HOLOMAT · Holography in Motion: combining the AdS/CFT correspondence with advanced numerical techniques to study strongly interacting systems out of equilibrium.

Holography in Motion: combining the AdS/CFT correspondence with advanced numerical techniques to study strongly interacting systems out of equilibrium.

1. Problem/Issue Being Addressed: This research addresses the elusive nature of strange metals, which represent a unique and puzzling state of matter that conventional theories cannot fully explain. They are characterized by unusual electrical conductivity and lack of a well-defined description in terms of the transport of particles or particle-like excitations (quasi-particles). Despite decades of research, the fundamental mechanisms underlying the behavior of strange metals remain poorly understood. 2. Importance for Society: a. Fundamental Physics: Strange metals challenge the existing paradigms of condensed matter physics, offering a window into novel and exotic quantum states of matter. Solving the mystery of strange metals could lead to groundbreaking discoveries in our understanding of quantum physics and could pave the way for new theoretical frameworks. b. Technological Implications: Strange metals have potential applications in various technologies, such as high-temperature superconductors and quantum computing. Unlocking the secrets of strange metals may lead to the development of advanced materials and technologies with significant societal benefits. c. Energy and Sustainability: Improved understanding of the thermoelectric properties of strange metals can have practical applications in energy conversion and harvesting. Enhanced thermoelectric materials could contribute to more efficient and sustainable energy utilization, reducing the environmental impact of energy production. d. Educational and Inspirational Value: Investigating enigmatic problems like strange metals can inspire the next generation of scientists and researchers. It demonstrates the ongoing quest for knowledge and the power of scientific inquiry. 3. Overall Objectives: a. Numerical Simulation: Utilize advanced numerical techniques to simulate the behavior of strange metals. This involved solving complex mathematical equations and running extensive computer simulations. b. Thermo-Electric Transport Coefficients: Calculate and analyze the thermo-electric transport coefficients, which provide critical information about how these materials conduct heat and electricity under various conditions. c. Temperature and Lattice Strength Dependencies: Investigate how the transport coefficients change as the system transitions between different temperature regimes. Additionally, study the impact of lattice strength on the behavior of strange metals to gain insights into their properties under different structural conditions. d. Theoretical Insights: Develop theoretical frameworks and models that can explain the observed phenomena and provide a foundation for further research. e. Dissemination of Findings: Share the research findings through scientific publications and presentations at conferences to contribute to the collective knowledge in the field of condensed matter physics and inspire further investigations.

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