2nd Annual Meeting of NSF BRIGE
Professor Tonya Stone attends the 2nd Annual Meeting of NSF BRIGE Grantees at the National Science Foundation (NSF) in Arlington, VA and presents a poster...read more
Cameron Hardin - Study Abroad
Cameron Hardin travels to Italy, Verona, Rome, and Pisa and spends three weeks studying architecture and engineering as part of the Engineering Study Abroad...read more
SHPE National Conference
Katerine SalemeRuiz, a member of the of the student chapter of Society of Hispanic Professional Engineers, attended the SHPE National Conference in Cincinnati, OH...read more
Hispanic Student Association's 1st Hispanic Seminar at MSU
Katerine SalemeRuiz helped to organize the Hispanic Student Association's 1st Hispanic Seminar at MSU during the celebration of the Hispanic Heritage Month at MSU on October 7...read more
2010 Materials Science & Technology Conference
Cameron Hardin presents a poster on "Atomistic Modeling of Aluminum Nanoparticle Interactions" at the 2010 Materials Science & Technology (MS&T)... read more
Welcome
Welcome to Dr. Tonya Stone’s Particulate Materials Research Group at Mississippi State University. Our group is interested in quantifying the structure-property relationships of particulate materials across multiple length scales, with specific interest on the mechanical behavior of nanostructured materials. Our goals are to quantify processing parameters and ensuing mechanical and thermal properties, quantify the consolidation behavior based on densification and microstructure responses, develop a constitutive model that accurately describes the responses of particulate materials, and develop a simple, accurate predictive model for the performance of nanostructured microdevices.
Currently, the fabrication of nanostructured devices using nanopowders is limited. Additionally, the cost of experimentally evaluating the feasibility of these devices and moves toward implementation are expensive and time consuming.
Our research is primarily focused on studying consolidation techniques using a multiscale computational approach. We are particularly interested in capturing the structure-property relations during particle interactions and deformation for inclusion in predictive models of powder metal consolidation at multiple length scales.





