2017-Present
    - 
        Mantle Properties
    
 
    - 
        Water in Nominally Anhydrous Minerals (NAMs)
    
 
    - 
        Thermal Conductivity of Minerals
    
 
    - 
        Ab Initio Thermodynamics and Thermoelasticity
    
 
    - 
        Novel Planetary Materials
    
 
    - 
        Strongly Correlated Oxides
    
 
    - 
        H2O ice
    
 
    - 
        Planet Modeling
    
 
    - 
        Novel Methods and Software
    
 
    - 
        Cyberinfrastructure Development
    
 
    
        Our research is motivated and informed by central questions in Earth and planetary sciences today. They pose
        specific challenges to materials theory and to computational methodologies. The emergence of novel capabilities
        is
        leading to the development of grand-challenge computational projects in the study of these materials. The near
        future will see the development of projects that:
    
    
        - have overcome fundamental theoretical difficulties faced today,
 
        - address properties other than those that have been addressed so far, and
 
        - involve simulations that are larger by orders of magnitude than those that are the norm today.
 
    
    
        Grand-challenge problems focus on building highly realistic models taking into account all physical and chemical
        variations in the system (e.g. chemical composition, pressure, temperature, etc.). These studies require massive
        numbers of computations and generate huge amounts of data that cannot be analyzed by conventional means.
        Tackling
        grand-challenge simulations also requires new methods and tools for collaborative inter-laboratory work. These
        grid-based methods will be used and tested by members of this consortium, their groups, and selected
        experimental
        groups that will participate in a pilot project. They will transform later into the managing system of a public
        virtual facility.