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Articles by T. E. Cocolios
Laser spectroscopy and CP-violation sensitivity of actinium monofluoride - Nature
Abstract The apparent invariance of the strong nuclear force under combined charge conjugation and parity (CP) remains an open question in modern physics1,2. Precision experiments with heavy atoms and molecules can provide stringent constraints on CP violation via searches for effects due to permanent electric dipole moments and other CP-odd properties in leptons, hadrons and nuclei3.
Electron correlation and relativistic effects in the excited states of radium monofluoride - Nature Communications
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Abstract Highly accurate and precise electronic structure calculations of heavy radioactive atoms and their molecules are important for several research areas, including chemical, nuclear, and particle physics.
By M. Athanasakis-Kaklamanakis, S. G. Wilkins, L. V. Skripnikov, M. Au, R. Berger, K. Chrysalidis, T. E. Cocolios, S. Geldhof, D. Hanstorp, R. Heinke, S. Kujanpää, J. K. Lim, K. Lynch, G. Neyens, L. Nies, L. F. Pašteka, S. Rothe, J. Warbinek, X. Yang, J. Berbalk, R. W. Field, S. Franchoo, T. A. Isaev, A. Raggio, J. Wessolek
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Nature
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Electromagnetic properties of indium isotopes illuminate the doubly magic character of 100Sn - Nature Physics
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Abstract Understanding the nuclear properties in the vicinity of 100Sn, which has been suggested to be the heaviest doubly magic nucleus with proton number Z equal to neutron number N, has been a long-standing challenge for experimental and theoretical nuclear physics. In particular, contradictory experimental evidence exists regarding the role of nuclear collectivity in this region of the nuclear chart.
By J. Karthein, C. M. Ricketts, C. L. Binnersley, T. E. Cocolios, J. Dobaczewski, G. J. Farooq-Smith, K. Flanagan, G. Georgiev, W. Gins, F. Gustafsson, J. D. Holt, A. Kanellakopoulos, Á. Koszorús, D. Leimbach, K. Lynch, T. Miyagi, W. Nazarewicz, G. Neyens, P.-G. Reinhard, B. K. Sahoo, A. R. Vernon, S. G. Wilkins, X. Yang
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Nature
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Precision spectroscopy and laser-cooling scheme of a radium-containing molecule - Nature Physics
Abstract Molecules containing heavy radioactive nuclei are predicted to be extremely sensitive to violations of the fundamental symmetries of nature. The nuclear octupole deformation of certain radium isotopes massively boosts the sensitivity of radium monofluoride molecules to symmetry-violating nuclear properties. Moreover, these molecules are predicted to be laser coolable.
Nuclear moments of indium isotopes reveal abrupt change at magic number 82 - Nature
Abstract In spite of the high-density and strongly correlated nature of the atomic nucleus, experimental and theoretical evidence suggests that around particular ‘magic’ numbers of nucleons, nuclear properties are governed by a single unpaired nucleon1,2. A microscopic understanding of the extent of this behaviour and its evolution in neutron-rich nuclei remains an open question in nuclear physics3,4,5.
Publisher Correction: Charge radii of exotic potassium isotopes challenge nuclear theory and the magic character of N = 32
Correction to: Nature Physics https://doi.org/10.1038/s41567-020-01136-5, published online 28 January 2021. This Letter was originally published online incorrectly without open access, whereas it is actually covered by an Open Access licence (CC BY 4.0). The copyright line in the PDF mistakenly read “© The Author(s), under an exclusive licence to Springer Nature Limited 2020” but should have been ‘© The Author(s) 2021’. Furthermore, Extended Data Table 1 was missing from the online PDF.
Charge radii of exotic potassium isotopes challenge nuclear theory and the magic character of N = 32
Abstract Nuclear charge radii are sensitive probes of different aspects of the nucleon–nucleon interaction and the bulk properties of nuclear matter, providing a stringent test and challenge for nuclear theory. Experimental evidence suggested a new magic neutron number at N = 32 (refs. 1,2,3) in the calcium region, whereas the unexpectedly large increases in the charge radii4,5 open new questions about the evolution of nuclear size in neutron-rich systems.
Measurement and microscopic description of odd-even staggering of charge radii of exotic copper isotopes
Abstract Nuclear charge radii globally scale with atomic mass number A as A1∕3, and isotopes with an odd number of neutrons are usually slightly smaller in size than their even-neutron neighbours. This odd–even staggering, ubiquitous throughout the nuclear landscape1, varies with the number of protons and neutrons, and poses a substantial challenge for nuclear theory2,3,4.
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