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Poštovani kolege,<br>
<b>danas</b> će se na Fizičkom odsjeku u prostoriji <b>F-08 u 12:30</b>
sati održati <u>znanstveni seminar Hrvatskog fizikalnog društva</u>.<br>
<br>
Predavač će biti <b>Tamara Nikšić</b> sa Fizičkog odsjeka PMF-a, a
opis predavanja je u prilogu (predavanje će biti na engleskom):<br>
<br>
Dear colleagues,<br>
<b>today at</b><b> 12:30</b>, at the Department of Physics, lecture
room <b>F-08</b>, we will organize a <u>scientific seminar of the
Croatian Physical Society</u>.<br>
<br>
Lecturer will be professor <b>Tamara Nikšić </b>(Department of
Physics, Faculty of Science). Below, you can find the title and the
abstract of the lecture (the lecture will be in English):<br>
<br>
<br>
Title:<br>
Relativistic Nuclear Energy Density Functionals: Mean-Field and
Beyond<br>
<br>
<br>
Abstract:<br>
Low-energy nuclear collective excitations reflect the underlying
effective nuclear interactions and shell structure of single-nucleon
orbitals. The evolution of collective states characterizes a variety
of interesting structure phenomena across the nuclide chart:
clustering in light nuclei, modification of shell structures in
exotic isotopes, location of the particle drip-line, shape
coexistence and shape transitions in medium-heavy and heavy nuclei,
low-energy resonances and the formation of neutron skin, octupole
correlations, sub-shell closures in deformed superheavy nuclei,
etc. <br>
<br>
An accurate modeling of low-energy collective excitations presents a
challenge and crucial test for any theoretical approach. The
microscopic self-consistent mean- field method that uses effective
interactions or universal energy density functionals, provides a
complete and detailed description of ground-state properties and
collective excitations, from relatively light systems to superheavy
nuclei, and from the valley of beta-stability to the particle
drip-lines. Based on this framework, structure models have been
developed that go beyond the static mean-field approximation and
include collective correlations related to restoration of
broken symmetries and fluctuations of collective variables. These
models have become standard tools for nuclear structure
calculations, providing a complete and accurate, global description
of nuclear ground states and collective excitations.
<div class="moz-signature">-- <br>
<p style="font-family:verdana">asst. prof. Mihael S. GRBIC<br>
email: <a class="moz-txt-link-abbreviated" href="mailto:mgrbic@phy.hr">mgrbic@phy.hr</a><br>
web: <a class="moz-txt-link-abbreviated" href="http://www.phy.hr/~mgrbic">www.phy.hr/~mgrbic</a><br>
<br>
contact:<br>
office: + 385 1 460 5543<br>
laboratory: +385 1 460 5503<br>
fax: +385 1 468 0336<br>
<br>
University of Zagreb<br>
Faculty of Science<br>
Department of Physics<br>
Bijenicka cesta 32<br>
10000 Zagreb<br>
Croatia</p>
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