What's Happening?
Nature Journal has launched a special collection titled 'Intertwined Orders in Quantum Materials – In Memory of Daniel Khomskii.' This collection pays tribute to Daniel Khomskii, a pioneering theorist in the field of quantum materials. Khomskii's work laid the foundation for understanding complex interactions in quantum materials, particularly through the Kugel–Khomskii models. His contributions spanned various areas, including superconductivity, multiferroicity, mixed-valent systems, and strongly correlated and magnetic materials. The collection features cutting-edge research papers and reviews on emerging trends in intertwined orders across orbital, charge, spin, or lattice sectors. It aims to explore the interplay between different degrees of freedom in quantum materials, which often determines their physical properties.
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Why It's Important?
The collection is significant as it highlights the ongoing advancements in the field of quantum materials, a critical area in condensed matter physics. Understanding the interactions between different degrees of freedom, such as electrons and phonons, is essential for developing new technologies, including superconductors and multiferroics. These materials have potential applications in various industries, including electronics and energy. By honoring Khomskii's legacy, the collection encourages further research and innovation in quantum materials, which could lead to breakthroughs in material science and technology.
What's Next?
The collection invites submissions from all authors, provided the manuscripts fall within the scope of the collection and npj Quantum Materials. Papers will be published as they are accepted and promoted on the collection homepage. The editorial process ensures that all submissions undergo rigorous peer review, maintaining high standards of scientific integrity. This initiative is expected to foster collaboration among researchers and stimulate further exploration of intertwined orders in quantum materials.
Beyond the Headlines
The collection not only honors Khomskii's contributions but also underscores the complexity and interdisciplinary nature of quantum materials research. It highlights the challenges in describing the effects of multiple degrees of freedom and their mutual couplings. This initiative may inspire new theoretical models and experimental techniques to better understand and manipulate quantum materials, potentially leading to novel applications in technology and industry.
