mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: establishing, by a first device, a communication link with a second device to receive a signal stream for casting a screen of the second device on the first device; sending, by the first device to the second device upon establishing the communication link, a first command message to set a backlight of the screen of the second device based on user backlight settings; receiving, by the first device from the second device when no user activity is detected on the second device for a specific time period, a first request message indicating switching the backlight of the screen of the second device from the user backlight settings to power-saving backlight settings; sending, by the first device to the second device in response to the first request message, a second command message to set the backlight of the screen of the second device based on the power-saving backlight settings; determining, by the first device that there is an absence of user activity on the casted screen in the first device for a specific time period and that a frame of the casted screen in the first device is static, while the backlight of the screen of the second device is set based on the power-saving backlight settings; and based on the determining, sending, by the first device to the second device, a third command message to stop the signal stream for casting the screen of the second device on the first device. establishing, by a first device, a communication link with a second device to receive a signal stream for casting a screen of the second device on the first device; sending, by the first device to the second device upon establishing the communication link, a first command message to set a backlight of the screen of the second device based on user backlight settings; receiving, by the first device from the second device when no user activity is detected on the second device for a specific time period, a first request message indicating switching the backlight of the screen of the second device from the user backlight settings to power-saving backlight settings; sending, by the first device to the second device in response to the first request message, a second command message to set the backlight of the screen of the second device based on the power-saving backlight settings; determining, by the first device that there is an absence of user activity on the casted screen in the first device for a specific time period and that a frame of the casted screen in the first device is static, while the backlight of the screen of the second device is set based on the power-saving backlight settings; and based on the determining, sending, by the first device to the second device, a third command message to stop the signal stream for casting the screen of the second device on the first device.
A current modulator circuit for modulating a drive current through a lighting load, comprising: a current modulating element for modulating the light output of the lighting load based on a data input signal, wherein the current modulating element is adapted to be connected in series with the lighting load; and a feedback system (40, 44) for controlling the current modulating element thereby to implement modulation of the current through the lighting load, wherein the feedback system comprises: - a first feedback control path having as input a voltage across the current modulating element, characterized in that the first feedback control path comprises a comparator arrangement for comparing the voltage across the current modulating element with a reference voltage and a low-pass filter between an output of the comparator arrangement and a control input of the current modulating element; and wherein the feedback system further comprises - a second feedback control path connected between the low-pass filter and the control input of the current modulating element and having as input the data input signal. a current modulating element for modulating the light output of the lighting load based on a data input signal, wherein the current modulating element is adapted to be connected in series with the lighting load; and a feedback system (40, 44) for controlling the current modulating element thereby to implement modulation of the current through the lighting load, wherein the feedback system comprises: - a first feedback control path having as input a voltage across the current modulating element, - a first feedback control path having as input a voltage across the current modulating element, characterized in that the first feedback control path comprises a comparator arrangement for comparing the voltage across the current modulating element with a reference voltage and a low-pass filter between an output of the comparator arrangement and a control input of the current modulating element; and wherein the feedback system further comprises - a second feedback control path connected between the low-pass filter and the control input of the current modulating element and having as input the data input signal. - a second feedback control path connected between the low-pass filter and the control input of the current modulating element and having as input the data input signal.
Sanding device having - a housing, - a rotary drive, which is arranged in or on the housing, and - a sanding wheel which is rotatable with respect to the housing and driven eccentrically by the rotary drive, charcterized in that directly on the sanding device a positioning means is provided, with which the sanding wheel, when being stopped, can be positioned in a defined holding position with respect to the housing. - a housing, - a rotary drive, which is arranged in or on the housing, and - a sanding wheel which is rotatable with respect to the housing and driven eccentrically by the rotary drive,
Biocide composition containing glutaraldehyde and as a further component(s) one or more isothiazolin-3-one derivative(s) selected from the group consisting of N-Alkyl-1,2-benzisothiazolin-3-ones and 2-n-Octylisothiazolin-3-one.
Synchronous electric machine comprising: - a stator including a plurality of teeth arranged at equal angular intervals and having first and second active surfaces (20, 22), - a first stator winding having a series of first coils wound on said teeth, - a second stator winding having a series of second coils wound on said teeth, - a first rotor having a series of first permanent magnets arranged at equal angular intervals with alternate polarities and facing said first active surfaces, - a second rotor having a series of second permanent magnets arranged at equal angular intervals with alternate polarities and facing said second active surfaces, wherein the first and the second rotors (14, 16) are supported in rotation, independently of each other, around a common axis, wherein the first coils and the second coils of each stator winding (24, 26) are arranged in pairs, with the two coils (28 i ', 28 i "; 30 i ', 30 i ") of each pair offset from each other by a predetermined angle, wherein the stator has a number n12 of teeth, the first rotor has a number n8 of first permanent magnets and the second rotor has a number n10 of second permanent magnets, where n is an integer greater than zero, and wherein, during operation as a motor, the two first coils (28 i ', 28 i ") of each pair produce concordant torque contributions on the first rotor and discordant torque contributions on the second rotor and the two second coils (30 i ', 30 i ") of each pair produce concordant torque contributions on the second rotor and discordant torque contributions on the first rotor. - a stator including a plurality of teeth arranged at equal angular intervals and having first and second active surfaces (20, 22), - a first stator winding having a series of first coils wound on said teeth, - a second stator winding having a series of second coils wound on said teeth, - a first rotor having a series of first permanent magnets arranged at equal angular intervals with alternate polarities and facing said first active surfaces, - a second rotor having a series of second permanent magnets arranged at equal angular intervals with alternate polarities and facing said second active surfaces,
Antenna system, comprising: a first planar antenna element, and at least one second antenna element (120; 320), wherein the first planar antenna element and the at least one second antenna element (120; 320) are arranged along an axis, the antenna system further comprising: a single planar parasitic element arranged within the near-field of the first planar antenna element, the planar parasitic element being arranged substantially in parallel to the first planar antenna element and being arranged at a predetermined distance (d 1) therefrom, and wherein the center of the planar parasitic element is offset with respect to the center of the first planar antenna element, the offset being in an opposite direction (d 2) on the axis with respect to the least one second antenna element (120; 320), so as to reduce a deformation of the radiating pattern of the first planar antenna element due to an interference with the at least one second antenna element (120; 320). a first planar antenna element, and at least one second antenna element (120; 320), wherein the first planar antenna element and the at least one second antenna element (120; 320) are arranged along an axis, the antenna system further comprising: a single planar parasitic element arranged within the near-field of the first planar antenna element, the planar parasitic element being arranged substantially in parallel to the first planar antenna element and being arranged at a predetermined distance (d 1) therefrom, and wherein the center of the planar parasitic element is offset with respect to the center of the first planar antenna element, the offset being in an opposite direction (d 2) on the axis with respect to the least one second antenna element (120; 320), so as to reduce a deformation of the radiating pattern of the first planar antenna element due to an interference with the at least one second antenna element (120; 320). a single planar parasitic element arranged within the near-field of the first planar antenna element, the planar parasitic element being arranged substantially in parallel to the first planar antenna element and being arranged at a predetermined distance (d 1) therefrom, and wherein the center of the planar parasitic element is offset with respect to the center of the first planar antenna element, the offset being in an opposite direction (d 2) on the axis with respect to the least one second antenna element (120; 320), so as to reduce a deformation of the radiating pattern of the first planar antenna element due to an interference with the at least one second antenna element (120; 320).
A light emitting diode structure comprising: a body including: a first cladding layer doped with a first dopant type; a barrier layer; and an active layer between the first cladding layer and the barrier layer; a pillar structure that protrudes from a first surface of the body, wherein the pillar structure includes a second cladding layer doped with a second dopant type opposite the first dopant type; and a confinement region including a dopant concentration spanning sidewalls of the body and the first surface of the body, characterized in that the dopant concentration is formed of the second dopant type and encroaches from the sidewalls of the body toward a center vertical axis of the light emitting structure and from the first surface of the body toward the active layer, and the dopant concentration laterally encroaches toward a center vertical axis of the light emitting structure within the body past sidewalls of the pillar structure. a body including: a first cladding layer doped with a first dopant type; a barrier layer; and an active layer between the first cladding layer and the barrier layer; a first cladding layer doped with a first dopant type; a barrier layer; and an active layer between the first cladding layer and the barrier layer; a pillar structure that protrudes from a first surface of the body, wherein the pillar structure includes a second cladding layer doped with a second dopant type opposite the first dopant type; and a confinement region including a dopant concentration spanning sidewalls of the body and the first surface of the body, characterized in that the dopant concentration is formed of the second dopant type and encroaches from the sidewalls of the body toward a center vertical axis of the light emitting structure and from the first surface of the body toward the active layer, and the dopant concentration laterally encroaches toward a center vertical axis of the light emitting structure within the body past sidewalls of the pillar structure.
A hot plate welding process, using a composition comprising: a thermoplastic resin component; and a saponified fatty acid ester, wherein the saponified fatty acid ester is a saponified montanic acid ester, wherein a content of the saponified fatty acid ester is in a range of 0.1 parts by mass to 10 parts by mass with respect to 100 parts by mass of the thermoplastic resin component, and the thermoplastic resin component contains any one or a combination of two or more selected from the group consisting of an acrylonitrile-styrene copolymer (AS resin), an acrylonitrile-α-methylstyrene copolymer (αSAN resin), a styrene-maleic anhydride copolymer, an acrylonitrile-styrene-N-substituted maleimide terpolymer, an acrylonitrile-styrene-α-methylstyrene-N-substituted maleimide tetrapolymer, a styrene-maleic anhydride-N-substituted maleimide terpolymer, an acrylonitrile-butadiene-styrene copolymer (ABS resin), an acrylonitrile-styrene-alkyl (meth)acrylate copolymer (ASA resin), an acrylonitrile-styrene-propylene-diene-styrene copolymer (AES resin), polymethyl methacrylate, and a polycarbonate resin. a thermoplastic resin component; and a saponified fatty acid ester, wherein the saponified fatty acid ester is a saponified montanic acid ester, wherein a content of the saponified fatty acid ester is in a range of 0.1 parts by mass to 10 parts by mass with respect to 100 parts by mass of the thermoplastic resin component, and the thermoplastic resin component contains any one or a combination of two or more selected from the group consisting of an acrylonitrile-styrene copolymer (AS resin), an acrylonitrile-α-methylstyrene copolymer (αSAN resin), a styrene-maleic anhydride copolymer, an acrylonitrile-styrene-N-substituted maleimide terpolymer, an acrylonitrile-styrene-α-methylstyrene-N-substituted maleimide tetrapolymer, a styrene-maleic anhydride-N-substituted maleimide terpolymer, an acrylonitrile-butadiene-styrene copolymer (ABS resin), an acrylonitrile-styrene-alkyl (meth)acrylate copolymer (ASA resin), an acrylonitrile-styrene-propylene-diene-styrene copolymer (AES resin), polymethyl methacrylate, and a polycarbonate resin.
An electromagnetic generating transformer, comprising: at least two flux assemblies mounted on a base plate constructed of a non-conductive and non-ferrous material with a first flux assembly having one or more first magnetic field source and a first coil magnetically coupled with the first magnetic field source, the first magnetic field source being fixed relative to the first coil and a second flux assembly having one or more second magnetic field source and a second coi magnetically coupled with the second magnetic field source, the second magnetic field source being fixed relative to the second coil, and the first magnetic field source and the second magnetic field source having a positive pole and a negative pole and a magnetic field passing in a path between the positive pole and the negative pole; a shunt; and a motive source operably coupled with the shunt and configured to move the shunt through the path into primary positions a first distance away from the respective first and second flux assembly and secondary positions a second distance away from the respective first and second flux assembly, wherein a strength of the magnetic field passing between the positive pole and the negative pole varies when the shunt is moved between the primary position and the secondary position. at least two flux assemblies mounted on a base plate constructed of a non-conductive and non-ferrous material with a first flux assembly having one or more first magnetic field source and a first coil magnetically coupled with the first magnetic field source, the first magnetic field source being fixed relative to the first coil and a second flux assembly having one or more second magnetic field source and a second coi magnetically coupled with the second magnetic field source, the second magnetic field source being fixed relative to the second coil, and the first magnetic field source and the second magnetic field source having a positive pole and a negative pole and a magnetic field passing in a path between the positive pole and the negative pole; a shunt; and a motive source operably coupled with the shunt and configured to move the shunt through the path into primary positions a first distance away from the respective first and second flux assembly and secondary positions a second distance away from the respective first and second flux assembly, wherein a strength of the magnetic field passing between the positive pole and the negative pole varies when the shunt is moved between the primary position and the secondary position.
A sprayable polyurethane coating composition, comprising the reaction product of an isocyanate component and an isocyanate-reactive component, wherein: the isocyanate component includes an isocyanate, and the isocyanate-reactive component includes a cardanol-modified epoxy polyol, the cardanol-modified epoxy polyol being a reaction product of an epoxy component and an epoxy-reactive component at a ratio of epoxy groups to epoxy reactive groups from 1:0.95 to 1:5, the epoxy-reactive component including a cardanol component, and the cardanol-modified epoxy polyol having an epoxide equivalent weight of from 30,000 g/eq to 100,000 g/eq. the isocyanate component includes an isocyanate, and the isocyanate-reactive component includes a cardanol-modified epoxy polyol, the cardanol-modified epoxy polyol being a reaction product of an epoxy component and an epoxy-reactive component at a ratio of epoxy groups to epoxy reactive groups from 1:0.95 to 1:5, the epoxy-reactive component including a cardanol component, and the cardanol-modified epoxy polyol having an epoxide equivalent weight of from 30,000 g/eq to 100,000 g/eq.
A device for displaying an operation state of a terminal, the device comprising: a battery cover configured to cover a battery; a wireless charging coil, and configured to charge the battery using the power transmitted from a primary coil formed on a wireless charging pad; and a control unit, characterized in that an e-skin and the wireless charging coil are formed in the battery cover, wherein the e-skin is configured to display a color corresponding to a charging efficiency state of the wireless charging coil, wherein the control unit is configured to check the charging efficiency state of the wireless charging coil, to determine the color of the e-skin corresponding to the checked charging efficiency state and to change the color of the e-skin based on the determined color, and wherein the color of the e-skin is changed according to the charging efficiency state. a battery cover configured to cover a battery; a wireless charging coil, and configured to charge the battery using the power transmitted from a primary coil formed on a wireless charging pad; and a control unit, characterized in that an e-skin and the wireless charging coil are formed in the battery cover, wherein the e-skin is configured to display a color corresponding to a charging efficiency state of the wireless charging coil, wherein the control unit is configured to check the charging efficiency state of the wireless charging coil, to determine the color of the e-skin corresponding to the checked charging efficiency state and to change the color of the e-skin based on the determined color, and
A method for speech modeling by an electronic device, comprising: obtaining a noisy speech spectrum, X; obtaining a real-time noise reference that represents noise in the noisy speech spectrum; obtaining a real-time noise dictionary, Wn, based on the real-time noise reference; obtaining a first speech dictionary, Ws1, and a second speech dictionary, Ws2; creating a non-negative matrix factorization based Wiener filter based on the first speech dictionary, Ws1, multiplied by a speech activation weight, Hs, and the real-time noise dictionary, Wn, multiplied by a noise activation weight, Hn; reducing residual noise based on the NMF based Wiener filter at a first modeling stage to generate a residual-noise suppressed speech signal, Xwf, using the Wiener filter; performing NMF based signal restoration to generate a reconstructed speech signal, Xrc, based on the residual noise-suppressed speech signal, Xwf, and the second speech dictionary, Ws2, at a second modeling stage; and selecting the reconstructed speech signal, Xrc, as an output speech signal based on a reconstruction error being below a threshold, and selecting the residual noise-suppressed speech signal, Xwf, as the output speech signal based on the reconstruction error being above a threshold. obtaining a noisy speech spectrum, X; obtaining a real-time noise reference that represents noise in the noisy speech spectrum; obtaining a real-time noise dictionary, Wn, based on the real-time noise reference; obtaining a first speech dictionary, Ws1, and a second speech dictionary, Ws2; creating a non-negative matrix factorization based Wiener filter based on the first speech dictionary, Ws1, multiplied by a speech activation weight, Hs, and the real-time noise dictionary, Wn, multiplied by a noise activation weight, Hn; reducing residual noise based on the NMF based Wiener filter at a first modeling stage to generate a residual-noise suppressed speech signal, Xwf, using the Wiener filter; performing NMF based signal restoration to generate a reconstructed speech signal, Xrc, based on the residual noise-suppressed speech signal, Xwf, and the second speech dictionary, Ws2, at a second modeling stage; and selecting the reconstructed speech signal, Xrc, as an output speech signal based on a reconstruction error being below a threshold, and selecting the residual noise-suppressed speech signal, Xwf, as the output speech signal based on the reconstruction error being above a threshold.