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Superconducting critical temperature of inhomogeneous magnetic proximity systemsMoke, Adam 22 November 2013 (has links)
<p> The proximity effect is investigated for ferromagnet-superconductor bilayers through the suppression of the superconducting critical temperature. We consider both homogeneous and inhomogeneous ferromagnets to study the effect of triplet pairing correlations on the critical temperature. The inhomogeneous ferromagnet we work with is an exchange spring that provides a tunable magnetization profile. The critical temperature is calculated as a function of ferromagnet thickness, spin flip scattering time, and magnetization profile of an exchange spring. An attempt is made to connect the behavior of the critical temperature with that of the superconducting order parameter.</p>
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152 |
Magnetic measurements on single crystals of ferric alum below 0.1°KDempsey, Colby Wilson January 1957 (has links)
Abstract Not Available.
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153 |
Monopole conversion in Coulomb-excited thorium and uraniumDurham, Frank E. January 1960 (has links)
Abstract Not Available.
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154 |
A study of the magnetic susceptibility of manganese selenideLindsay, Robert January 1951 (has links)
Abstract Not Available.
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155 |
Magnetic effects in a rotating superconductorLove, William F. January 1949 (has links)
Abstract Not Available.
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156 |
Adiabatic fast passage measurements of the nuclear magnetism in liquid heliumLow, Frank James January 1959 (has links)
Abstract Not Available.
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157 |
Effects of stress on superconductivityMuench, Nils Lilienberg January 1955 (has links)
Abstract Not Available.
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158 |
Ultrasonic attenuation measurements in superconducting metalsOverton, William Calvin, Jr January 1950 (has links)
Abstract Not Available.
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159 |
The electromagnetic forces on a superconducting spherePry, Robert H. January 1951 (has links)
Abstract Not Available.
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160 |
An independent determination of the binding energy of the deuteronRogers, Fred Terry, Jr January 1939 (has links)
This paper is an account of an experiment designed to determine the binding energy of the deuteron by a method which is relatively insensitive to uncertainties in the energy-range relation for protons of low energy. The protons, produced by the disintegration of deuterium by Th C″ gamma-radiation, were observed in a low-pressure cloud chamber in a strong magnetic field. The curvatures of the tracks allowed the calculation of the corresponding kinetic energies. The final value of the binding energy as got by this experiment is VB=2.17+/- 0.05x106 electron-volts, which is in excellent agreement with the values previously got by Bethe (from the data of Chadwick, Feather and Bretscher) and by J. R. Richardson and Emo.
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