Current news

4. Mainz Science Week – Science Tram


(c) Landeshauptstadt Mainz

Last Friday afternoon, the guests of the Mainz Science Tram experienced an entertaining and informative ride. Various scientists from Mainz introduced them to very different fields of research on the tour through Mainz. Professor Achim Denig from the Institute of Nuclear Physics was also on board with his lecture "Quarks & Co - The fabulous world of the smallest particles". With a wink, he pointed out to the audience at the beginning that the lecture was of course not about (food) quark, but about the building blocks of which all matter, whether humans, galaxies or food quark, is composed. In the past decades, nuclear and particle physics have succeeded in identifying the basic building blocks of matter - the so-called elementary particles - and in describing their interaction with each other in the Standard Model of particle physics. These elementary particles include quarks, which exist in six types and form the basis for protons and neutrons.

Read more

4. Mainz Science Week


The Institute of Nuclear Physics is taking part in the Mainz Science Week! During a guided tour on 17.09.22 you will have the opportunity to experience the Mainz Microtron MAMI, an electron accelerator, on the JGU campus. We will show you the path the electrons take through the accelerator from their generation to the various experiments, explain the principle of a racetrack microtron and give you an insight into the experiments we use for our research.

Join us 11m deep underground and experience impressive technology and exciting physics!

Information on registration and organisational details can be found on the Mainz Science Week website. The number of participants is limited.

Training as IT specialists at the Institut for Nuclear Physics completed

24 August 2022

To perform research at the frontier of knowledge, it is necessary to have excellent scientists and an extensive technical infrastructure with well-trained specialists. For this reason, the Institute for Nuclear Physics has, for many years, provided training for young people in technical and mechanical professions, such as IT specialists.

This year, Jonas Bissantz and Jonas Steiner successfully completed their training as IT specialists, focusing on system integration at the Institute for Nuclear Physics. Mr. Bissantz’s project topic concerned the "Integration of an IP-KVM Solution for Remote Maintenance of Servers and Workstation Computers", an inexpensive "Keyboard-Video-Mouse" hardware based on RaspberryPis. In his project, Mr. Steiner dealt with the "Re-implementation of a Self-Hosted Warehouse Management System (WMS) on Existing Hardware".

We congratulate them both on the successful completion of their training and wish them all the best for their future careers!

TALENT School comes to Mainz

17 August 2022

From July 25th to August 12th, 2022, the TALENT School on “Effective Field Theories in Light Nuclei: From Structure to Reactions” took place in Mainz. Sponsored by MITP, this event was organized by Prof. Pierre Capel and Prof. Sonia Bacca from the Institute of Nuclear Physics. Lectures were held in the conference room at the Helmholtz Institute Mainz.
32 students from 10 different countries (Belgium, Brazil, Canada, France, Germany, Iran, Israel, Italy, Spain, and USA) came together to learn the most modern techniques for tackling few-body sys-tems in nuclear physics. Students also had the opportunity to visit the MAMI facility and see the MESA construction site. After being galvanized by this experience, they are going back to their home institutions with more knowledge, more professional connections and new friends.
We wish them all the best and hope to see them again in Mainz in the near future!

Dissertation at the Institute of Nuclear Physics on Higher Order Corrections to Processes in the Standard Model

20 July 2022

We congratulate Dr. Matthias Heller on completing his dissertation titled

"Radiative corrections to Compton processes on the proton and to the Drell-Yan process"

In this thesis, Matthias Heller calculated radiative corrections to two fundamental processes of the Standard Model: the Compton process on the proton and the Drell-Yan process. Experimentally, the Compton process is the most important tool to study structure functions and other intrinsic properties of the proton. The Drell-Yan process on the other hand, is one of the most basic processes measured at the LHC at CERN and has a long history for probing the theory of strong interactions.

Read more

Dissertation at the Institute of Nuclear Physics on Exotic Mesons and Dispersive Formalism

20 July 2022

We congratulate Dr. Daniel Alberto Stanischesk Molnar on completing his dissertation titled

"The Role of Exotic Mesons and Final State Interactions in e+e− Collisions"

In recent years, a plethora of new resonances has been discovered in the charmonium region, which cannot be interpreted in a simple quark model picture as states consisting of a charm quark and an anti-charm quark. A study of the reaction dynamics through which such states are produced is crucial to understanding the intrinsic properties of these exotic resonances and for shedding light on their nature. Daniel Molnar used a state-of-the-art approach to investigate three reactions in which charged exotic states were observed by the BESIII Collaboration in electron-positron collisions, achieved a physical description of the current experimental data, and furthermore made predictions to be tested in future experiments.

Read more

After three years: start of first particle collisions at unprecedented energies at LHC

04 July 2022

The ATLAS detector more powerful than ever – with major contributions from Mainz University

On July 5th, protons are expected once again colliding with each other at speeds close to that of light in the Large Hadron Collider (LHC) at CERN, also giving physicists of the PRISMA+ Cluster of Excellence of Johannes Gutenberg University Mainz (JGU) something to celebrate. Over the last three years, they have made important contributions to the upgrade of the ATLAS detector, ensuring that it can cope with even greater volumes of data during Run 3 of the largest particle accelerator in the world. As a result the researchers hope to gain new and more extensive insights into the universe of the very smallest particles. ...

35 years of Erasmus+: Mainz University records consistently high levels of student, teacher, and staff mobility

24 June 2022

New record: Mainz University can spend EUR 3 million in the Erasmus+ student mobility program in the 2022/2023 academic year / Bilateral agreements with more than 400 partner universities throughout Europe

The European Erasmus+ program is celebrating its 35th anniversary. Johannes Gutenberg University Mainz (JGU) has been involved with the European Union's best-known education program and its unique success story from the very beginning in 1987: Erasmus+ has supported around 12 million European citizens in experiencing Erasmus mobility so far, including almost one million Germans in the field of higher education. Mainz University is deeply committed to the Erasmus+ program. In 2019, JGU was among the first universities to succeed in the European Universities Initiative established by Erasmus. Together with its partners in now eight European countries, Mainz University is building the European University FORTHEM Alliance. Measured in terms of the total number of placements, JGU is also one of the most active German universities in the field of Erasmus+ mobility. In fact, Mainz University has even received a number of awards for its outstanding involvement, including the Erasmus E-Quality seal of approval...

Excellent scores for Johannes Gutenberg University Mainz in the 2022 U-Multirank

21 June 2022

Top rankings in the dimensions of Teaching & Learning, Research, Knowledge Transfer, and International Orientation

Johannes Gutenberg University Mainz (JGU) has achieved excellent marks in several areas in the 2022 U-Multirank assessment. This applies to the university’s ranking as a whole as well as to the individual subjects under review.

This year's ranking positions JGU among the top group of universities in ten key indicators in the dimensions of Teaching & Learning, Research, Knowledge Transfer, and International Orientation. Two of these indicators relate to research publications and four of them to patents. In terms of international orientation, JGU is also positioned among the front-runners with regard to the numbers of international academic staff and international joint publications.  ...

New technology for generating high-energy gamma radiation

17 June 2022

On 1 June 2022, the EU-funded project TECHNO-CLS started with the participation of the X1 collaboration of the Institute of Nuclear Physics. Eleven partners from Germany, Italy, Great Britain, France, Greece and Belgium are researching how to generate high-energy gamma radiation by exposure so-called oriented crystals with ultra-relativistic charged particles. The aim is to achieve photon energies of up to GeV, which is equivalent to radiation wavelengths of up to a few femtometres. So far, it has not been possible to generate such extremely short-wave radiation with existing radiation sources. From an experimental point of view, however, it promises access to unprecedentedly small structures and is thus of particular importance for research and applications in the field of nuclear and solid-state physics as well as the life sciences.

The TECHNO-CLS consortium combines theoretical, computational, experimental and technological contributions. The central task, which is being worked on at the Institute of Nuclear Physics, is the provision of a relativistic high-quality positron beam of low emittance. Such positrons can be guided over longer distances in crystals, whereby the intensity of the radiation produced there can be significantly increased by coherent effects, similar to a magnetic undulator. In addition, a case study will investigate whether positrons can also be accelerated from the source with the existing MAMI accelerator facility. This would open up the possibility of generating positron beams with the intensity and quality of the electron beam used so far in MAMI.