Vanderbilt University
The Vanderbilt Institute of Nanoscale Science and Engineering (Nashville, TN) operating out of the School of Engineering has on-going work in nano-optics; nano-bio processes; spintronics; nanoscale electronics; nanocrystal fabrication, characterization, and integration; and radiation effects and defect studies.
VINSE has opened a new nano science and engineering laboratory complex and launched a National Science Foundation sponsored Integrative Graduate Education and Research Traineeship (IGERT) Ph.D. program.Vanderbilt Assistant Professor of Mechanical Engineering and Electrical Engineering Greg Walker and his colleagues have developed a model that produces simulations of nanoscale energy transport throughout the entire thermodynamic cycle. "Current research efforts to integrate models of electronic and thermal transport are limited, so our work represents the first attempt to couple models that include phonon dispersion, polarization and multiple scattering mechanisms with electronic simulation," Professor Walker says. Professor Walker hopes that this work will help microelectronics designers develop materials and fabrication techniques that will protect the equipment from, or compensate for, thermal effects. VANDERBILT SCHOOL OF MEDICINE NANO OUTLOOKVanderbilt's School of Medicine has its own program of uses for nanotechnology including medical research involving quantum dots. University researchers have created an early detection method for respiratory syncytial virus (RSV), the most common cause of hospitalization among children under age 5. The high-tech method uses multi-colored, microscopic fluorescent beads, called quantum dots, that bind to molecular structures that are unique to the RSV's coat and the cells that it infects.
|
Related Content
Written by distinguished researchers in carbon, the long-running Chemistry and Physics of Carbon series provides a comprehensive and critical overview of carbon in terms of molecular structure, intermolecular relationships, bulk and surface properties, and their behavior in an amazing variety of current and emerging applications, ranging from nanotechnology to environmental remediation. Volume 30 not only retains the high-quality content and reputation of previous volumes, but also complements them with reliable and timely coverage of the latest advances in the field. The first chapters analyze progressive approaches to controlling more precisely the structure, morphology, and surface properties of novel activated carbons. They cover methods using activating agents such as alkaline hydroxides as well as endo- and exotemplates made from zeolites, silica, and colloidal crystals. The third chapter examines techniques for characterizing carbon surface chemistry,
including electrochemical, spectroscopic, and chromatographic methods. The fourth and final chapter compares the virtues of exfoliated graphite, carbonized fir fibers, carbon fiber felt, and charcoals in solving oil spill problems, a matter of increasing environmental concern. Emphasizing key experimental results, practical aspects, and cutting-edge applications in every chapter, Volume 30 is a vital resource for those developing new technologies such as drug delivery, adsorbents for oil/chemical spills, materials processing, high-performance nanocarbons, and energy storage and conversion devices, including lithium ion batteries, supercapacitors, and fuel cells.
Dr. Hornyak's experience in nanoscience and technology R&D spans 17 years. Diverse areas of expertise include carbon nanotube synthesis & thermodynamics, nanometal composite materials fabrication, characterization & optical properties, template synthesis and gold-55 quantum dot cluster synthesis & optical characterization. Dr. Hornyak has over 30 published papers/ patents in the field.
Dr. Barker serves as the Deputy Director for Advanced Technologies and Strategic Partnerships of the National Cancer Institute (NCI).
|