Matter. Advanced Materials. Transforming Structures
The excellence area "Matter. Advanced Materials" focusses on the exploration and engineering of advanced functional materials at the intersection of chemistry, physics, nanotechnology, and materials science. It integrates molecular design of novel materials with the fundamental understanding of their electronic, optical, and structural properties and their integration into next-generation technologies. Key areas include quantum and low-dimensional materials, organic semiconductors, functional polymers, hybrid nanostructures, and bioinspired systems. The overarching aim is to analyse, design, and synthesize materials with tailored functionalities that address major scientific and societal challenges, including energy conversion and storage, electronics and photonics, biomedical applications, and sustainable chemical processes. Employing a combination of theoretical modeling, ultrafast spectroscopy, advanced microscopy, and scalable fabrication, the envisioned outcome includes breakthroughs in quantum electronics and optoelectronic devices, smart materials for healthcare and diagnostics, sustainable and scalable material systems for energy solutions, and novel platforms for probing and controlling matter at the nanoscale.
The excellence area "Transforming Structures" brings together leading expertise in mechanical engineering, materials science, and advanced manufacturing to pioneer the design, simulation, and realisation of intelligent, lightweight, and sustainable structural systems. The research is rooted in a deep understanding of material behaviour, from polymers and composites to metals and concrete, and extends to the development of high-performance structures through digitalization, simulation-driven design, and adaptive production technologies. Combining experimental and computational approaches across scales – from materials microstructure to full-scale structural systems – the excellence area tackles the creation of multifunctional, adaptive, and sustainable engineering solutions. Application fields range from civil infrastructure and transportation to aerospace and biomedical devices, contributing to a paradigm shift from passive materials and static designs to smart, sustainable, and dynamically responsive systems.
Examples for projects in this Area of Excellence are:
- EXC ctd.qmat – Complexity, Topology and Dynamics in Quantum Matter
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EXC CARE – Climate-Neutral and Resource-Efficient Construction
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CRC/Transregio 285 Method development for mechanical joinability in versatile process chains
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CRC/Transregio 402 Intelligent production technologies for lightweight plastic structures with load-dedicated 3D grading of the reinforcement architecture
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RTG 2250 Mineral-bonded composites for enhanced structural impact safety
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SPP 2244 2D Physics: Emerging Physics in Two-Dimensional van-der-Waals materials
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SPP 2005 Opus Fluidum Futurum – Rheology of Reactive, Multiscale, Multiphase Construction Materials
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Reinhart Koselleck Project Crystalline Thin-Film Organic Devices
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Reinhart Koselleck Project Long-Range Magnetic Ordering in Metal-Free Materials
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Reinhart Koselleck Project Physics-Informed Deep Learning Systems for Secure Information Transmission with Multimode Fibers
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FoxCore – Generative Manufacturing Process for Customized Core-Insert Structures for Lightweight Applications
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LEAFTRONICS – Bio-Based Circuit Boards Enabling the Recycling of SMD Components
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BMFTR WIRreFa – Production of products made from recycled fibers
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BMDV FOSsure – Fiber-optic sensors for reliable condition assessment of massive bridges
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BMWE CCS_TUD – Eco-concrete as a mass building material for economical and lighter concrete systems
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ERC Advanced Grant IONOLOGIC – Making the Building Blocks of Ion-Based Computing
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ERC Consolidator Grant T-Higgs – Phase-Resolved THz-Higgs Spectroscopy on Superconductors
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ERC Consolidator Grant PEROVAP – Engineering Metal Halide Perovskites by Vapour deposition
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EFRE Bioglasfasern II – Process Development for the Production of Novel Bioglass Fibers with Bioactive Properties to Promote and Support the Regeneration of Tissue Defects
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EFRE BiotroNiS – Materials and Systems for Bioelectronics: A Network in Saxony