Dr. Arivazhagan Rajendran, Ph.D.Junior Associate Professor · Integrated Research Center for Carbon Negative Science (ICaNS), Institute of Advanced Energy (IAE), Kyoto University
Bridging nucleic-acids chemistry and DNA nanotechnology with organic, inorganic and hybrid nanomaterials to create functional systems for biomedical science, clean energy and CO₂ reduction.
Integrated Research Center for Carbon Negative ScienceInstitute of Advanced Energy, Kyoto University · Uji, Japan
49Publications
3,388Google Scholar citations · 889 since 2021
26 / 33h-index / i10-index Since 2021: 15 / 21
Integrated Research Center for Carbon Negative Science (ICaNS)Institute of Advanced Energy (IAE), Kyoto University
Research mission
One materials platform. Three global needs.
NanoBio Materials unites the molecular programmability of biology with the optical, electronic and catalytic functions of advanced materials—connecting fundamental chemistry to practical impact.
01 · Health
Precision at the nanoscale
Programmable nucleic-acid structures and biofunctional nanomaterials for understanding, sensing and influencing biological systems.
DNA origami and nano-bio interfaces
Biomolecular stability and recognition
Biofunctional nanoparticles
02 · Energy
Materials for conversion
Organic, inorganic and hybrid nanomaterials engineered to harvest, store and transform energy more efficiently.
Photocatalysis and electrocatalysis
Low-dimensional catalytic materials
Solar-driven chemical conversion
03 · Environment
Chemistry for a lower-carbon future
Functional materials and sustainable processes that turn environmental challenges into opportunities for resource recovery.
CO₂ reduction and utilization
Carbon-negative science
Green synthesis and catalysis
Research foundations
From molecular information to material function.
The research programme grows from a long-standing foundation in nucleic-acids chemistry and DNA nanotechnology into a broader platform of organic, inorganic and hybrid nanomaterials for health, energy and environmental applications.
Nucleic-acids chemistry
DNA nanotechnology
NanoBio interfaces
Functional nanomaterials
01
Nucleic-acids chemistry
Recognition, folding and function of non-canonical DNA structures, DNA–protein complexes and small-molecule interactions.
G-quadruplexi-MotifMolecular recognition
02
DNA nanotechnology & origami
Programmable assembly, ligation and stabilization of 2D and 3D DNA origami, including addressable scaffolds for nano-bio applications.
Self-assemblyLigationHigh-speed AFM
03
Organic nanomaterials
Molecularly designed soft and carbon-based nanomaterials for light harvesting, molecular recognition and bio-related function.
Organic nanoassembliesPhotochemistryBiointerfaces
04
Inorganic & hybrid nanomaterials
Nanoparticles, heterostructures and low-dimensional catalysts designed for energy conversion, CO₂ reduction and carbon-negative science.
NanohybridsElectrocatalysisCO₂ reduction
Current directionOrganic and inorganic nanomaterials · light-assisted CO₂ reduction · low-dimensional catalytic systems
International research network
Ewha Womans University · single-molecule analysis of enzyme mechanisms and inhibitor action · since 2014
Recent and representative contributions spanning nucleic-acids chemistry, DNA nanotechnology, NanoBio interfaces and functional materials for energy and the environment.
2026
High-energy Ni²⁺/Bi³⁺ layered double hydroxide/MXene heterostructure electrode using a supercritical fluid approach
Research discussions and collaboration enquiries in nucleic-acids chemistry, DNA nanotechnology, organic and inorganic nanomaterials, energy conversion and CO₂ reduction are welcome.
Prospective researchers: Ph.D. and postdoctoral enquiries are welcome, particularly from candidates applying for external scholarships. Please review the relevant funding guidelines and include a focused research idea when contacting.