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Posted By Administation,
Thursday 14 September 2023
Updated: Thursday 14 September 2023
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The European Physical Society (EPS) is happy to announce that the second edition of the EPS Forum will take place in the Henry Ford Building of the Freie Universität Berlin (FUB), Germany, from 25th-27th March 2024.
The EPS Forum builds on the success of the first edition held in Paris
in 2022. The EPS joined forces with its 42 National Physical Societies,
18 Divisions and Groups and 40 Associate Members (https://epsforum.org/v1).
After more than a year of preparation by 75 representatives of EPS
members all over Europe and the EPS staff, the first EPS Forum welcomed
487 participants including 184 students from 30 different countries.
The
second edition is expected to gather about 500 participants with a
majority of PhD students, Postdocs and early-career researchers. It will
include presentations and round-table discussions on the following
topics:
· Atomic, molecular and optical physics for quantum technologies
· Applications of nuclear and particle physics to society
· Condensed matter and its applications to industry
· Physical models for energy management, pollution and climate; neuromorphic computing
· Photonics.
The
EPS Forum represents a unique opportunity to interact with both
upcoming physicists and outstanding established researchers including
Nobel Prize and Wolf Prize winners. It will offer a series of scientific
talks bringing together researchers from all over Europe, CEOs and
managers from academic institutions, large research infrastructures,
multi-national companies, SMEs and start-ups involved in the above
fields of research.
The first day, called “Physics meets industry”,
will bring doctoral students and post-doctoral fellows closer to
physics-based companies. It will promote research and technological
developments carried out in the industrial sector and favour direct
exchanges between attendees.
The second day will host a general conference on physics in
the same fields, addressed from a more fundamental perspective and
featuring high-profile scientists from Europe and beyond. Round-table
discussions will also be dedicated to societal issues.
The third day will be devoted to the EPS Council, the Society's annual meeting.
Save the dates! The EPS Form will take place on 25th-26th March 2024 in BERLIN.
Students
The
EPS will once again support the attendance of students by offering a
reduced registration fee and support the travel and lodging expenses of
100 students.
A poster session will be organised to give young physicists the opportunity to present their scientific results.
Organisations and exhibitors
The EPS is convinced that the objectives of the Forum (details at https://epsforum.org),
match a number of organisations' and exhibitors' priorities. To promote
physics-based companies or institutions at the EPS Forum and to
increase their visibility, the EPS offers the following options:
‐ Attend the Forum as an exhibitor on 25th March and/or on 26th March 2024.
‐ Advertise an organisation by choosing a promotional package.
Sponsors
The
EPS offers sponsorship opportunities to support the attendance and
activities of early career researchers at the EPS Forum and to support
the attendance of scientists from Ukraine. These can be tailored to each
sponsor. Contact us for more details at secretariat@eps.org.
The EPS is actively preparing the second EPS Forum and looks forward to welcoming you in Berlin in 2024!
Download the poster of the EPS Forum 2024
Tags:
climate
condensed matter
conference
energy
EPS Forum
Freie Universität Berlin
FUB
nuclear physics
quantum technologies
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Posted By Administration,
Monday 18 October 2021
Updated: Tuesday 19 October 2021
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Posted By Administration,
Thursday 12 August 2021
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Author: Anita Pokorska
The team of researchers from the Institute of
Plasma Physics and Laser Microfusion in Warsaw has performed systematic
numerical (particle-in-cell) studies of the properties of laser-driven
carbon ion beams produced under conditions relevant for ion fast
ignition (IFI) of DT fuel, and the feasibility of achieving beam
parameters required for IFI were discussed. The ignition of nuclear fuel
initiated by an intense laser-driven ion beam is a promising option of
Inertial Confinement fusion (ICF) which is currently one of the two main
paths towards an energy source based on thermonuclear fusion.
It
was found that a 1 ps 200 kJ infrared laser driver is capable of
producing ion beams with parameters required for IFI, even with a simple
non-optimised target, but only at small distances (<0.1 mm) from the
target. At such distances, the beam intensity and fluence exceeds 5 ×
1021 W cm−2 and 2 GJ cm−2,
respectively, while the beam energy approaches 30 kJ. The ion beam
parameters can be significantly improved by carefully selecting the
target thickness and shape. However, even with an optimised target,
achieving the beam parameters required for IFI is possible only at
distances from the target below 0.5 mm.
It was
shown for the first time that laser-accelerated heavy ion beams
produced under conditions relevant for IFI achieve higher parameters
determining fuel ignition than light ion or proton beams and, therefore,
may be more useful for IFI than previously thought.
The
ion acceleration is accompanied by the emission of powerful (>50 PW)
pulses of short-wavelength synchrotron radiation which are the source
of significant ion energy losses and may pose a threat to the fusion
infrastructure.
In addition to ICF, the
extremely intense ion beams can be a unique research tool for research
in nuclear physics, high energy-density physics or materials science.

The
intensity and the temporal shape of the ion pulse are two of the most
important characteristics of the ion beam that determine the fuel
ignition. These characteristics recorded at a distance x equal to 100
µm, 200 µm and 500 µm from the front of the target and averaged over the
area of aperture dap = 50 µm (the “useful part of the beam”)
for Li, C, Al, Ti and Cu ions are presented in figure. The highest peak
intensity and the shortest duration are achieved by the Cu ion pulse,
both in the near-expansion and far-expansion zone.
Tags:
energy
high energy-density physics
ICF
Institute of Plasma Physics and Laser Microfusion
ion beam
IPPLM
materials science
nuclear physics
of Inertial Confinement fusion
research
thermonuclear fusion
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Posted By Administration,
Monday 14 December 2020
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Author: Rüdiger Voss
The CERN Council has started to chart a roadmap for European Particle Physics in the post-LHC era
At an extraordinary meeting in Lisbon in 2006, the CERN Council
approved for the first time the “European Strategy for Particle
Physics”. This strategy is not only a roadmap for the CERN Laboratory in
Geneva, but for the future of particle physics in Europe at large; its
formal basis is Article II of the CERN Convention whereby the
Organization provides, inter alia, for the organization and
sponsoring of international co-operation in nuclear research, including
co-operation outside the Laboratories. Since 2006, the strategy has
been updated in seven-year intervals, first in 2013 and recently in
June 2020. Regardless of its European perspective and scope, the
strategy and its updates have always kept an eye on developments and
roadmaps in other regions, in the interest of a global sharing of
efforts at complementary research frontiers and to minimize an unwanted
duplication of major research infrastructures.
The initial 2006
strategy focused on the completion and initial exploitation of the Large
Hadron Collider (LHC) at CERN, and the 2013 update on the upgrade to
the High-Luminosity LHC (HL-LHC) which is now under construction.
Whereas HL-LHC remains the obvious near-term priority, the 2020 update
also faced the challenge of developing a strategy for the post-LHC era.
The Higgs boson that was discovered with the LHC in 2012 is a
cornerstone of the successful Standard Model of particle physics, and
there are compelling arguments for a new large electron-positron
collider that would operate as a “Higgs factory” to study the unique
properties of this fundamental particle with the highest accuracy in
clean experimental conditions.
Different avenues can be charted to
reach this goal. The shortest is a European participation in the
“International Linear Collider” (ILC) which has been proposed for
construction in Japan for many years; a candidate site for this machine
has been identified where it could be built with a short lead time, and
with mature and established technologies. It would reach a
centre-of-mass energy of 500 GeV in a 30 km long tunnel, and could
possibly be upgraded to 1 TeV by extending the length. However, the
future of the ILC seems uncertain since thus far – even after reducing
the initial energy to 250 GeV – it has failed to gain unequivocal
support from the Japanese government and from the wider Japanese
scientific community. Moreover, a straight tunnel does not open a direct
path to a new discovery machine at the high-energy frontier of particle
physics, where the LHC has firmly positioned Europe as the global
leader.
A complementary, and much more ambitious, scenario is
under discussion for CERN: the “Future Circular Collider” (FCC) in a new
tunnel of 100 km circumference, which could initially accommodate a
circular electron-positron collider (FCC-ee), that would be replaced at a
later stage by a new hadron-hadron collider (FCC-hh) with a target
energy of 100 GeV in the centre-of mass. This would replicate the
successful LEP-LHC scenario on a larger scale. Whereas the energy of
FCC-ee will be intrinsically limited to 365 GeV by synchrotron
radiation, such a machine would be straightforward to build in
principle. In contrast, for FCC-hh to attain seven to eight times higher
proton and ion energies than the LHC in a 100 km long tunnel calls for
novel technologies for superconducting bending magnets, which in turn
require a massive development effort. R&D into a new generation of
dipole magnets based on niobium-tin (Nb3Sn) superconductors
has started at CERN and has produced encouraging results, but there is
still a long way ahead to reach the required field strengths, and to
bring this technology to maturity for the mass production of magnets on
an industrial scale. Last not least, HL-LHC will need to deliver results
that help to sharpen the physics case for a new discovery machine.
Finally,
a new facility of the dimensions of the FCC cannot be financed within
CERN’s present institutional and budgetary framework. When the LHC was
built, 90% of the total cost of the accelerator infrastructure were
funded by the Member States through their regular contributions to the
CERN budget; only 10% were contributed – mostly in-kind – by non-Member
States (the non-Member State contributions to the LHC detectors are
significantly higher). This model is not scalable to the much larger
dimensions of the FCC, which can only be built through a truly global
effort that will require new and innovative governance and funding
mechanisms.
Against this background of complex scientific,
technological and political imponderables, the European Strategy Group
(ESG) which was charged to prepare the update for the CERN Council has
been prudent not to voice explicit support for either of the two
scenarios. The core recommendation is that Europe, together with its
international partners, should investigate the technical and financial
feasibility of a future hadron collider at CERN with a centre-of-mass
energy of at least 100 TeV and with an electron-positron Higgs and
electroweak factory as a possible first stage. In parallel, the strategy update keeps the door open for a European participation in the ILC.
Regardless
of this restraint, the 2020 strategy update is a significant milestone
on the long and arduous way to unravelling fundamental physics beyond
the Standard Model, and to consolidating Europe’s leadership at the high
energy frontier of particle physics.
For full details about the European Strategy for Particle Physics, the update process and the 2020 recommendations, see https://europeanstrategyupdate.web.cern.ch.
Tags:
CERN
ESPP
European Strategy for Particle Physics
FCC
Future Circular Collider
HL-LHC
LHC
nuclear physics
research infrastructures
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Posted By Administration,
Thursday 20 August 2020
Updated: Thursday 13 August 2020
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Author: Luc Bergé
Adriana Pálffy is a theoretical physicist working at the Max Planck Institute for Nuclear Physics in Heidelberg, Germany. By understanding light-matter interaction at the borderline between atomic, nuclear and quantum physics, she aims at obtaining quantum control over nuclear transitions. Her first contacts with physics started in her home town Bucharest, Romania, where she did her undergraduate studies. Adriana received her Ph.D. in theoretical physics at the Justus Liebig University in Giessen, Germany in 2006. She later moved to the Max Planck Institute for Nuclear Physics and became a group leader in 2011. Adriana was a Distinguished Visitor Fellow of the Scottish Universities Physics Alliance in 2012 and 2013 at the University of the West of Scotland and the Strathclyde University. In 2019 she was awarded the Hertha Sponer Prize of the German Physical Society and the Röntgen Prize of the Justus Liebig University in Giessen for her research on the mutual control between x-ray photons and atomic nuclei. Just recently, Adriana obtained a Heisenberg Fellowship from the German Science Foundation that will allow her to move to the Friedrich Alexander University of Erlangen-Nueremberg in the fall 2020.
Luc Bergé, President-Elect of the EPS and chair of the EPS Equal Opportunities Committee (LB), interviewed Adriana Pálffy (AP).
LB: Why did you choose to study physics?
AP: According to a family joke, when I was three years old, visiting family friends asked me what would my profession be when I grew up. I replied “I’ll be a physicist like my mother”, although my mother is actually an electrical engineer! So you might say that my interest in physics began in the cradle. It was definitely supported by my mother, who was making up nice children’s stories for me about physical phenomena. This interest remained as I grew older, so I ended up indeed studying physics and becoming a physicist, “like my mother”.
LB: Any worry to match your family life and a career in physics?
AP:I have two small children, so far no permanent position, and the academia job market in Germany is very competitive. This does not make things easy. I am trying my best, but obviously I have less time to work long hours than my – mostly male and often childless – colleagues have. However, no matter the consequences, I wouldn’t have liked to miss a family just because of the career. Society should work on avoiding that scientists – male or female – need to make such a choice. It should not be about family OR job. But it takes some effort to offer conditions that enable having both family and a job.
LB: Are you worried about finding a job in physics?
AP: Yes, I worry about finding a job in academia within the geographical area which is also suitable for my family. The famous two-body or many-body problem for physicists and in particular female physicists with a family is notoriously difficult to solve. Generally speaking, I believe that finding a job as a physicist in the industry or other fields should be reasonably easy. Finding a permanent position in Germany in the academic milieu is very difficult, since there are only very few open positions. There were years where only one or no position with my profile (theoretical atomic/nuclear physics and quantum optics) was advertised at all. At the end of the day, you almost have to believe in miracles.
LB: What has been the personally most rewarding experience and also the biggest difficulty encountered so far in your career?
AP: Scientifically, I had many rewarding moments when projects were completed with nice results and good publications. A clear highlight was the year 2019, when I was awarded two prizes, the Hertha Sponer Prize of the German Physical Society, and later on the Röntgen Prize of the Justus Liebig University in Giessen for my research on x-ray quantum optics. I did my PhD in Giessen, and being awarded the Röntgen Prize from my Alma Mater meant very much to me. As for difficult moments, I think I cannot complain much – apart from minor disappointments, only the overall career situation poses a major question mark.
LB: Did you encounter any difficulty in finding funding for PhD or a post-doc position related to the fact that you are a woman?
AP: No, at that level definitely not. And also later in my experience with third-party funding so far I cannot say I felt any disadvantages in being female. What does feel strange is to be the only female candidate at interviews for professorships. This always raises questions in my head. Am I what they call in Germany the “quota” female candidate? Is this for real?
LB: Any suggestion to guarantee a balanced gender representation in physics?
AP: We probably ask for the impossible! Although the situation is much better in this respect in France than in Germany. You might therefore have better answers than me. However, I can throw in some arguments. We need more female students in physics to start with. For this we need a cool and more “female” image for physics in schools and early education. We need more female role models. And we need measures to support doing physics and having a family in the same time. It is with having a family that men and women stop being equal through the very asymmetry implemented by nature. This turning point comes early – with young people usually in their twenties or thirties – and it is decisive for what career paths women decide to pursue.
LB: Any particular advice for a young aspiring researcher?
AP: Choose your goals realistically but strategically and then give everything to reach them!
LB: Do you have any female ‘physicist cult figure’ or ‘role model’?
AP: That is a good question. I don’t think I have a particular role model, although I do admire very much the life and work of Marie Skłodowska Curie. What did help a lot was to see that there are women in physics and natural sciences which have succeeded with career and family. I think this is very important for young women. I would say that we are less bold to choose a path that wasn’t taken so far (and this makes Marie Curie so special). If all your successful colleagues are male, single or with a housewife at home taking care of the kids, then you start wondering whether this is the right place for you. I was very luck to meet early on as a young postdoc a number of successful female scientists that encouraged me to continue. This was not by chance – it was part of a mentoring program of the Robert-Bosch Foundation – and I am very grateful that I was given this opportunity.

Adriana Pálffy
Tags:
atomic physics
Max Planck Institute for Nuclear Physics
nuclear physics
quantum optics
theoretical physics
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Posted By Administration,
Thursday 11 June 2020
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Author: Luc Bergé
Giuliana Galati is a 30-year old physicist. After graduating in Nuclear, Subnuclear and Astroparticle Physics from Bari University Aldo Moro (Italy), she completed her PhD at Naples University Federico II, working on the underground physics experiment OPERA searching for neutrino oscillations. In 2017, she won the national "Bruno Rossi" prize for the best PhD thesis in Astroparticle Physics, awarded by the Astroparticle Physics Committee of the Italian National Institute for Nuclear Physics (INFN). In 2019, she was awarded the national prize "Ida Ortalli" for commitment and effort in the science field by the Italian Physics Society.
She is now working on dark matter search and medical physics.
Giuliana is also highly involved in science communication. She co-founded a science podcast (www.scientificast.it) aimed at conveying complex science topics in a way that is accessible to all. This podcast became one of the most famous in Italy. Moreover, recently, she became one of the authors and hosts for the Italian TV series Superquark+, aimed at disseminating science to a broad audience (http://www.raiplay.it/programmi/superquarkpiu).
Luc Bergé (LB), President-Elect of the EPS and chair of the EPS Equal Opportunities Committee, interviewed Giuliana Galati (GG).
LB: Why did you choose to study physics?
GG: I have always been very curious about how physical phenomena work, but in middle school I hated mathematics and preferred literature. In Italy, for the final exam at the end of high school, students are asked to prepare an essay. I chose the topic of “Time” and on my own, I studied the paradoxes of Einstein’s relativity. It was like falling in love! What impressed me the most was that physics seemed to be magical, but at the same time real, without tricks or illusions!
I must admit that I wasn’t really fully aware of what I was getting into!
LB: Any concerns about balancing your family life and a career in physics?
GG: Sometimes yes, but I don't think that physics is the problem. The reality is that I like what I do and if I have a computer, I can work anywhere and at any time. If at the very beginning of your PhD, you start working more than you should, later it becomes difficult to do less. You keep working also outside working hours, sometimes neglecting leisure and a social life.
LB: Are you worried about finding a job in physics?
GG: I know that it is difficult, but in general I’m an optimistic person and I think that things will go well. If I cannot pursue a career in physics, I will find a plan B!
LB: What has been personally the most rewarding experience and also the biggest difficulty encountered so far in your career?
GG: It’s hard to think of a single rewarding experience: every time I accomplish a task, I feel rewarded. Finding a difficulty is easier: the biggest one is realizing – and it happens often to me! – that I’ve made a mistake or that I still have so much more to learn….
LB: Did you encounter any difficulty in finding funding for a PhD or a postdoc position because you are a woman?
GG: No, I did not. In my research group there are many women and, so far, I have never felt preferences for someone just because he was a man. Nevertheless, it’s evident that most full professors are men. I hope things are already changing and that no woman will soon have to choose between having a family or a career.
LB: Any suggestion to guarantee a balanced gender representation in physics?
GG: That’s a challenging question. I don't like those systems that have a quota for women: I don't want to be hired or win a competition just because I’m a woman.
What I would like is to have equal opportunities in physics and equal obligations outside the research world. For new mothers, it would be useful to have more supportive infrastructures, for example, day-care or kindergartens.
LB: Any particular advice for a young aspiring researcher?
GG: The first is: “Don't give up!” I still remember that I spent the first six months at university crying every afternoon because I couldn't understand most of the lessons. I felt lost and I believed that I couldn’t make it.
The second one is: build a team. Together we are stronger when preparing for an exam or when working as researchers. Share ideas, ask for help, offer help. Don’t be a lone wolf.
LB: Do you have any female ‘physicist cult figure’ or ‘role model’?
GG: Absolutely! One of them is Prof. Mariateresa Muciaccia, one of my Professors at university. When I was a student, she was one of the few women full professors. Her lessons were the first ones that made me say: “ok, I’m in the right place!”. I was really fascinated by her and I decided to ask her to supervise my bachelor thesis. I still work in that field of research, so without her my life would have been so different!
I could say that my cult figures are also great women like Fabiola Gianotti, but the truth is that my models are all the women with whom I work and have worked. Believe me: even if they are not famous, they are all great ones!
Giuliana Galati – Photo: Assunta Servello
Tags:
dark matter
gender equality
interview
medical physics
nuclear physics
women in physics
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Posted By Administration,
Tuesday 18 October 2016
Updated: Thursday 20 October 2016
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The board of the European Physical Society (EPS) Nuclear Physics Division (NPD) calls for nominations for the 2017 IBA-Europhysics Prize sponsored by the IBA company, https://iba-worldwide.com/
This prize is awarded every second year for Applied Nuclear Science and Nuclear Methods in Medicine. Therefore the NPD board welcomes proposals which represent the breadth and strength in these fields in Europe.
In the past, the prize has been awarded for research in radiation biophysics, in the application of accelerator mass spectrometry, in the Ion Beam Analysis techniques in the field of Cultural Heritage studies, in tumor therapy with heavy ions, in the development of spin polarized 3He targets by optical pumping and in improving PET-scans.
Last winner in 2015, was Prof. Salehpour who has been awarded in recognition of the considerable impact he has made in the field of biomedical Accelerator Mass Spectrometry by facilitating routine analysis of ultra-small DNA samples in the microgram range. The Prize was presented to Prof. Salehpour at a ceremony during the 3rd European Nuclear Physics Conference, in Groningen, The Netherlands.
Nominations should be accompanied by a completed nomination form, a brief curriculum vitae of the nominee(s) and a list of relevant publications. Up to two letters of support from authorities in the field, outlining the importance of the work of the nominee(s), would also be helpful.
The deadline for the submission of the proposals is 15th January 2017.
The prize rules, nomination form and more detailed information about the prize can be found on the website of the EPS Nuclear Physics Division:
http://eps.site-ym.com/members/group_content_view.asp?id=620959&group=85199
F. Azaiez , Chair of the Nuclear Physics Board of EPS
Tags:
call
EPS NPD
IBA Prize
nomination
Nuclear Physics
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