Dr. Uchida received a Ph.D. in Materials Chemistry from Kyoto University, Japan, where
                                 he studied inorganic materials for bone substitutes under the guidance of Professor
                                 Tadashi Kokubo. He was then awarded a post-doctoral fellowship of the Japan Society
                                 for the Promotion of Science to research biomimetic synthesis of hydroxyapatite-protein
                                 composites in the laboratory of Dr. Atsuo Ito at the National Institute of Advanced
                                 Industrial Science and Technology, Japan. He subsequently joined the laboratory of
                                 Professor Trevor Douglas at Montana State University, where he studied the use of
                                 cage-like proteins as supramolecular templates for nanomaterials synthesis. Prior
                                 to joining California State University, Fresno in 2018, he was an Associate Scientist
                                 at Indiana University. 
Research 
Research in the Uchida laboratory is at the interface of materials, inorganic, and
                                 biological chemistry. Dr. Uchida’s research interest lie in the development of new
                                 materials on the basis of bioinspired approaches. His current research involves exploring
                                 proteins as platforms for developing novel materials across multiple length scales
                                 from nano to macro. 
1)Utilization of protein cages as platforms for making functional nanoparticles 
Cage-like proteins such as viral capsids and ferritin have been considered as promising
                                 platforms for developing functional nanomaterials due largely to the following reasons:
                                 1) As the protein cages are gene products, their size and structure are extremely
                                 homogeneous, 2) The interior cavity of cages can be utilized for templated synthesis
                                 of well defined nanoparticles, and 3) They accommodate the introduction of functionality
                                 such as cell-targeting capability, either chemically and genetically. The Uchida laboratory
                                 is developing protein cage architectures as a means to encapsulate and sequester guest
                                 molecules including inorganic nanoparticles as well as organic molecules and proteins.
                                 These nanomaterials have a great potential with a range of applications from catalysis
                                 to biomedicine. 
2) Construction of three-dimensional array materials self-assembled form protein building
                                 blocks 
Construction of higher order structures via controlled assembly of nano-scale building
                                 blocks in colloidal solutions have drawn significant interest because such array materials
                                 possess the potential to exhibit collective behaviors and emergent properties beyond
                                 those of the individual building blocks. Protein cage nanoparticles are ideal building
                                 blocks with which to construct higher order assemblies. This is, in part, because
                                 the size and structure of the protein cages nanoparticles are very homogeneous and
                                 a wide range of functionalities can be imparted into the particles. The Uchida laboratory
                                 is working to establish strategies to control assembly of protein cage building blocks
                                 into ordered arrays. This study will provide pioneering insights to the development
                                 of protein based array materials with collective functionality. 
Teaching 
Dr. Uchida teaches undergraduate and graduate level courses in inorganic chemistry
                                 and biochemistry such as CHEM 123, 155A, and 222. He also directs students working
                                 on research projects in his laboratory.
                        
                        
                           Development of new materials for biomedical and catalytic applications through biomimetic
                                 and bioinspired approaches. Construction of three dimensional array materials from
                                 nanoscale building blocks using self-assembly process.