Institutional source issuer.
Coauthored electron-proton deep inelastic scattering measurements testing approximate Bjorken scaling, with data at 6° and 10°.[ref]
Coauthored electron-proton deep inelastic scattering measurements testing approximate Bjorken scaling, with data at 6° and 10°.[ref]
Coauthored electron-proton deep inelastic scattering measurements testing approximate Bjorken scaling, with data at 6° and 10°.[ref]
Coauthored electron-proton deep inelastic scattering measurements testing approximate Bjorken scaling, with data at 6° and 10°.[ref]
Coauthored electron-proton deep inelastic scattering measurements testing approximate Bjorken scaling, with data at 6° and 10°.[ref]
Coauthored electron-proton deep inelastic scattering measurements testing approximate Bjorken scaling, with data at 6° and 10°.[ref]
A metrology author whose account of atomic clocks connects an atomic transition with a practical oscillator. Atoms supply a reproducible resonance, but an instrument must detect departures from that resonance and correct its generated frequency. The physical description explains how an atomic clock converts a microscopic energy difference into a usable timing reference.[ref]
The Physical Basis of Atomic Frequency Standards by A. S. Risley. Technical Note 399: atomic resonance, frequency comparison and feedback principles
Coauthored an atomic clock account quantifying magnetic and microwave frequency shifts in trapped Mercury ions, with an explicit uncertainty budget.[ref]
Primary Atomic Frequency Standards at NIST by D. B. Sullivan and others. Section 4.1, Table 3, p. 58.
Coauthored an atomic clock account evaluating fountain frequency biases from collisions and blackbody radiation, separating systematic corrections from measurement uncertainty.[ref]
Coauthored an account of laser cooling and two-pass Ramsey spectroscopy in a caesium fountain used as an atomic clock.[ref]
Primary Atomic Frequency Standards at NIST by D. B. Sullivan and others. Title-page initials; section 3.1, pp. 53–54.
A researcher whose joint trapped-ion experiment prepared motion near the ground state in three dimensions. The measured sideband strengths revealed the remaining excitation after resolved sideband cooling. Such state diagnostics distinguish low thermal occupation from the unavoidable zero-point energy of a confined quantum particle.[ref]
Resolved-Sideband Raman Cooling of a Bound Atom to the 3D Zero-Point Energy by Christopher Monroe and others. pp. 4011–4014: sideband analysis and residual vibrational excitation
Coauthored an account of optical pumping in a caesium-beam atomic clock, replacing magnetic state selection with selective laser excitation.[ref]
Coauthored an atomic clock account describing trapped Mercury ions interrogated through microwave and optical transitions as frequency references.[ref]
Primary Atomic Frequency Standards at NIST by D. B. Sullivan and others. Section 4, pp. 57–60.
Coauthored an atomic clock account comparing caesium-beam, laser-cooled fountain and trapped-ion standards, including their systematic frequency shifts.[ref]
Institutional source issuer.
Coauthored the neutrino beam experiment that produced muons without the corresponding electron population, supporting a distinct muon neutrino. A shielded spark chamber recorded the interactions.[ref]
Observation of High-Energy Neutrino Reactions and the Existence of Two Kinds of Neutrinos by G. Danby and others. pp. 36–38: purpose and apparatus
Coauthored the neutrino beam experiment that produced muons without the corresponding electron population, supporting a distinct muon neutrino. A shielded spark chamber recorded the interactions.[ref]
Observation of High-Energy Neutrino Reactions and the Existence of Two Kinds of Neutrinos by G. Danby and others. pp. 36–38: purpose and apparatus
Coauthored the neutrino beam experiment that produced muons without the corresponding electron population, supporting a distinct muon neutrino. A shielded spark chamber recorded the interactions.[ref]
Observation of High-Energy Neutrino Reactions and the Existence of Two Kinds of Neutrinos by G. Danby and others. pp. 36–38: purpose and apparatus
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