You are here
Permanent magnetic materials find wide applications in energy generation. The materials providing best performances (e.g., high energy product), such as NdFeB, contains a large weight percentage of rare earth metals. As rare earth materials are critical materials and is projected to face a shortage in supply, DOE has invested considerable resources to find substitute materials for the rare earth based permanent magnetic materials in a recent APRPA-E REACT call.
This highly interdisciplinary project seeks to develop approaches to facilitate repair and regeneration of the damaged nervous system. We will use a combination of biomaterials in the form of polymer conduits and/or scaffolds, adult stem cells seeded on the biomaterials, and use of physical, chemical, biological and/or electrical cues to orient cell growth, control stem cell differentiation and facilitate neuroregeneration using in vitro models.
We are investigating innovative membrane design to be applied to a variety of bioseparations relevant to the metabolic production of high-value chemicals. The membranes consist of percolating networks of 5-20 nm diameter pores in a block polymer matrix, fabricated via self-assembly. The surface-to-volume ratio is ~1000 m2 ml-1, and consequently transport will be dominated by surface interactions. Accordingly, pore-wall functionalization should tune the selectivity to promote or retard the transport of specific classes of chemicals.
The research in the Emergent Magnetic and Atomic Structures Group is aimed at determining the nature of macromolecule-mediated nanoparticle formation by utilizing advanced electron microscopy techniques.
|Three Ames Lab student employees, Ann Gisleson, ESH&A, Holly Kayser, DMSE, and Nikolas Kinkel, Information Systems, were nominated for the 2013-2014 Iowa State University Student Employee of the Year Award. A total of 87 students from across campus were nominated for the award.|