How Swarms of Nanomachines Could Improve the Efficiency of Any Machine
September 27, 2018 | University of LuxembourgEstimated reading time: 1 minute
The research team of Prof. Massimiliano Esposito of the University of Luxembourg studied the thermodynamics of small nanomachines.
All machines convert one form of energy into another form—for example a car engine turns the energy stored in fuel into motion energy. Those processes of energy conversion, described by the theory called thermodynamics, don’t only take place on the macro-level of big machines, but also at the micro-level of molecular machines that drive muscles or metabolic processes and even on the atomic level. The research team of Prof. Massimiliano Esposito of the University of Luxembourg studies the thermodynamics of small nanomachines only consisting of a few atoms. In a paper published in the prestigious scientific journal Physical Review X, they outline how these small machines behave in concert. Their insights could be used to improve the energy efficiency of all kinds of machines, big or small.
Recent progress in nanotechnology has enabled researchers to understand the world in ever-smaller scales and even allows for the design and manufacture of extremely small artificial machines. “There is evidence that these machines are far more efficient than large machines, such as cars. Yet in absolute terms, the output is low compared to the needs we have in daily life applications,” explains Tim Herpich, PhD student at Esposito’s research group and main author of the paper. “That is why we studied how the nanomachines interact with each other and looked at how ensembles of those small machines behave. We wanted to see if there are synergies when they act in concert.”
The researchers found that the nanomachines under certain conditions start to arrange in “swarms” and synchronise their movements. “We could show that the synchronisation of the machines triggers significant synergy effects, so that the overall energy output of the ensemble is far greater than the sum of the individual outputs,” said Prof. Esposito. While this is basic research, the principles outlined in the paper could potentially be used to improve the efficiency of any machine in the future, the researcher explains.
In order to simulate and study the energetic behaviour of swarms of nanomachines, the scientists created mathematical models that are based on existing literature and outcomes of experimental research.
Subscribe
Stay ahead of the technologies shaping the future of electronics with our latest newsletter, Advanced Electronics Packaging Digest. Get expert insights on advanced packaging, materials, and system-level innovation, delivered straight to your inbox.Subscribe now to stay informed, competitive, and connected.
Suggested Items
AT&S Advances Glass Core Substrates for AI, HPC, and Photonics
04/22/2026 | AT&SAT&S is advancing glass core substrates from research toward industrial use in artificial intelligence, high-performance computing, high-speed communications and photonics.
IBM, UIUC Expand Discovery Accelerator for AI and Quantum Computing
04/20/2026 | PRNewswireIBM and the Grainger College of Engineering at the University of Illinois Urbana-Champaign (U. of I.) announced an expansion of the IBM-Illinois Discovery Accelerator Institute.
Long Night of Research 2026: AT&S Brings Artificial Intelligence to Life
04/15/2026 | AT&SWhen the Long Night of Research takes place throughout Austria on Friday, April 24, setting an example for the country’s innovative strength, AT&S will be there with a special highlight.
Foxconn Recognized as Top 100 Global Innovators 2026
04/14/2026 | FoxconnHon Hai Technology Group (Foxconn) has been named in Clarivate’s Top 100 Global Innovators 2026, a milestone for the ninth year running and as the accelerating role of artificial intelligence stood out in innovation activity among peers in the prestigious ranking.
Carbice Awarded Multi-Million Dollar U.S. Navy Contract for Thermal Assembly Joint Technology
04/14/2026 | PRNewswireCarbice, a U.S.-based manufacturer and supplier of novel multifunctional assembly joint technologies, has been awarded a multi-million dollar contract by the U.S. Navy's Office of Naval Research.