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A beam of relativistic antihydrogen atoms, the bound state (p̄e⁺), can be created by circulating the beam of an antiproton storage ring through an internal gas target. An antiproton that passes through the Coulomb field of a nucleus of charge Z will create e⁺e^- pairs, and antihydrogen will form when a positron is created in a bound rather than a continuum state about the antiproton. The cross section for this process is calculated to be ~4Z² pb for antiproton momenta above 6 GeV/c. The gas target of Fermilab Accumulator experiment E760 has already produced {~}34 unobserved antihydrogen atoms, and a sample of {~}760 is expected in 1995 from the successive experiment E835. No other source of antihydrogen exists. A simple method for detecting relativistic antihydrogen is proposed and method outlined of measuring the antihydrogen Lamb shift to {~}1%.
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Munger et al. (1994) studied this question.
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