Sidebar

services

News

Lasers have become an indispensable part of modern infrastructure – often operating out of sight, yet essential to countless technological processes. Without lasers, today’s world would simply come to a standstill. Their applications span everyday technologies, medical and industrial equipment, and fundamental research laboratories. However, it is not widely recognised that one of the most remarkable success stories in this field is being written in Lithuania.

Lithuania has every reason to be proud of being home to some of the world’s most talented laser scientists and globally recognised companies. The Physics Faculty Laser Research Center (LRC) at Vilnius University (VU) is at the forefront of the field. Historically, it has been the major hub of laser physics, and today the centre is training the next generation of laser physics specialists and future scientist-innovators. Another recent milestone was reached this year when VU signed a partnership agreement with ELI (Extreme Light Infrastructure), marking a new chapter in collaboration and further strengthening of both VU’s and Lithuania’s role in this unique research ecosystem.

Vilnius University (VU) community is invited to participate in the annual spring clean-up event #VUŠVARU, which will take place on 23 April this year. Participants will not only engage in meaningful, environmentally beneficial activities but also take part in a contest – the participant with the most interesting find will receive a subscription to the VU Health and Sport Center.

CERN has announced a breakthrough from the Large Hadron Collider beauty (LHCb) experiment at the Large Hadron Collider, revealing the discovery of a new particle. This particle belongs to a category called baryons. The familiar baryons include protons and neutrons, the particles found at the centre of atoms. Dr Adam Benjamin Morris, a researcher of the LHCb Vilnius group at the Faculty of Physics of Vilnius University (VU), says that this discovery by LHCb resolves a quarter-century controversy over its existence and properties.

Scientists from Vilnius University’s (VU) Faculty of Physics, drawing on tools used in quantum technologies, have collaborated with an international team to develop a promising new spectroscopic device – a superconducting microwave microresonator. The innovative study has been published in the prestigious journal “Small Methods”. This achievement expands the range of applications of microresonators and paves the way for studying trace amounts of a wide variety of materials.

Ministry of Education, Science and Sport invites the most talented students of Lithuanian higher education institutions to apply for Nominal Scholarships of the Presidents of the Republic of Lithuania Republic of Lithuania Aleksandras Stulginskis (mathematics, informatics, and physical sciences study fields group) and Jonas Žemaitis (engineering sciences study fields and technology sciences study fields group).

Light as the focal point of the research conducted by Valdas Šablinskas, Professor at the Faculty of Physics of Vilnius University (VU), a laureate of the Science Prize, is not a metaphor. It is a precise, calibrated, laser-controlled tool that allows one to examine places the human eye cannot see – the molecular structure of cells, biochemical changes, and early pathological processes. This light is used to create sensitive biosensors, detect early signs of oncological changes, and refine chemical analysis of materials in clinical practice.

“It’s a really nice experience. Study-wise and career-wise”, smiles student from Greece Ioanna-Angeliki Petsi, speaking about her life at Vilnius University (VU) in Lithuania. She is pursuing a master’s degree in the Laser Physics and Optical Technologies program at the VU Faculty of Physics and is actively involved in several national and international research projects.

In recent years, Rydberg atoms have emerged as a promising platform for quantum sensing, enabling the detection of electromagnetic fields across a wide frequency range from MHz to THz. Atomic media offer broad tunability, high quality factors, and intrinsic calibration based on the Autler–Townes effect. However, most existing protocols still do not surpass conventional electronics in terms of sensitivity. Nevertheless, atom-based measurements hold the potential to approach the fundamental limits of electromagnetic field detection. The talk will present our efforts to develop novel Rydberg sensing protocols in both hot and cold atomic ensembles, including interaction-assisted measurements and multi-wave mixing techniques.

Page 2 of 18

About