mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: receiving, by a first computing device (129, 206) from a user device (120, 122, 124, 202) via a first communication connection, a first request for content, wherein the first request for the content is based on a Domain Name System -DNS-communication that indicates the first computing device; sending, by the first computing device (129, 206) to the user device (120, 122, 124, 202) and after determining a second computing device (130, 208) to send the content to the user device (120, 122, 124, 202), a communication causing a TCP reset of the first communication connection; establishing a second communication connection between the first computing device (129, 206) and the user device (120, 122, 124, 202); receiving, by the first computing device (129, 206) from the user device (120, 122, 124, 202) via the second communication connection and based on the communication that indicates the TCP reset, a second request for the content; and sending, by the first computing device (129, 206) to the second computing device (130, 208) and based on the second request for the content, a data packet that encapsulates the second request for the content. receiving, by a first computing device (129, 206) from a user device (120, 122, 124, 202) via a first communication connection, a first request for content, wherein the first request for the content is based on a Domain Name System -DNS-communication that indicates the first computing device; sending, by the first computing device (129, 206) to the user device (120, 122, 124, 202) and after determining a second computing device (130, 208) to send the content to the user device (120, 122, 124, 202), a communication causing a TCP reset of the first communication connection; establishing a second communication connection between the first computing device (129, 206) and the user device (120, 122, 124, 202); receiving, by the first computing device (129, 206) from the user device (120, 122, 124, 202) via the second communication connection and based on the communication that indicates the TCP reset, a second request for the content; and sending, by the first computing device (129, 206) to the second computing device (130, 208) and based on the second request for the content, a data packet that encapsulates the second request for the content.
A negative electrode for lithium secondary batteries, the negative electrode comprising: a negative electrode current collector; and a lithiophilic material coated on at least one surface of the negative electrode current collector in a dispersed state, wherein the lithiophilic material is an oxidized product of the coating material coated on the negative electrode current collector and comprises at least one of a metal or a metal oxide, and an oxide layer is formed on a surface of the negative electrode current collector while the lithiophilic material is formed thereon, wherein the coating material is at least one of: a metal salt comprising HAuCl 4, H 2 PtCl 6, AgNO 2, AuCl, Aucl 3, K(AuCl 4), AuBr 3, PtCl 2, PtCl 4, AgCl, or AgCN; a metal comprising Au, Ag, or Pt; and wherein the lithiophilic material is at least one of: a metal comprising Au, Ag, or Pt. a negative electrode current collector; and a lithiophilic material coated on at least one surface of the negative electrode current collector in a dispersed state, wherein the lithiophilic material is an oxidized product of the coating material coated on the negative electrode current collector and comprises at least one of a metal or a metal oxide, and an oxide layer is formed on a surface of the negative electrode current collector while the lithiophilic material is formed thereon, wherein the coating material is at least one of: a metal salt comprising HAuCl 4, H 2 PtCl 6, AgNO 2, AuCl, Aucl 3, K(AuCl 4), AuBr 3, PtCl 2, PtCl 4, AgCl, or AgCN; a metal comprising Au, Ag, or Pt; and wherein the lithiophilic material is at least one of: a metal comprising Au, Ag, or Pt.
A method for increasing the extensibility of a dough comprising a) adding a gamma glutamyl transpeptidase (E.C.2.3.2.2) to flour or to a dough comprising a flour, wherein the gamma glutamyl transpeptidase has at least 60% identity with SEQ ID NO:1; and b) making the dough, wherein the dough has an extensibility which is increased compared to the extensibility of a dough which is prepared under the same conditions, but without treatment with the gamma glutamyl transpeptidase. a) adding a gamma glutamyl transpeptidase (E.C.2.3.2.2) to flour or to a dough comprising a flour, wherein the gamma glutamyl transpeptidase has at least 60% identity with SEQ ID NO:1; and b) making the dough,
A method for detecting a position of a magnetic pole of a rotor of a single-phase BLDC motor, the method comprising: applying a high frequency voltage having a frequency of 500 Hz or higher to the motor such that the rotor does not receive a magnetic attractive force or repulsive force for a sufficient time to be rotated and is maintained in a stopped state; eliminating a high frequency component of an offset current flowing in the motor, wherein the high frequency component eliminated has a frequency of 500 Hz or higher; determining whether a magnitude of the offset current flowing in the motor increases or decreases; and detecting the position of the magnetic pole of the rotor of the motor with respect to a magnetic pole formed in a stator of the motor based on whether the magnitude of the offset current increases or decreases and based on a current flowing direction; wherein detecting the position of the magnetic pole of the rotor comprises: i n response to an increase in the magnitude of the offset current flowing in a specific direction, determining that the magnetic pole formed in the stator by the offset current flowing in the specific direction has a different polarity than the magnetic pole of the rotor adjacent to the magnetic pole formed in the stator, and/or i n response to a decrease in the magnitude of the offset current flowing in the specific direction, determining that the magnetic pole formed in the stator by the offset current flowing in the specific direction has the same polarity than the magnetic pole of the rotor adjacent to the magnetic pole formed in the stator. applying a high frequency voltage having a frequency of 500 Hz or higher to the motor such that the rotor does not receive a magnetic attractive force or repulsive force for a sufficient time to be rotated and is maintained in a stopped state; eliminating a high frequency component of an offset current flowing in the motor, wherein the high frequency component eliminated has a frequency of 500 Hz or higher; determining whether a magnitude of the offset current flowing in the motor increases or decreases; and detecting the position of the magnetic pole of the rotor of the motor with respect to a magnetic pole formed in a stator of the motor based on whether the magnitude of the offset current increases or decreases and based on a current flowing direction; i n response to an increase in the magnitude of the offset current flowing in a specific direction, determining that the magnetic pole formed in the stator by the offset current flowing in the specific direction has a different polarity than the magnetic pole of the rotor adjacent to the magnetic pole formed in the stator, and/or i n response to a decrease in the magnitude of the offset current flowing in the specific direction, determining that the magnetic pole formed in the stator by the offset current flowing in the specific direction has the same polarity than the magnetic pole of the rotor adjacent to the magnetic pole formed in the stator.
An apparatus comprising: a low noise amplifier, LNA, (240a, 244a) having an input configured to receive a radio frequency signal; and a notch filter coupled to the input of the LNA (240a, 244a) and configured to attenuate the radio frequency signal at a notch frequency, the notch filter comprising: a mixer coupled to the input of the LNA (240a, 244a); and an operational amplifier; a feedback stage comprising a second mixer and a transconductance device; wherein the operational amplifier is coupled to an output of the mixer and coupled to an input of the second mixer, wherein an output of the second mixer is coupled to the input of the transconductance device, wherein an output of the transconductance device is coupled to the input of the LNA (240a, 244a), wherein each of the mixer and the second mixer has a respective second input configured to receive a transmit local oscillator signal for mixing the respective input signal. a low noise amplifier, LNA, (240a, 244a) having an input configured to receive a radio frequency signal; and a notch filter coupled to the input of the LNA (240a, 244a) and configured to attenuate the radio frequency signal at a notch frequency, the notch filter comprising: a mixer coupled to the input of the LNA (240a, 244a); and an operational amplifier; a feedback stage comprising a second mixer and a transconductance device; wherein the operational amplifier is coupled to an output of the mixer and coupled to an input of the second mixer, wherein an output of the second mixer is coupled to the input of the transconductance device, wherein an output of the transconductance device is coupled to the input of the LNA (240a, 244a), wherein each of the mixer and the second mixer has a respective second input configured to receive a transmit local oscillator signal for mixing the respective input signal. a mixer coupled to the input of the LNA (240a, 244a); and an operational amplifier; a feedback stage comprising a second mixer and a transconductance device; wherein the operational amplifier is coupled to an output of the mixer and coupled to an input of the second mixer, wherein an output of the second mixer is coupled to the input of the transconductance device, wherein an output of the transconductance device is coupled to the input of the LNA (240a, 244a), wherein each of the mixer and the second mixer has a respective second input configured to receive a transmit local oscillator signal for mixing the respective input signal.
A method of an electronic device for estimating a location of a transmitter, the method comprising: receiving from a server, a policy including a criterion for collecting transmitter information, wherein the criterion is a collection interval in which transmitter information is collected from a transmitter; collecting transmitter information from a transmitter including time information that is proportional to a distance between the electronic device and the transmitter; obtaining location information of the electronic device for each location where the transmitter information is collected; and transmitting the transmitter information and the location information to a server to be used to estimate the location of the transmitter based on the policy. receiving from a server, a policy including a criterion for collecting transmitter information, wherein the criterion is a collection interval in which transmitter information is collected from a transmitter; collecting transmitter information from a transmitter including time information that is proportional to a distance between the electronic device and the transmitter; obtaining location information of the electronic device for each location where the transmitter information is collected; and transmitting the transmitter information and the location information to a server to be used to estimate the location of the transmitter based on the policy.
A multimode electrosurgical system, comprising an electrosurgical instrument, the instrument having a working portion with a first electrode configuration that operates in a bipolar mode and a second electrode configuration that operates in a monopolar mode, the working portion comprising an active electrode and a plurality of return electrodes (20a, 20b), each return electrode (20a, 20b) being separately addressable, wherein at least one of the separately addressable return electrodes (20a, 20b) is continuously operable to maintain an activated current path with the active electrode and at least one other separately addressable return electrode (20a, 20b) is selectively activatable to provide continuous control of an aggregate surface area of the return electrodes in service and thereby to provide continuous control of a current density applied to a treatment site, the electrosurgical system is configured to deliver a peak power at a defined impedance corresponding to an impedance value of fatty tissue, and wherein the power decreases as impedance either increases or decreases relative to the defined impedance, thereby providing a self-limiting effect on tissue.
A fire resistant composite structure comprising: a foam material located between a first facing and a second facing; a first geopolymer thermal protection layer located between the foam material and the first facing material, wherein the first geopolymer thermal protection layer is formed by curing geopolymer precursors having a silicon to aluminum mole ratio in a range of 1.0:0.1 to 1.0:3.3; and a second geopolymer thermal protection layer located between the foam material and the second facing. a foam material located between a first facing and a second facing; a first geopolymer thermal protection layer located between the foam material and the first facing material, wherein the first geopolymer thermal protection layer is formed by curing geopolymer precursors having a silicon to aluminum mole ratio in a range of 1.0:0.1 to 1.0:3.3; and a second geopolymer thermal protection layer located between the foam material and the second facing.
Stitch-forming element (100, 142) for a stitch-forming textile machine, the textile machine having a stitch-forming element carrier with at least one guide channel for guiding at least one stitch-forming element (100, 142), the stitch-forming element (100, 142) having a longitudinal axis and a vertical axis and a first recess with a lower edge, an upper edge, an open first end and a closed second end for stitch formation, wherein the stitch-forming element (100, 142) has a second recess with a lower edge, an upper edge, an open first end and a closed second end, characterised in that the lower edge of the second recess is arranged at an angle to the longitudinal axis for cleaning the at least one guide channel.
A method performed by a terminal in a mobile communication system, the method comprising: receiving, from a base station, a configuration message to configure a plurality of cells for the terminal, the configuration message including information on a first cell and information on at least one second cell, wherein the first cell is activated at first based on the configuration message; receiving, from the base station, data on the first cell; receiving, from the base station, a cell switching request indicating one of the at least one second cell and a return timer for returning to the first cell on a physical downlink control channel, PDCCH; performing cell switching to the one of the at least one second cell; receiving, from the base station, data on the one of the at least one second cell; and returning to the first cell based on the information on the first cell included in the configuration message, in case that the timer for returning to the first cell is expired. receiving, from a base station, a configuration message to configure a plurality of cells for the terminal, the configuration message including information on a first cell and information on at least one second cell, wherein the first cell is activated at first based on the configuration message; receiving, from the base station, data on the first cell; receiving, from the base station, a cell switching request indicating one of the at least one second cell and a return timer for returning to the first cell on a physical downlink control channel, PDCCH; performing cell switching to the one of the at least one second cell; receiving, from the base station, data on the one of the at least one second cell; and returning to the first cell based on the information on the first cell included in the configuration message, in case that the timer for returning to the first cell is expired.
A method, comprising: discretizing a hologram function for a surface scattering antenna by: identifying a discrete plurality of locations on an aperture of the surface scattering antenna for a discrete plurality of scattering elements of the surface scattering antenna, and identifying the discrete set of states for each of the scattering elements corresponding to a discrete set of hologram function values at each of the locations of the scattering elements; and identifying an antenna configuration that reduces artifacts attributable to the discretizing of the hologram function, wherein the antenna configuration corresponds to the discrete plurality of locations on the aperture, and the discrete set of states for each of the scattering elements, characterised in that the identifying of the antenna configuration includes altering the hologram function by replacing a fundamental spatial Fourier component of the hologram function with a plurality of spatial Fourier components. discretizing a hologram function for a surface scattering antenna by: identifying a discrete plurality of locations on an aperture of the surface scattering antenna for a discrete plurality of scattering elements of the surface scattering antenna, and identifying the discrete set of states for each of the scattering elements corresponding to a discrete set of hologram function values at each of the locations of the scattering elements; and identifying a discrete plurality of locations on an aperture of the surface scattering antenna for a discrete plurality of scattering elements of the surface scattering antenna, and identifying the discrete set of states for each of the scattering elements corresponding to a discrete set of hologram function values at each of the locations of the scattering elements; and identifying an antenna configuration that reduces artifacts attributable to the discretizing of the hologram function, wherein the antenna configuration corresponds to the discrete plurality of locations on the aperture, and the discrete set of states for each of the scattering elements, characterised in that the identifying of the antenna configuration includes altering the hologram function by replacing a fundamental spatial Fourier component of the hologram function with a plurality of spatial Fourier components.
A method for adjusting streaming media data transmission, comprising: acquiring by an electronic device a total duration parameter of streaming media, wherein the streaming media is formed by at least one streaming media segment that has not yet been played; determining by an electronic device, according to the total duration parameter and at least one preset duration threshold, a bit rate of a next streaming media segment to be acquired; and acquiring by an electronic device a next streaming media segment according to the determined bit rate, wherein the acquiring a total duration parameter of streaming media comprises: acquiring a segment duration parameter of a streaming media segment when acquiring the streaming media segment; and calculating the total duration parameter of the streaming media by accumulating the segment duration parameter and a segment duration parameter of another streaming media segment that has been acquired and is not yet played. acquiring by an electronic device a total duration parameter of streaming media, wherein the streaming media is formed by at least one streaming media segment that has not yet been played; determining by an electronic device, according to the total duration parameter and at least one preset duration threshold, a bit rate of a next streaming media segment to be acquired; and acquiring by an electronic device a next streaming media segment according to the determined bit rate, wherein the acquiring a total duration parameter of streaming media comprises: acquiring a segment duration parameter of a streaming media segment when acquiring the streaming media segment; and calculating the total duration parameter of the streaming media by accumulating the segment duration parameter and a segment duration parameter of another streaming media segment that has been acquired and is not yet played. acquiring a segment duration parameter of a streaming media segment when acquiring the streaming media segment; and calculating the total duration parameter of the streaming media by accumulating the segment duration parameter and a segment duration parameter of another streaming media segment that has been acquired and is not yet played.
An electronic component housing package, comprising: an insulating substrate having an upper surface including a mount for an electronic component; a frame-shaped metallized layer surrounding the mount on the upper surface of the insulating substrate; and a metal frame joined to the frame-shaped metallized layer with a brazing material and having an area to which a lid is joinable, characterized in that the frame-shaped metallized layer includes a first sloping portion sloping inwardly from an upper surface to an inner peripheral surface, the frame-shaped metallized layer includes, on an outer peripheral surface, a second sloping portion sloping outwardly from an upper end to a lower end of the outer peripheral surface, the brazing material includes a fillet portion formed between an upper outer periphery of the frame-shaped metallized layer and the metal frame, and a filling portion formed between the first sloping portion and the metal frame, the brazing material covers the second sloping portion of the frame-shaped metallized layer, the second sloping portion of the frame-shaped metallized layer has a lower end in contact with an outer periphery of the upper surface of the insulating substrate, and the insulating substrate includes, on an outer peripheral surface, a third sloping portion continuous to the second sloping portion. an insulating substrate having an upper surface including a mount for an electronic component; a frame-shaped metallized layer surrounding the mount on the upper surface of the insulating substrate; and a metal frame joined to the frame-shaped metallized layer with a brazing material and having an area to which a lid is joinable, characterized in that the frame-shaped metallized layer includes a first sloping portion sloping inwardly from an upper surface to an inner peripheral surface, the frame-shaped metallized layer includes, on an outer peripheral surface, a second sloping portion sloping outwardly from an upper end to a lower end of the outer peripheral surface, the brazing material includes a fillet portion formed between an upper outer periphery of the frame-shaped metallized layer and the metal frame, and a filling portion formed between the first sloping portion and the metal frame, the brazing material covers the second sloping portion of the frame-shaped metallized layer, the second sloping portion of the frame-shaped metallized layer has a lower end in contact with an outer periphery of the upper surface of the insulating substrate, and the insulating substrate includes, on an outer peripheral surface, a third sloping portion continuous to the second sloping portion.