Skoltech Global
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A multidisciplinary science and tech university in Moscow: student.skoltech.ru Skoltech is part of the VEB.RF Group About Skoltech in Russian: https://t.me/skoltech_daily
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پست‌های کانال
+9
🚀 Today, Skoltech is a thriving ecosystem uniting six priority research areas: AI, life sciences and health, agrotechnology, advanced materials and engineering, energy efficiency, and telecommunications and photonics.
Our unique environment fuels the creation of future technologies: our campus combines cutting-edge laboratories with an inspiring creative space, recognized as a true architectural masterpiece and winner of the 2019 Prix Versailles award! 🏛✨
Backed by a strong community and robust infrastructure, we continue to advance science that transforms the real sector of industry.
Happy 15th anniversary, Skoltech!
| 2 |  🎉 To mark Skoltech's 15th anniversary, the almanac "Skoltech: 15 Years of Science and Technology" has been published
It is a digest of the institute's main events, names, and achievements over the years — as well as personal stories of the people who built it and grew alongside it.
The design of the publication echoes the style of lithium-ion cells in a soft polymer casing with cathode materials unique to Russia, developed at Skoltech. The concept emphasizes the institute's innovative and industrial character.
"We wanted the almanac to be not just a collection of achievements, but the story of Skoltech — its ideas, people, and bold decisions. So that through its pages one could feel the character of the institute and see how science turns into technology. We are grateful to the Prosveshcheniye publishing house and VEB.RF for their support and for the opportunity to bring this idea to life," says Oksana Kurilova, Vice President for Communications and head of the project.
👉 Read the almanac. | 1 |
| 3 |  🧰 Bridges, warehouses, and cell towers could soon be built and repaired right on-site using just a standard heat gun and a jack. Skoltech researchers have developed a way to weld thermoplastic polymer composite parts in the field.
Traditionally, these structures are built from concrete, corrosion-prone metal, or non-recyclable thermosetting plastics. Their components are typically joined with bolts or adhesives, which adds extra weight and creates stress concentrations at the joints.
Thermoplastic composites, on the other hand, are corrosion-resistant and fully weldable. Skoltech scientists have dialed in the optimal formula of four parameters for hot-air welding: temperature, heating time, pressure, and compression duration.
No bulky industrial machinery is required — a mobile heat gun and a portable press are all it takes. This breakthrough will streamline the construction and maintenance of infrastructure in remote, hard-to-reach areas.
The research findings have been published in the Journal of Materials Research and Technology.
Skoltech is part of the VEB.RF group. | 301 |
| 4 |  +3⚡️ Continuing our review of the winners of the Innovation Workshop 2026!
Today we introduce you to the team that created the concept of PocketNet — a compact device that makes mobile internet more stable.
From problem to idea
“A familiar situation: you’re on a train, working on the go, or on a call with colleagues — and at the most inconvenient moment, your mobile internet becomes unstable,” the team says. “One operator loses signal, another works better in that spot, but switching between them usually means a dropped call, a frozen video, or a lost gaming session. We started with a simple question: why should the user have to decide when one network has gotten worse and it’s time to switch to another?”
That’s how the PocketNet concept emerged: the device combines several mobile connections and chooses on its own which one is best to use at any given moment. For the user, everything looks as simple as possible — they connect to a single Wi-Fi network and keep using the internet, even if the connection quality of individual operators changes.
What users say
The team tested the idea not only on themselves. In a study among ordinary mobile internet users, 71% of respondents said they would be willing to pay for such a device. Separately, the team talked to gamers — an audience for whom even a brief connection drop is especially noticeable. 88% of respondents had experienced losing a session or being kicked out of a game when manually switching between networks.
These results helped the team understand that the problem isn’t limited to travelers: a stable connection matters for remote work, video calls, streaming, gaming, and other services where even a few seconds without internet makes a difference.
From concept to working prototype
During the Innovation Workshop, the idea turned into a working experimental prototype. The team was able to demonstrate how PocketNet connects to multiple mobile networks, assesses connection quality, and automatically switches the channel in use. At the same time, the goal wasn’t just to show the technology, but to understand whether real people actually need such a product. So, in parallel with development, the team talked to users, telecom industry experts, and potential partners.
What the team is proud of
“That we managed to go from an idea to a working experimental prototype in a month. We learned to prioritize quickly and make decisions under time constraints, and also to listen to the user and test hypotheses on real people, not just in theory.”
What’s next
The next step is to turn the experimental prototype into a compact, convenient device that can be taken on a trip, to university, or to work.
The team is also considering a partnership model for developing the project. Representatives of the telecom industry have already shown interest in PocketNet.
“The idea behind PocketNet is simple: let the networks change — the user’s connection should remain stable.”
We wish the team the best of luck and will continue to follow their progress! ✨
Skoltech is part of the VEB.RF group. | 346 |
| 5 |  +9🎓 A world-class education is the foundation Skoltech gives. Over the past 15 years, we have reached key milestones in our growth:
2015: First Master's graduation.
2017: First PhD graduation.
2024: First Bachelor's graduation.
Today, our community brings together over 2,900 alumni. They are launching tech startups, driving cutting-edge science forward, and shaping industries at leading companies and R&D centers worldwide — from Yandex and Sber to global tech giants.
We are incredibly proud that our alumni stand behind every successful project, innovation, and breakthrough. Happy 15th anniversary, Skoltech! The best breakthroughs are yet to come. 🚀🎉 | 360 |
| 6 | بدون متن... | 381 |
| 7 |  +4⚡️ We are starting our review of the winners of the Innovation Workshop 2026!
Today we introduce you to the team that created a microfluidic model of the human lymph node — a platform where immune cells can interact in a three-dimensional environment and form a more physiologically relevant immune response.
From idea to prototype
“This summer, Polina Guseva [team member, first-year master’s student in the Life Sciences program] completed a research internship in China, where she was introduced to the use of microfluidic technologies for working with cell cultures,” the team says. “This experience inspired her to explore the organ-on-a-chip concept in more detail. One of the complex challenges in immunology remains reproducing the physiological activation of B lymphocytes and the subsequent humoral immune response. That is how the idea to create a microfluidic model of the lymph node was born.”
How it works
The project turned out to be truly interdisciplinary: mathematical modeling of fluid flows, CAD and CAM design, microfluidics, laser processing, silicone chip casting with vacuuming, electronics development and soldering, microcontroller programming, and peristaltic pump assembly. And that’s not all — working with cell cultures, microscopy, and flow cytometry to assess cell viability.
“Perhaps it is precisely the combination of engineering and experimental immunology that became one of the most interesting features of the project.”
Engineering without sleep
“The hardest part was keeping up with the pace of the Innovation Workshop. We had to simultaneously develop the device, conduct experiments, communicate with experts, and prepare presentations. Sometimes it felt like there weren’t enough hours in the day. But it was this pace that taught us to quickly prioritize and make decisions under time constraints.”
There were especially many doubts at the beginning: where to manufacture the chip, what material to use, what equipment to choose.
“We started searching for information, reaching out to specialists, and literally piecing together the necessary knowledge bit by bit. It helped a lot that there were many people around willing to consult and share their experience.”
What the team is proud of
“The attitude of each person toward the project. Everyone was involved and ready to invest as much time and effort as needed. Every evening we gathered, discussed what we had managed to accomplish, what problems had arisen, and what tasks to close the next day. Everyone had their own area of responsibility, but no one approached the project with the attitude of ‘that’s not my task’.”
What’s next
There are two directions planned: engineering and biological. On the engineering side — increasing the autonomous operation time of the base station, improving the perfusion system, and moving from one chamber to an eight-chip station. The main next stage is biological validation: seeding the chip with primary human immune cells and demonstrating how follicle-like structures form.
“After confirming biological functionality and publishing the results, the next big step will be commercialization and reaching the first users.”
We wish the team the best of luck and will continue to follow their progress! ✨
Skoltech is part of the VEB.RF group. | 378 |
| 8 |  🔧 Researchers from the Laboratory of Hierarchically Structured Materials at Skoltech have developed an approach based on rational experimental-computational correlation (RECC) that makes residual stress estimation more stable against measurement noise.
With an experimental error of up to 10 percent, the error in stress determination was reduced from 40 to 6 MPa. The results are published in Measurement.
Residual stress arises after manufacturing, processing, or loading and affects durability, fatigue resistance, and crack propagation — especially near fastener holes in aviation and transport structures. One way to determine its distribution is the contour method: a specimen is cut, displacements on the cut surface are measured, and the stress field is reconstructed numerically. Because it solves an inverse problem, even small errors in the initial data can be amplified.
What did the results show?
🔹 For a noise level of 10%, the reconstruction error was about 40 megapascals for aluminum alloy 2024-T4.
🔹 The Sur-RECC approach describes the displacement profile with a smooth analytical function — a Gaussian curve with a quadratic background — suppressing high-frequency deviations and reducing the effective error to approximately 5–6 MPa.
«Traditionally, the accuracy of experimental data in the contour method is accepted as sufficient based on comparison with other approaches (for example, diffraction-based), but the stability and reliability of the solution are rarely assessed quantitatively. We created an experimental-computational scheme that allows us to quantitatively trace how the error in displacement measurement affects the determination of stress fields. For the representative noise level of 10% that we selected, the reconstruction error was about 40 megapascals for aluminum alloy 2024-T4. The proposed approach (Sur-RECC) describes the displacement profile with a smooth analytical function — a Gaussian curve with a quadratic background. This allows suppressing high-frequency deviations and, in the case considered, reduces the effective error to approximately 5–6 MPa», — explains the first author, Igor Zorin, a PhD student in the Engineering Systems program.
«Sur-RECC effectively regularizes the solution of the inverse problem: it preserves the smooth component of deformation, which is essential for determining the macroscopic stress field, and suppresses high-frequency deviations. At the same time, we don’t claim that all local fluctuations are related to measurement error — some of them may be related to material, cutting, or data processing features. The article compares direct modeling and inverse problem approaches for determining residual stresses by specimen sectioning methods, which are extremely important for assessing the distribution of internal stresses through thickness. The proposed data processing makes these approaches more reliable and resistant to noise», — noted co-author, Professor Alexander Korsunsky, head of the Laboratory of Hierarchically Structured Materials.
The approach was tested on 2024-T4 aluminum alloy specimens: double-sided dimpling, wire EDM cutting with special clamping, confocal laser profilometry, and independent verification by X-ray diffraction and focused-ion-beam digital image correlation. In parallel, the process was modeled by finite elements.
The study was carried out with the participation of the Moscow Aviation Institute and the Central Institute of Aviation Motors, supported by the Ministry of Science and Higher Education of the Russian Federation.
Skoltech is part of the VEB.RF group. | 349 |
| 9 |  +9🔬 At Skoltech, fundamental research translates directly into industrial-grade tech. Here are just a few milestones along the way:
2019: Launched "Zhores" — Russia’s first petaflop, energy-efficient supercomputer built for AI and mathematical modeling.
2019: Developed the world’s first ultra-fast, all-optical transistor operating at room temperature.
2023: Transferred the technology for Russia's first indigenous 5G base station into mass production.
2025: Launched a dedicated cathode material production line alongside a honeycomb core manufacturing facility.
All of these achievements are a testament to the people, ideas, and ecosystem we’ve been building over the past 15 years. The tech of tomorrow is built right here! | 408 |
| 10 |  🦠 "The problem of bacterial resistance to antibiotics remains one of the most pressing in global healthcare."
In a recent TV BRICS interview, Artyom Isaev, Associate Professor at Skoltech Biomedtech, discusses the urgent global challenge of antibiotic resistance and how natural virus-bacteria dynamics could shape the future of healthcare.
Laureate of the Russian Presidential Prize in Science and Innovation for Young Scientists, Professor Isaev shares insights into his team's research and the potential for international scientific cooperation among BRICS nations in developing advanced antibacterial treatments.
👉 Watch the full interview to learn more about the phage therapy | 451 |
| 11 |  +9🎉 Skoltech is turning 15 this weekend!
Founded in 2011 in partnership with MIT, Skoltech was built to bring science, education, and innovation together into a single, thriving ecosystem.
Over the past 15 years, we’ve come an incredible way. Today, Skoltech attracts thousands of applicants from over 100 countries, and our ecosystem has grown to include more than 180 startups and 150 industry partners. Behind these numbers are groundbreaking research, cutting-edge technology, and—most importantly—the people turning bold ideas into real-world impact.
Take a trip down memory lane with us 📸
Fifteen years is just the beginning. Here’s to new horizons and even greater breakthroughs ahead! | 506 |
| 12 | بدون متن... | 740 |
| 13 | 🤖✨ The future of facilities management is automated
A new study co-authored by Skoltech, the Moscow Innovation Cluster, and Sber reveals that the global indoor cleaning robot market is projected to surge 3.6-fold to $6.4 billion by 2030. In Russia alone, adoption is on track to reach 23,000 units by the end of the decade, as airports, retail giants, and public spaces embrace smart tech for efficiency and sustainability.
👉 Read more | 704 |
| 14 | بدون متن... | 790 |
| 15 |  +9🍂 Autumn at Skoltech hits different. | 819 |
| 16 |  بدون متن... | 1 |
| 17 |  🍂 Autumn at Skoltech hits different. | 1 |
| 18 |  +7⭐️ Meet Anna Nanidzhanian, a new #SkoltechStudent
A first-year Skoltech master's student in Applied Photonics and Optical Information Systems, and the participant who successfully completed the coveted red square in our Summer Bingo by getting into Skoltech!
She brings an impressive background: an honors degree from MTUCI, over 20 research publications, a university research grant, two Presidential scholarships and one from the Russian Government, plus a second-place finish at the AtomSkills international championship in quantum technologies. On top of all that, she has professional experience at the Russian Quantum Center, the MTUCI Quantum Center, and the R&D department of Sedatec-Inform LLC.
Outside of academics, Anna finds inspiration in philosophy and staying active — her two go-to ways to keep body and mind in balance.
✍️ We caught up with Anna to chat about her journey to Skoltech and what her first few weeks have been like. Check out our slides for all the details! | 723 |
| 19 |  ❓ What's the secret to crushing it at the Innovation Workshop? | 651 |
| 20 |  +6✨ That’s a wrap on the 13th Innovation Workshop! The project pitches and awards are done, but the best part is yet to come.
Huge congrats to the students — you’ve put in incredible work and now you truly know how to take an idea and turn it into a working tech product.
Here’s to turning these student projects into thriving businesses! We can’t wait to see what you achieve next. 🏆 | 634 |
