Research paper
The path to room-temperature superconductivity: A programmatic approach
Achieving room-temperature superconductivity could lead to major advancements in technology, including improved power grids, faster electronics, and lossless energy transmission, which would have vast implications for economies and daily life.
Room-temperature superconductivity, a game-changer for technology, is still a tough puzzle, but advancements in prediction and engineering could help solve it. By improving our understanding of how to create new superconductors and control their properties, we might soon unlock this incredible phenomenon that can enhance energy efficiency and revolutionize many technologies.
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High-temperature superconductivity is theoretically possible for many materials, but practical challenges remain in making it happen.
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There are two main obstacles in achieving room-temperature superconductivity: the Prediction Challenge and the Engineering Challenge.
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Current predictions of new superconductors often fall short because many predicted materials can’t be experimentally created.
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A new approach using advanced models and thermodynamics can help identify which materials can actually be synthesized as superconductors.
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Controlling superconductivity may involve changing external conditions like pressure, nanostructuring, and light, but understanding their effects is still limited.
Room-temperature superconductivity is arguably the greatest challenge in condensed matter physics, with significant practical and commercial implications if it can be solved. There are no physical laws preventing this from occurring; indeed, superconductivity has been observed in so many different materials under so many different conditions that it is almost a "generic" property of nonmagnetic metals. This guides our viewpoint that high-temperature superconductivity is possible, if difficult to realize. Here, we lay out two grand challenges facing the field, titled the Prediction Challenge and the Engineering Challenge, and put forward a programmatic approach for overcoming them. The Prediction Challenge addresses the fact that our ability to predict new conventional superconductors has dramatically advanced in recent years, but most predicted materials are not experimentally synthesizable. To address this challenge, we propose a shift from modeling the superconducting critical temperature and dynamic stability toward high-throughput ab initio and predictive thermodynamics/synthesis modeling. The Engineering Challenge describes how we can control superconductivity with various "knobs," including pressure, nanostructuring, and light. However, our ability to predict how a specific knob will modify a given superconductor is limited, making it difficult to fully exploit them. We describe the current status and identify areas where additional work is needed to fully exploit six of the most common knobs. Progress in both of these grand challenges, while closely integrating theory and experiment into a continuous feedback loop and incorporating insights from fields beyond physics and materials science, could unlock the underlying keys to room-temperature superconductivity.