Keyword [nanotechnology]
Result: 141 - 160 | Page: 8 of 10 |
| 141. | Fundamental studies of carbon-based nanomaterials: Exploring the interface between nanotechnology and separation science |
| 142. | Nanotechnology research and regulation: A plan to ensure human and environmental safety |
| 143. | Developing nanotechnology for biofuel and plant science applications |
| 144. | Structural DNA nanotechnology studies of two and three dimensional lattices |
| 145. | Computation aided design in molecular nanotechnology |
| 146. | Nanotechnology applications for biomass pretreatment, functional material fabrication and surface modification |
| 147. | Building the Nanoplasmonics Toolbox Through Shape Modeling and Single Particle Optical Studies |
| 148. | Preparation and characterization of chromium-based chalcospinel materials |
| 149. | Using life cycle assessment to inform nanotechnology research and development |
| 150. | Multi-scale computational engineering of nanotechnology |
| 151. | A study of the role of polyhedral borane compounds in solid state materials, nanotechnology and main group cluster substitution chemistry |
| 152. | Synthetic studies leading to biomimetic coordination complexes and RNA nanotechnology |
| 153. | Semiconductor nanowires and nanowire heterostructures: Development of complex building blocks for nanotechnology |
| 154. | Molecular devices and molecular motors: Applications in nanotechnology |
| 155. | Semiconductor nanowires for nanotechnology: Synthesis, properties, nanoelectronics, nanophotonics, and nanosensors |
| 156. | Multiple crossover molecules in DNA nanotechnology |
| 157. | Silicon-based molecular nanotechnology: Fabrication and characterization with the scanning tunneling microscope |
| 158. | New tools for nanotechnology and measurement of the mechanical properties of individual carbon nanotubes |
| 159. | Branched DNA molecules for nanotechnology |
| 160. | Molecular mechanics and ab initio simulations of silicon (111) surface reconstructions, semiconductors and semiconductor superlattices, hydrogen abstraction for nanotechnology, polysilane, and growth of CVD diamond |
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