Primary atomic frequency standards at NIST
D.B. Sullivan, Jonas Bergquist, J. J. Bollinger, R.E. Drullinger, Wayne M. Itano, S.R. Jefferts, W.D. Lee, D. M. Meekhof, T.E. Parker, F.L. Walls, D.J. Wineland
Abstract
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D.B. Sullivan, Jonas Bergquist, J. J. Bollinger, R.E. Drullinger, Wayne M. Itano, S.R. Jefferts, W.D. Lee, D. M. Meekhof, T.E. Parker, F.L. Walls, D.J. Wineland
Abstract
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The development of atomic frequency standards at NIST is discussed and three of the key frequency-standard technologies of the current era are described. For each of these technologies, the most recent NIST implementation of the particular type of standard is described in greater detail. The best relative standard uncertainty achieved to date for a NIST frequency standard is 1.5×10(-15). The uncertainties of the most recent NIST standards are displayed relative to the uncertainties of atomic frequency standards of several other countries.
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The development of atomic frequency standards at NIST is discussed and three of the key frequency-standard technologies of the current era are described. For each of these technologies, the most recent NIST implementation of the particular type of standard is described in greater detail. The best relative standard uncertainty achieved to date for a NIST frequency standard is 1.5×10(-15). The uncertainties of the most recent NIST standards are displayed relative to the uncertainties of atomic frequency standards of several other countries.
Key concepts: NIST, Standard uncertainty, Frequency standard, Atomic clock, Primary standard, Metrology, Computer science, Measurement uncertainty