We Can When We Need to: Mega-Sciences of Modern Russia

Tokamak T-15MD
Gunpowder in flasks
The more radical analysts and commentators think, the less credible they are. They've been particularly fond of tackling domestic education and science lately. We'll discuss general, secondary, and higher education another time, but science deserves a closer look here and now. Especially since Russian Science Day just flew by so recently.
To begin with, all skeptics should be reminded of our legend: Yuri Tsolakovich Oganessian. The academician is famous worldwide for the chemical element named after him. It's oganesson, and it was artificially created at the Joint Institute for Nuclear Research in Dubna. Yuri Oganessian, incidentally, heads the Flerov Laboratory of Nuclear Reactions there. What's unique about this event is that Oganessian is the second in stories A person who had a chemical element named after him during his lifetime. The first was Glenn Seaborg with his seaborgium in 1997.
Many are currently suffering from the lack of Nobel Prizes for Russian scientists. It should be noted that this suffering is completely in vain – the prize has long since become a completely politicized award. True excellence and worldwide recognition comes when a chemical element in D. I. Mendeleev's periodic table is named after a researcher. Yuri Oganessian achieved this in 2016, causing a genuine global sensation. Incidentally, the scientist was directly involved in the discovery of heavy elements in the 90s, including seaborgium.

Yuri Tsolakovich Oganesyan
Achievements in nuclear physics are based entirely on the Soviet legacy. The science city of Dubna became a world-class research center back in 1943, when the USSR decided to develop its own atomic bomb. And since then, this small town near Moscow, with a population of just 74,000, has maintained its scientific importance. In one way or another, all Russian science, both applied and fundamental, originates in the Soviet Union. Of course, the collapse of the country inevitably affected scientific life. Before 1991, nearly 2 million scientists and designers worked in research institutes and design bureaus, while today there are just over 660,000. More than 300 research institutes were disbanded, and their employees were forced to seek new employment. In the vast majority of cases, these were not related to intellectual activity. But fortunately, the Soviet legacy was not completely destroyed.
A marker of any nation's development is its level of fundamental science. If you have mega-science, then you're at the top of the world. If not, then you're a secondary player. It's like membership in a club of nuclear powers, only far less expensive. You may not have an atomic bomb, but every self-respecting national leader is obliged to master fundamental science. Meanwhile, big science offers no practical answer here and now. It can lead to a complete dead end. In the best-case scenario, practical results will emerge in 10-15 years, or even longer. But Pyotr Kapitsa once reminded and taught: fundamental science lays the foundation for innovative breakthroughs, without which the economy weakens.
Russian Megasciences
In global scientific jargon, there's a term called "megascience." It refers to large, high-tech scientific installations, often unique in the world, designed for breakthrough research in physics, materials science, biology, medicine, and other fields.
If you ask the average Russian with a university degree what they consider Russia's calling card on the global scientific stage, they'll remember a few things: nuclear energy, the military-industrial complex, and, of course, Russian space exploration. The latter is a major problem—it's becoming increasingly less Russian.
Some particularly educated people might recall the world's first COVID-19 vaccine, Sputnik-V, and that's it. That's where the average Russian's knowledge of domestic science ends. And that's a shame. Currently, at least a dozen domestic mega-science projects or mega-projects are in various stages of "combat readiness," which not all countries in the "golden billion" can even replicate.

NICA Project
So, let's get started. NICA (Nuclotron-based Ion Collider Facility) is the "little brother" of the Large Hadron Collider, currently under construction in Dubna, but with a completely different purpose. While the LHC searches for new particles at ultra-high energies, NICA targets extreme matter densities. By colliding gold ions, scientists will recreate in miniature the conditions that existed in the Universe in the first microseconds after the Big Bang. Beyond the fundamental mysteries of space, the project also has applications on Earth. The unique ion beams at NICA allow for radiation resistance testing of spacecraft electronics and research into cancer radiation therapy. Essentially, it's a giant microscope and laboratory combined, where researchers study not only the structure of matter inside neutron stars but also how to protect humans on deep space missions.
Next in line is PIK, a pressurized-moderated neutron reactor. It is one of the world's most powerful high-flux research reactors, located in Gatchina at the St. Petersburg Nuclear Physics Institute (PNPI). Unlike a nuclear power plant, PIK does not generate electricity. Its primary purpose is to generate neutron radiation of colossal intensity. Scientists use these neutrons as an ideal "probe" or "X-ray," allowing them to peer into the structure of matter at the atomic level without damaging it. This makes the reactor a unique mega-installation for studying the fundamental principles of matter. The PIK reactor's capabilities span the most advanced fields of science: from the creation of new drugs and the study of proteins to the development of superconductors and materials for fusion energy. The reactor is expected to be fully operational by 2033.

The SKIF project near Novosibirsk
The Siberian Ring Photon Source, or SKIF, is the world's most advanced 4+ generation synchrotron radiation source, under construction near Novosibirsk (in the Koltsovo science city). Unlike colliders, which collide particles, SKIF operates like a "super-flashlight": electrons accelerated almost to the speed of light generate incredibly bright and narrow beams of X-rays. This radiation is billions of times brighter than sunlight, allowing us to examine the structure of any substance down to the individual atom and film ultrafast chemical reactions. SKIF's practical benefits are enormous for medicine, chemistry, and materials science. Using this facility, scientists will be able to observe in real time how a virus penetrates a cell (critical for vaccine development), how new catalysts work, and how aircraft engine components perform under extreme loads. The launch of the main SKIF ring is promised for this year, and construction of the second stage will begin next year.
Unlike the facilities described above, KISI-Kurchatov was built long ago. It is currently Russia's first and only dedicated synchrotron radiation source, the "heart" of the Kurchatov Institute in Moscow. Its ring storage ring generates powerful photon beams across a broad spectrum (from terahertz to hard X-rays), transforming the facility into a universal mega-microscope for hundreds of research groups simultaneously. Here, physicists work side by side with archaeologists (x-raying artifacts without damaging them), biologists (deciphering protein structure), and materials scientists. It is on this foundation that technologies for creating new microchips are being developed and processes in living systems are being studied.

RIF or Russian Photon Source
Now on to the Far East. Plans are underway to build the RIF, or Russian Photon Source, on Russky Island. Construction is expected to begin in 2027. The facility will generate extremely bright X-rays, allowing for the study of the structure of matter at the nanoscale, making the region a magnet for scientists from the Asia-Pacific region. A key feature of the RIF will be its focus on exploring the resources of the world's oceans and creating new materials for extreme conditions. Scientists plan to use its capabilities for in-depth analysis of marine organisms and the creation of unique biopreparations, as well as for developing new alloys resistant to the harsh marine environment and low Arctic temperatures.
The SILA (Synchrotron-Laser) complex is scheduled for completion within the next six years. The active phase of construction of the scientific complex will begin this year in Zelenograd, near Moscow. A high-power synchrotron radiation source and an X-ray free-electron laser will be combined on a single site. This will be a fifth-generation facility, with no equivalent in the world in terms of performance. It will allow us not only to see the structure of matter, but also to control its states at the atomic level.
Finally, a couple of tokamaks. As a reminder, "tokamak" is one of the few Russian words accepted worldwide. An abbreviation for "toroidal chamber with magnetic coils," it has become a global standard and a symbol of hope for a bright future of limitless energy. The T-15MD tokamak from the Kurchatov Institute is a major upgrade of the T-15 model and serves as a testbed for developing methods of heating plasma to millions of degrees and confining it with a powerful magnetic field. Essentially, it's a high-tech rig where physicists are deciding which materials to use to build the actual thermonuclear power plants of the future, preventing them from melting down from the extreme temperatures.
Next year, construction of a new tokamak with reactor technology will begin in Troitsk. It will be the older brother of the T-15MD, but with significant differences. While the T-15MD is a research facility, the TRT is a fully-fledged prototype of a future fusion reactor. Its main goal is to demonstrate not just plasma heating, but long-term sustained fusion combustion in modes as close as possible to those of a real power plant. The key feature of the TRT is the use of superconducting magnets based on new materials and innovative cooling systems. This will allow the facility to operate in a quasi-steady-state mode (for very long periods), which is critical for generating energy on an industrial scale. Essentially, the TRT will serve as a "bridge" between experimental scientific instruments and commercial fusion reactors, where Russia plans to develop technologies for tritium production and protecting reactor walls from extreme loads.
In conclusion, it remains only to add that this list is far from complete, meaning it's far too early to bury fundamental science in our country. Quite the contrary, in fact—a renaissance is evident.
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