ab initio PRediction Of MaterIal SynthEsis
Develop a predictive framework using first-principles simulations to assess the synthesizability of novel materials, enhancing materials discovery and design efficiency.
Projectdetails
Introduction
Ab initio simulation techniques have evolved to the point that we can reliably predict many properties of materials before they have been synthesized. This paradigmatic change has led to databases that contain millions of theoretically predicted materials with desirable attributes.
Importance of Predicting Material Synthesis
However, all this information is of little use if we cannot predict if these novel materials can be made at all. I will develop a framework based on first-principles computer simulations to predict if and how a material can be made.
Goals of the Proposed Approach
The proposed approach will:
- Boost the success rate of “materials by design”.
- Expedite experiments to create novel materials.
- Greatly enhance the speed of materials discovery.
Methodology
To achieve this goal, computational methods that combine:
- Crystal structure prediction
- Advanced statistical sampling
- State-of-the-art machine learning techniques
will be designed.
Benchmarking and Software Development
The whole framework will be benchmarked on model systems with known properties. The resulting software will be made generic and open-source.
Application of the Framework
The computational framework will be used to gain mechanistic insight into the physical processes that control the formation of specific functional materials, including:
- High-pressure phases of matter
- Perovskites
- Molecular crystals
Financiële details & Tijdlijn
Financiële details
Subsidiebedrag | € 1.496.991 |
Totale projectbegroting | € 1.496.991 |
Tijdlijn
Startdatum | 1-4-2024 |
Einddatum | 31-3-2029 |
Subsidiejaar | 2024 |
Partners & Locaties
Projectpartners
- INSTITUTE OF SCIENCE AND TECHNOLOGY AUSTRIApenvoerder
Land(en)
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A quantum chemical approach to dynamic properties of real materials
This project aims to revolutionize computational materials science by developing novel, efficient methods for accurately predicting vibrational and optical properties of materials.
Predictive algorithms for simulating quantum materials
This project aims to develop advanced predictive algorithms for quantum many-body systems by integrating field-theory methods with tensor techniques and machine learning to enhance understanding of quantum materials.
Solving the multi-scale problem in materials mechanics: a pathway to chemical design
Develop a groundbreaking computational framework to predict the viscoelastic and plastic behavior of complex materials across various deformation rates, overcoming current simulation limitations.
Turning gold standard quantum chemistry into a routine simulation tool: predictive properties for large molecular systems
This project aims to develop advanced quantum simulation methods for large molecules, enhancing predictive power and efficiency to study complex biochemical interactions and reactions.
Understanding and designing inorganic materials properties based on two- and multicenter bonds
This project aims to develop universal rules for designing inorganic materials by analyzing multicenter chemical bonds through large-scale quantum-chemical methods and machine learning.