the handle member, wherein the body is wider than the alignment member, and wherein the alignment member forms an oblique first angle (β) relative to the body; and a guide member coupled to the second end of the handle member, wherein the guide member is curved, wherein the guide member has a bone contacting surface on a distal end of the guide member, and wherein the bone contacting surface is curved to match a portion of an exterior surface of a metatarsal bone; a guide wire, wherein the guide member has a through hole for receiving the guide wire; and a fastener with a cannulation for receiving the guide wire.
A method, performed by a processor, for determining a heart-rate variability, HRV, measurement of a user, comprising: receiving, from a sensor of an electronic device of the user, heart sensor data, wherein the heart sensor data comprises data on a photoplethysmograph, PPG, signal over a noise-calculation time period; computing the HRV measurement of the user based on the received heart sensor data; calculating an error-noise estimation associated with the PPG signal; quantifying an amount of noise of the PPG signal based on the error-noise estimation associated with the PPG signal to determine a noise level of the received heart sensor data; and adjusting the HRV measurement by an amount calculated based on the determined noise level. receiving, from a sensor of an electronic device of the user, heart sensor data, wherein the heart sensor data comprises data on a photoplethysmograph, PPG, signal over a noise-calculation time period; computing the HRV measurement of the user based on the received heart sensor data; calculating an error-noise estimation associated with the PPG signal; quantifying an amount of noise of the PPG signal based on the error-noise estimation associated with the PPG signal to determine a noise level of the received heart sensor data; and adjusting the HRV measurement by an amount calculated based on the determined noise level.
Use of a composition comprising guanidinoacetic acid and glycine for reducing feather loss in birds during rearing, during keeping or during fattening of the birds.