Moscow State University's Chemistry Department Marks a Historic Anniversary
In the heart of Moscow stands an institution where the ghost of Dmitri Mendeleev still seems to wander the halls, where the periodic table isn't just a chart but a birthright, and where chemical revolutions have been brewing for centuries.
As Lomonosov Moscow State University's Department of Chemistry celebrates its anniversary, we're not merely marking the passage of time but honoring a legacy that has fundamentally shaped how we understand matter and its transformations.
This institution, founded by Mikhail Lomonosov—a man Pushkin called "Russia's first university" himself—has been at the forefront of chemical discovery for generations, blending deep historical roots with cutting-edge innovation in ways that continue to astonish the scientific world 4 6 .
The Department has produced Nobel laureates and continues to be a hub for groundbreaking research in fields ranging from astrochemistry to materials science.
The story of chemistry at Moscow State University begins with its brilliant founder, Mikhail Vasilyevich Lomonosov (1711-1765), an intellectual titan whose interests spanned from history and rhetoric to mechanics and chemistry.
On January 25, 1755—the day of Saint Tatiana according to the Russian Orthodox calendar—Empress Elizaveta Petrovna signed the decree establishing Moscow University. Unlike European institutions, it notably lacked a theology faculty, as Russia already had specialized religious education establishments 4 6 .
From its inception, the university embraced democratic principles unusual for the era. The founding decree explicitly stated that the institution was to educate commoners (only serfs were excluded), and Lomonosov himself insisted that academic achievement—not social standing—should determine success 4 .
Mikhail Lomonosov, founder of Moscow State University
University founded by Mikhail Lomonosov with chemical education as a core component
Only 3 of 26 professors were noblemen, with most students coming from common backgrounds
Over 13,478 chemistry alumni graduated from the program
17 chairs, 83 laboratories, 1,048 students, and 283 postgraduates
| Metric | Quantity |
|---|---|
| Year Established | 1755 |
| Chairs | 17 |
| Laboratories | 83 |
| Current Students | 1,048 |
| Current Postgraduates | 283 |
| Full RAS Members | 11 |
| Faculty with PhD/Doctoral Degrees | 202 |
| Alumni since 1929 | 13,478 |
Among the department's most exciting contemporary research areas is astrochemistry—specifically, understanding the formation and behavior of molecules crucial to cosmic evolution.
Recently, researchers have made breakthrough discoveries regarding trihydrogen (H₃⁺), often called "the molecule that made the universe" for its role in catalyzing interstellar reactions and fueling star formation 3 .
The department's research portfolio extends far beyond cosmic chemistry. Researchers are engaged in creating new semiconductors and high-temperature superconductors, synthesizing complex organic and organoelement compounds.
Theoretical contributions have significantly advanced fields like catalysis theory, photochemistry, and electrochemistry 2 .
"Even if there are only a few percent more H₃⁺ molecules in the universe because of the small organic compounds we and others have studied, the models that scientists use to study processes such as star formation may have to be revisited" - Professor Piotr Piecuch 3
In their groundbreaking study on H₃⁺ formation, researchers focused on methyl halogens and pseudohalogens—compounds containing methyl groups bonded to halogens or similar atoms.
The research team discovered that whether H₃⁺ forms in these doubly ionized compounds depends on an array of subtle factors including molecular geometry, bond strengths, and electron distribution 3 .
Methyl Fluoride (CH₃F) - High Efficiency
Methyl Chloride (CH₃Cl) - Moderate Efficiency
Methyl Bromide (CH₃Br) - Low Efficiency
Methyl Iodide (CH₃I) - Minimal Efficiency
| Compound | H₃⁺ Formation Efficiency | Key Factors |
|---|---|---|
| Methyl Fluoride (CH₃F) | High | Strong C-F bond enables cleaner ejection |
| Methyl Chloride (CH₃Cl) | Moderate | Balance between bond strength and mobility |
| Methyl Bromide (CH₃Br) | Low | Weaker bond leads to different fragmentation |
| Methyl Iodide (CH₃I) | Minimal | Bond too weak for controlled roaming |
Modern chemical research at Moscow State University relies on both cutting-edge instrumentation and sophisticated theoretical frameworks.
The department's Max T. Rogers NMR Facility boasts twelve high-field Varian/Agilent NMR spectrometers with proton resonance frequencies ranging from 300-600 MHz 5 .
The MSU Mass Spectrometry and Metabolomics Core offers twelve mass spectrometers with various GC/MS, LC/MS/MS, and MALDI configurations 5 .
Essential for determining protein structures and advancing material science research across multiple disciplines.
Critical for understanding reaction dynamics and the formation processes of molecules like H₃⁺ in experimental settings.
Used for purification and analytical separation in various chemical processes and compound analysis.
Enables reaction prediction and property calculation, complementing experimental findings with theoretical frameworks.
As it celebrates its anniversary, the Department of Chemistry continues to evolve and expand its research horizons. The university has established seven scientific and educational schools that will guide future investigations 6 .
The department's research into H₃⁺ formation continues as well, with scientists exploring how these processes might occur in the diffuse molecular clouds of interstellar space where organic molecules abound 3 .
"There are so many organic molecules in these diffuse molecular clouds that it's possible a lot of H₃⁺ is still being formed by the processes we've studied"
The department continues to honor its historical commitment to education and outreach through events like the annual chemistry competition dedicated to the international year of chemistry and the 150th anniversary of Mendeleev's periodic system 1 .
The anniversary of Moscow State University's Department of Chemistry represents more than institutional longevity—it celebrates a living tradition of scientific excellence that continues to reshape our understanding of the molecular world.
From Lomonosov's foundational vision to cutting-edge discoveries about the molecules that built the universe, the department has maintained an extraordinary trajectory of innovation and education.
"Moscow State University has always been and will remain the flagship of higher education in Russia, embodying its best traditions, constantly improving and reaching new heights. It is one of the symbols of Russia, enjoying well-deserved respect, influence and recognition around the world"
As students continue to complete the periodic table in classroom competitions and researchers unravel the secrets of interstellar molecules, the Department of Chemistry at Lomonosov Moscow State University remains what it has always been: a place where elemental curiosity transforms into revolutionary discovery 1 3 .