Plenary lecturers

Prof. David Kehoe (Indiana University)

Portrait of David Kehoe, taken on Wednesday, Nov. 28, 2018.

David Kehoe received a Ph.D. in Molecular Biology from the University of California, Los Angeles (U.S.A.) in 1992. His postdoctoral research was conducted in the Carnegie Institution of Washington Department of Plant Biology at Stanford University, where he was a National Science Foundation Postdoctoral Fellow, from 1993 until 1998. He then joined the faculty in the Department of Biology at Indiana University, becoming a Full Professor in 2012. In 2010, Dr. Kehoe was made a Howard Hughes Medical Institute/United States National Academy of Sciences Education Fellow in the Life Sciences. In addition, he was made a Fellow of the American Academy of Microbiology within the American Society for Microbiology in 2015 and a Fellow of the American Association for the Advancement of Science in 2018. Dr. Kehoe is an author on over 60 publications. He has been an invited plenary speaker at seven national or international meetings. Dr. Kehoe’s research interests focus on the molecular mechanisms of signal transduction pathways controlling chromatic acclimation, a light-color acclimation response of photosynthetic light harvesting antennae.

Prof. Hitoshi Tamiaki (Ritsumeikan University)

Hitoshi Tamiaki is a Full Professor at the Graduate School of Life Sciences, Ritsumeikan University. He received his Doctoral Degree in Science from Kyoto University in 1986. After working as a JSPS Research Fellow for Young Scientists, he joined the Faculty of Science, Kyoto University as an Assistant Professor in 1987. He moved to the Faculty of Science and Engineering, Ritsumeikan University as an Associate Professor in 1993 and was promoted to Full Professor in 1999. He was an AvH fellow at MPI für Strahlenchemie in Mülheim (1991–92) and a PRESTO researcher of JST (1998–2001), and received the JPA Award 2006 and the 31st CSJ Award for Creative Work in 2014.


Selected speakers

1. Metabolism and catabolism of tetrapyrroles

Photo Name Affiliation Tentative title
Dr. Hisashi Ito Hokkaido University, Japan Functional and structural analysis of Mg-dechelatase involved in chlorophyll degradation
Dr. Roman Sobotka Czech Academy of Sciences, Czech Republic Regulation and the regulatory role of photosynthetic ferrochelatase
Dr. Bernhard Grimm Humboldt-Universität zu Berlin, Germany Multiple posttranslational control of ALA synthesis
Dr. Jennifer Bridwell-Rabb University of Michigan, USA
A Metalloprotein Catalyzed Transformation in Chlorophyll Metabolism

2. Chloroplast biogenesis and retrograde signaling

Photo Name Affiliation Tentative title
Dr. Matthew Terry University of Southampton, UK The role of tetrapyrroles in chloroplast-to-nucleus signalling
Dr. Tatsuru Masuda The University of Tokyo, Japan Functional analysis of heme-transporter in plant cell
Dr. Hsou-min Li Academia Sinica, Taiwan Protein import into plastids –
better signals and a better bridge
Dr. Michal Gabruk Jagiellonian University, Poland The formation and the disassembly of prolamellar body are driven by LPOR

3. Bilin-based photoreceptors

Photo Name Affiliation Tentative title
Dr. Nathan C. Rockwell University of California, Davis, USA A conserved cyanobacteriochrome in early-branching cyanobacteria
Dr. Xiaojing Yang University of Illinois Chicago, USA Protein structural transformation during the Pr/Pfr photoconversion in bacteriophytochromes
Dr. Gen Enomoto University of Electro-Communications, Japan The light-dependent induction of cell polarity and the switching of moving direction in the rod-shaped cyanobacterium Thermosynechococcus
Dr. Tomotsumi Fujisawa Saga University Photoconversion mechanism of a green/red cyanobacteriochrome based on its molecular structure

4. Bilin-based optogenetics and bioimaging

Photo Name Affiliation Tentative title
Dr. Moritoshi Sato The University of Tokyo/Kanagawa Institute of Industrial Science and Technology, Japan Manipulating living systems by light
Dr. Kazuhiro Aoki Exploratory Research Center on Life and Living Systems, Japan Development of SynPCB, a genetically encoded phycocyanobilin synthesis system, for the phytochrome-based optogenetics
Dr. Minghai Chen Shenzhen Institutes of Advanced Technology, Chinese Academy of Sciences Near-infrared phytochrome based fluorescence complementation for imaging of protein-protein interactions in living cells and in vivo
Dr. Robert E. Campbell The University of Tokyo Near-infrared fluorescent calcium ion biosensors based on engineered biliverdin-binding proteins

5. Bilin-based antenna proteins

Photo Name Affiliation Tentative title
Dr. Nicole Frankenberg-Dinkel Rheinland-Pfälzische Technische Universität, Germany Phycocyanobilin biosynthesis in eukaryotic algae
Dr. Jindong Zhao Peking University, China Energy transfer of the phycobilisomes and its regulation
Dr. Noam Adir Technion, Israel Extreme heterogeneity in the A. marina Phycobilisome
Dr. Yuu Hirose Toyohashi University of Technology, Japan Absorption tuning mechanism of the chromatic acclimation sensor in Cyanobacteria

6. Artificial photosynthesis

Photo Name Affiliation Tentative title
Dr. Dror Noy Migal -Galilee Research Institute & Tel-Hai Academic College, Israel Natural and computationally designed chlorophyll-binding protein building blocks for artificial photosynthetic systems
Dr. Koji Oohora Osaka University, Japan Hemoprotein assembly containing porphyrinoid photosensitizers toward an artificial light-harvesting system

7. Chemistry and theory of tetrapyrroles

Photo Name Affiliation Tentative title
Dr. Bernhard Kräutler University of Innsbruck, Austria
Novel chemistry of chlorophyll breakdown in vascular plants
Dr. Min Chen University of Sydney, Australia Chlorophyll f and the mechanism of chlorophyll f formation: current research status
Dr. Igor Schapiro The Hebrew University of Jerusalem, Israel Insight into the Spectral Tuning and Photoisomerization Mechanism of Cyanobacteriochromes Using Hybrid QM/MM Simulations
Dr. Yuichiro Kashiyama Fukui University of Technology, Japan
Biochemical elucidation of CPE-accumulating chlorophyll catabolism conserved among diverse eukaryotes