Scientific Committee

Gerard 't Hooft is best known for his work on the renormalization of gauge theories. In the early 1970s, he demonstrated that Yang-Mills theories (which are the foundation of the Standard Model of particle physics) could be renormalized, making them mathematically consistent and predictive. His work with Veltman on gauge theory was crucial in showing that these theories could be free from infinities when properly renormalized. This work played a significant role in the development of the Standard Model, particularly in understanding the weak force and electromagnetic force. In 1999, Gerard 't Hooft, along with his PhD advisor Martinus Veltman, was awarded the Nobel Prize in Physics "for elucidating the quantum structure of electroweak interactions in physics. Hooft has also made contributions to the study of black holes and quantum gravity. He introduced the concept of the holographic principle, which suggests that all of the information contained in a volume of space can be represented as a theory on the boundary of that space. Gerard 't Hooft has published numerous influential papers and has written several books on physics, making complex theories accessible to a broader audience. He has been a professor at Utrecht University for many years and has mentored several generations of physicists.

Rosine Lallement earned her advanced degrees in astrophysics in France, where she developed a strong foundation in space sciences and astrophysics. She has held prominent research positions at various institutions, including the Paris Observatory (Observatoire de Paris) and the French National Centre for Scientific Research (CNRS). Lallement has authored and co-authored numerous research papers that have been highly influential in the field of astrophysics. Her work is widely cited and has had a lasting impact on our understanding of the Milky Way and its immediate surroundings. She has collaborated with international teams on various space missions and observational campaigns, contributing her expertise in the interpretation of data related to the ISM and the heliosphere.

Shyama Narendranath is an Indian space scientist known for her contributions to space missions and research at the Indian Space Research Organisation (ISRO). Her work primarily focuses on planetary science, lunar exploration, and space instrumentation, and she has played a significant role in India's lunar missions. Shyama Narendranath is a senior scientist at ISRO, where she has been involved in various key projects, particularly in the field of lunar exploration. Her expertise lies in space instrumentation and the analysis of data from planetary missions. Narendranath has been a prominent figure in ISRO's Chandrayaan missions, India's series of lunar exploration missions. She contributed to the success of Chandrayaan-1, India's first lunar probe launched in 2008. This mission was pivotal in confirming the presence of water/hydroxyl on the Moon using data from the Moon Impact Probe (MIP) and the Moon Mineralogy Mapper (M3), an instrument from NASA. She played a key role in the Chandrayaan-2 mission, launched in 2019, which aimed to explore the Moon's south polar region. Her work involved analyzing data from the instruments on board, particularly focusing on understanding the lunar surface and its composition.

Pierre Agostini is a distinguished physicist known for his pioneering work in the field of ultrafast laser science, particularly in the development of techniques to measure and control processes on attosecond (one quintillionth of a second) timescales. His research has significantly advanced our understanding of electron dynamics in atoms and molecules, and he has contributed to the development of attosecond physics, a field that explores the ultrafast movements of electrons. He studied physics in France, where he earned his advanced degrees. One of Agostini’s key contributions was the development of techniques to generate attosecond pulses of light. In 2001, he and his colleagues succeeded in generating and measuring the first isolated attosecond pulse of light, a groundbreaking achievement that opened up new possibilities for studying ultrafast processes in matter. Agostini has also been instrumental in applying attosecond pulses to time-resolved spectroscopy, a technique that allows scientists to observe the dynamics of electrons in real time. This has provided unprecedented insights into the behavior of matter on extremely short timescales, such as the movement of electrons within atoms and molecules during chemical reactions. Agostini has also been instrumental in applying attosecond pulses to time-resolved spectroscopy, a technique that allows scientists to observe the dynamics of electrons in real time. This has provided unprecedented insights into the behavior of matter on extremely short timescales, such as the movement of electrons within atoms and molecules during chemical reactions. Agostini’s work has been widely recognized with numerous awards and honors throughout his career, reflecting his significant impact on the field of ultrafast laser science and attosecond physics.

Gerard 't Hooft

Rosine Lallement

Shyama Narendranath

Pierre Agostini

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