In the fourth year, students belong to one of the following laboratories as they conduct their graduation research. If you wish to conduct more specialized research, you can go on to a graduate school after graduation. There are other laboratories in the graduate school. For more information about entrance examinations and other details, please see the website of the Master’s/Doctoral Program in Chemistry, Graduate School of University of Tsukuba.
Synthesis of transition-metal complexes and their reactivity in various redox and catalytic reactions; supramolecular redox chemistry of non-planar and fused porphyrins.
Creation of multi-nuclear metal clusters with controlled structures and electronic states; chemistry of functional metal complexes with controlled electronic states and structures.
Studies on chemical processes at microdroplet/solution and microparticle/solution interfaces using electrochemical and spectroscopic techniques.
Studies of the physical and chemical properties, behaviour and environmental origins of natural and anthropogenic radionuclides. Use of radionuclides to assess environmental dynamics and solve environmental problems. Research on artificial nuclear transmutation, measurements of nuclear reaction cross sections and nuclear reaction mechanisms.
Structure and property of soft molecular systems, and dynamics and phase transitions in them.
Studies on interfaces and condensed phases by linear and nonlinear molecular spectroscopy; Studies on photofunctions and photochemical properties of newly fabricated molecular assemblies and inorganic particles in mesoscopic scale.
Atmospheric multiphase chemistry, biosurface chemistry, molecular-level inhomogeneity on/in liquid phases, interface chemistry and physics, and development of novel experimental methods.
The aim is to create new urea derivatives in which the fluorescence state is changed by hydrogen bonding. The formation and dissipation processes of fluorescent states involving hydrogen bonding with anions are analyzed kinetically by fluorescence lifetime measurements and the results are fed back to molecular design.
Elucidation of molecular mechanism and molecular design of complex molecular systems based on computational chemistry and information science. Computational research including quantum chemical calculations and molecular dynamics simulations: development for determining the molecular properties by solvation model and density functional theory.
Development of photosensitizers that can decompose nucleic acids in cancer cells with red light and the reaction mechanism analysis. Development of nucleic acid enzymes based on quadruplex nucleic acids. Development of vaccine adjuvants composed of quadruplex nucleic acids.
Low-coordination and multiple-bonded compounds of heavier group 14 elements and organoelement chemistry of Group 13-14.
Isolation, structural elucidation, synthesis, and bioorganic studies of bioactive natural products. Design, synthesis and biological evaluation of novel biologically active molecules.
Studies on organic synthetic reactions based on metal elements and heteroatoms such as fluorine. Development of methodologies for the construction of unique structures and for the synthesis of valuable compounds.
Study of proteins in soft-tissue sarcoma, chromatin remodeling factors and a photosensing flavoprotein. Structural biology and chemistry using single-particle electron microscopy and its development.
Precise construction of functional molecules based on supramolecular chemistry, and exploration of their properties such as molecular recognition and selective reaction. Studies on supramolecular metal complexes utilizing organic ligands and metal ions.
Drug discovery for controlling sleep/wakefulness, Synthesis of bioactive molecules, Studies of chemoselective reaction useful for drug discovery