A comprehensive article presenting the Heavy Ion Laboratory (HIL) at the University of Warsaw has just been published in the “Nuclear Physics News”. The article highlights the Laboratory’s current achievements, reflecting more than 30 years of history and development. It also refers back to the announcement of the facility’s inauguration published in the same journal in May 1994, when the first external beam was extracted from the Warsaw Cyclotron.
The article describes a series of upgrades implemented over the years, including the replacement of the original ion source and improvements to the radiofrequency and beam-focusing systems. It also presents the Laboratory’s key spectrometers and experimental facilities, highlighting the main areas of activity of the Warsaw Cyclotron:
– Nuclear structure research
– Nuclear medicine and radiobiology
– International collaboration
– Education and training
Nuclear Physics News is a quarterly journal published by Taylor & Francis on behalf of the Nuclear Physics European Collaboration Committee (NuPECC). It serves as a major platform for communication and collaboration within the international nuclear physics community, highlighting groundbreaking research projects, developments in experimental facilities, and scientific policy in the field. The journal’s digital edition is available online through the publisher’s platform.
Link to the article:
https://www.tandfonline.com/doi/full/10.1080/10619127.2026.2694952
Link to the announcement on the University of Warsaw website:
https://www.uw.edu.pl/nuclear-physics-news-o-jubileuszu-30-lat-slcj-uw/

We would like to invite you to a seminar that will take place on Thursday, April 30 at 12:15 in room 111 of the Physics Building of the Warsaw University of Technology. 

During the seminar, Dr hab. Ernest Grodner from the  National Centre for Nuclear Research will give a talk entitled “Spontaneous chiral symmetry breaking in atomic nuclei. 2026-2027: a time of new research opportunities”.

The seminar will be held in English.

Abstract:

The term “chirality” is used in a wide range of phenomena in various fields of science. Generally, it means a possibility of a system or object to exist in two equivalent forms: left- or right-handed one. Chemical molecules – enantiomers- with mirror geometric form are a well known example. Chirality is often associated with the concept of helicity: in optics these are circularly polarized photons or in the theory of weak interactions the handedness of the weak current serves as an example. The link between the two opposite handedness is a geometric transformation: spatial inversion. Nuclear chirality, the subject of this lecture, is of a different nature. Here, the time reversal is the link between the right-handed and left-handed forms. Thus an existence of a specific dynamics, a kind of “clockwork mechanism,” instead of static geometry plays a key role here.

Initially, studies of nuclear chirality involved a few specific isotopes. A breakthrough came with the first experimental observation of the complete set of predicted chiral features in a nucleus [1,2], as a result of research work conducted 20 years ago in Warsaw. Then a new technique allowed the direct measurement of nuclear chirality using nuclear magnetic dipole moment as an observable [3]. This technique was also developed in Warsaw and today is considered an ultimate experimental test for nuclear chirality. Application of new experimental methods may bring another breakthrough thanks to cooperation between the National Center for Nuclear Research and the Institute of Modern Physics of the Chinese Academy of Sciences. Magnetic moments measurement of short-lived excited states are planned utilizing a kilo-Tesla magnetic field originating from atomic electronic shells.

[1] E. Grodner et al., “128Cs as the Best Example Revealing Chiral Symmetry Breaking”, Physical Review Letters 97, 172501 (2006)

[2] E. Grodner et al., “Partner bands of 126 Cs – first observation of chiral electromagnetic selection rules”, Physics Letters B703, 46(2011)

[3] E. Grodner et al., “First Measurement of the g Factor in the Chiral Band: The Case of the 128Cs, Isomeric State”, Physical Review Letters 120, 022502 (2018)

We are pleased to invite you to the second memorial lecture series held in tribute to the life and work of Prof. Asoke Nath Mitra. For further details, please follow the link:

https://asokenathmitra.github.io/index.html