Suresh Bhargava

Dist. Professor Suresh Bhargava

AcSIR Director

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About

Distinguished Professor Suresh Bhargava AM is an internationally recognised scientist, innovator and global research leader whose career spans academia, industry and international engagement. He is recognised as one of RMIT’s globally influential leaders in translational research and international engagement, with contributions spanning advanced materials, industrial chemistry, critical minerals, sustainability, clean-energy technologies and Australia–India scientific collaboration.

Over more than 35 years, Professor Bhargava has played a leading role in strengthening Australia–India scientific, technological and industrial partnerships through collaboration with governments, industry and research organisations. His broader contributions to multiculturalism, social cohesion and Australia–India relations were formally recognised through his appointment as a Member of the Order of Australia (AM).

His Australia–India engagement has focused strongly on connecting RMIT University, and more broadly Australia and India, through science, technology, innovation and research collaboration. Over several decades, he has contributed significantly to advancing people-to-people engagement between the two nations, supporting the integration of multicultural communities within the framework of Australian values, education and civic participation. His work has established him as an influential bridge between Australia and India across science, education, industry and community engagement.

Professor Bhargava is the Founder and Director of the Centre for Advanced Materials and Industrial Chemistry (CAMIC) at RMIT University, a globally connected research centre recognised for innovation-driven and translational research. Under his leadership, CAMIC has evolved into a multidisciplinary platform that bridges fundamental science, industrial innovation and societal impact across critical minerals, catalysis, advanced materials, sustainability, additive manufacturing and molecular metal-based systems. Beyond research excellence, CAMIC has established a unique intellectual infrastructure that nurtures the next generation of scientific leaders, innovators and globally responsible citizens. Through strong integration of academia, industry and international collaboration, the Centre continues to drive technological advancement, research translation and global capacity building.

He is the architect of the landmark RMIT–AcSIR Research Partnership, internationally recognised as the “SB Model” of global research collaboration. The initiative established a strategic connection between RMIT University and India’s premier national research ecosystem, including the Council of Scientific and Industrial Research (CSIR), the Indian Council of Medical Research (ICMR), and major industrial research laboratories.

The partnership has created large-scale opportunities for international research collaboration, advanced research training and global talent development, supporting more than 7,000 PhD researchers across over 70 Indian national and industrial laboratories. Recognised as an award-winning framework for transnational engagement and university–industry–government collaboration, the SB Model has influenced partnership approaches adopted by several Australian and international universities. 

Professor Bhargava has also made substantial contributions to the Australian resources, minerals and energy sectors over more than 35 years as a researcher, innovator and technology leader. His work has strengthened academia–industry engagement and contributed to technology development, sustainable processing, industrial innovation and fundamental scientific advances across the resources sector.

Throughout his career, he has collaborated with and advised major multinational organisations including Alcoa, BHP, Rio Tinto, ExxonMobil, Clean TeQ, Aditya Birla Group and QPM Energy. His contributions have led to process innovation, technology improvement and scientific advances in mineral processing, critical minerals, advanced materials and clean-energy technologies.

Professor Bhargava currently holds the title of QPM Professor of Critical Metals for Clean Energy, reflecting his leadership in critical minerals, sustainable technologies and the global clean-energy transition. He has also played an important role in strengthening Australia–India collaboration in clean energy and sustainability, including leading an Australian mission on green hydrogen technologies to India, which contributed to advancing strategic partnerships and research engagement between the two nations in the emerging clean-energy sector.

He is also recognised for pioneering research at the intersection of additive manufacturing and critical minerals, contributing to next-generation manufacturing technologies and sustainable industrial systems. His recent book on additive manufacturing for critical minerals is being translated into German, with growing international interest in additional language editions.

Professor Bhargava is the author of more than 900 highly cited scientific publications, with an h-index exceeding 96 and an i10-index of 533. While citation metrics often reflect influence within specific areas, his exceptionally high i10-index is particularly significant as it demonstrates the sustained global relevance, breadth and multidisciplinary recognition of a large body of scientific work spanning chemistry, materials science, engineering, critical minerals, sustainability and translational medical research. His sustained research impact and exceptionally high i10-index place him within the elite class of globally influential multidisciplinary scientists whose work continues to shape multiple fields of science and engineering.

Professor Bhargava’s research spans the complete metals value chain - from ore characterisation and mineral extraction to advanced alloys, nanomaterials and molecular metal chemistry for drug development. The breadth of this research trajectory, spanning resources, materials science and translational molecular chemistry, is rarely seen within a single scientific career and reflects his unique capacity and capability to adopt multidisciplinary approach to discovery and innovation.

His pioneering work on the molecular engineering of metals, including the discovery and stabilisation of unconventional oxidation states, has opened new directions in understanding their unique and previously unexplored physicochemical and functional properties. These discoveries are contributing to advances across catalysis, advanced materials, sustainability, clean-energy technologies and next-generation metallodrug development, helping shape new frontiers in modern metal chemistry that bridge fundamental science with industrial and biomedical applications.

Selected Awards and Recognition

  • Royal Australian Chemical Institute (RACI) Lifetime Distinguished Fellowship in Chemistry, 2025
  • Cooperative Research Australia Excellence in Innovation Award – Lifetime Achievement for Industry–Research Collaboration, 2024
  • RMIT Vice-Chancellor’s Research Excellence Award, 2024 (also awarded in 2014 and 2006)
  • SASTRA–C.N.R. Rao Award, 2023
  • RMIT Vice-Chancellor’s Award for Best Graduate Supervision, 2023
  • Member of the Order of Australia (AM), 2022
  • Fellow of The World Academy of Sciences (TWAS), UNESCO, 2022
  • CHEMECA Medal, 2015
  • INSA P.C. Ray Chair Award, 2014

Fellowships, Governance and Professional Recognition

  • Elected Foreign Fellow, European Academy of Sciences (EurASc), 2026
  • Fellow of the National Academy of Inventors (FNAI), USA, 2025
  • Fellow of The Australasian Institute of Mining and Metallurgy (AusIMM), 2023
  • Fellow of The World Academy of Sciences (TWAS), UNESCO, 2022
  • Foreign Fellow of the American Association for the Advancement of Science (AAAS), 2020
  • Honorary Member, Materials Research Society of India (MRSI), 2018
  • Foreign Fellow, National Academy of Sciences India (FNASI), 2014
  • Foreign Fellow, Indian National Academy of Engineering (INAE), 2013
  • Fellow of the Australian Academy of Technological Sciences and Engineering (FTSE), 2010
  • Fellow of the Royal Society of Chemistry (FRSC), 2009
  • Fellow of the Royal Australian Chemical Institute (FRACI), 1992

Media

Supervisor projects

  • Additive Manufacturing of Advanced Water Filtration Membranes
  • 31 Mar 2026
  • Development of Metal Catalysts for Sustainable Hydrogen Production
  • 16 Dec 2025
  • Fabrication of Doped Graphitic Carbon Nitride-based Heterostructures for Photocatalytic Hydrogen Production by Water Splitting
  • 29 Sep 2025
  • tudy of mechanisms and synergistic effects of Microbial Activity and electrochemistry during electro-bioleaching of low grade ores
  • 24 Sep 2025
  • Gold-based drugs for the effective treatment of ovarian cancer
  • 7 Aug 2025
  • Design and Development of Nano-Structured Catalyst System for CO2 Hydrogenation to Formic Acid
  • 6 Aug 2025
  • Optoelectrical properties of 2D materials for potential device applications.
  • 28 Jul 2025
  • Development of Efficient Metal Catalysts for Ammonia Synthesis and Decomposition
  • 22 Jul 2025
  • Geology, Petrography and Physiochemical Characteristics of Lower Gondwana Coals from Ib Valley Basin, Qdisha, India
  • 11 Mar 2025
  • Mineralogical, Petrographic, and Geochemical studies on syenite rocks of the Rairakhol alkaline complex, western Odisha, India, with special reference to their rare earth element (REE) potential.
  • 7 Feb 2025
  • Process development for the treatment of wastewater from textile industries in Bangladesh
  • 21 Jun 2024
  • CO2 Utilization to Value Added Chemicals via Heterogeneous Catalysis
  • 19 Jun 2024
  • Gold-based drugs for the effective treatment of ovarian cancer
  • 20 Feb 2024
  • Gold-based drugs for the effective treatment of ovarian cancer
  • 2 Feb 2024
  • Investigation of Thermal Decomposition of Hydrated Magnesium Nitrate for the Recycling of MgO and NOx Gases During the Nickel Extraction from Laterite Ores
  • 11 Dec 2023
  • Valorization of Commercially Important Essential Oils of Poaceae and Lamiaceae Families Using Heterogeneous Catalysts
  • 21 Nov 2023
  • Gold-based drugs for the effective treatment of ovarian cancer
  • 14 Nov 2023
  • Recovery of Nickel and Cobalt from Laterite Ores for Lithium Batteries
  • 14 Sep 2023
  • Gold-based drugs for the effective treatment of ovarian cancer
  • 11 Sep 2023
  • Recovery of Nickel and Cobalt from Laterite Ores for Lithium Batteries
  • 24 Aug 2023
  • Design of Nanosized ceria-based Materials for Catalytic Oxidation Reactions
  • 7 Jun 2023
  • Investigation of Nanoporous carbon supported metal structures for the sorption enhanced CO2 hydrogenation
  • 7 Dec 2022
  • Gold-based drugs for the effective treatment of ovarian cancer
  • 5 Sep 2022
  • Developing Biogenic Carbon Dots for Bioimaging, Sensing and Targeted Drug Delivery
  • 3 Aug 2022
  • Assessment of the Potential of Mineral Sands Resource Exploitation in Bangladesh
  • 25 Nov 2021
  • Designing and Fabricating 3D Printed Substrates for SERS Sensing
  • 25 Nov 2021
  • Investigations on Rare Earth Manganites, Tantalates, and Vanadates under Extreme Conditions of Temperature and Pressure
  • 22 Sep 2021
  • Mechanistic Insights into Nickel Loss During Partial Neutralisation of Leach Liquors: Implications for Nickel Recovery in Laterite Processing
  • 2 Aug 2021
  • Techno-economic Evaluation of Integrated Green Hydrogen System
  • 28 Oct 2020
  • Development of Cathode/Electrolyte Interfaces for Intermediate Temperature Ammonia Solid Oxide Fuel Cells
  • 14 Jun 2019
  • Synthesis and Characterizations of N-heterocyclic Compounds via Transition Metal Free C-H Functionalization for C-C Bond Formation and C-S Bond Formation using Elemental Sulphur
  • 24 May 2019
  • Phase Equilibria Study of the CaO-Al2O3-SiO2-(Na2O/B2O3) Slag System To Recover Valuable Metals From E-Waste
  • 22 Jan 2019
  • Modelling and Optimisation of Lipase Synthesis from Candida antarctica and Reactions Catalysed by Lipase
  • 7 Jan 2019
  • Morphology Controlled Synthesis, Characterization, and Separation Performance of Novel Polymeric Membranes
  • 11 Sep 2018
  • Non-precious Metal Electrocatalysts for Rechargeable Metal-air Batteries
  • 10 Sep 2018
  • Development of Two-Dimensional Layered Nanomaterials for Tribological Applications
  • 3 Sep 2018
  • Design and Fabrication of Gold Microelectrode Arrays for SERS-Based Chemical Sensing
  • 2 Jul 2018
  • Nanostructured metallic surfaces of Au implemented as electrochemical glucose sensors
  • 6 Mar 2018
  • Beneficiation of a goethitic rare earth bearing laterite ore through pyrometallurgical pre-treatment and magnetic separation
  • 16 Feb 2018
  • Investigation of Binder Modified Zeolites for the Catalytic Cracking of Endothermic Fuels
  • 5 Jan 2018
  • Nano-metal Oxides for Elemental Mercury Removal from Natural Gas
  • 27 Sep 2017
  • The Impact of Chloride Ion on the Leaching of Sulphide Mineral in Acidic Solution
  • 16 May 2017
  • Development of Polyimide Membranes for Gaseous Separations and Oligomide Membranes for Reactive Liquid Separations
  • 30 Dec 2016
  • Design Strategies for Small Molecular Fluorophores and their Applications in Detection of Fluoride and Copper Ions
  • 30 Dec 2016
  • Designing of Nanoplatforms for Improved Delivery of Anticancer Drugs
  • 30 Dec 2016
  • Development of Functionalized Polymeric Membranes for the Recovery of Value-Added Products and Treatment of Industrial / Domestic Wastewater
  • 30 Dec 2016
  • Particle Attrition in a Mechanically Agitated Vessels
  • 7 Mar 2016
  • Rapid detection and quantification of coffinite - USiO4
  • 3 Mar 2014
  • Catalyst development and process intensification towards syngas production through methane reforming
  • 22 Jul 2013
  • Highly Selective and Sensitive Nano-Engineered Materials for Detection of Elemental Mercury Vapour
  • 27 Feb 2012

Teaching interests

Supervisor interest areas:
Minerals processing - Eco-sustainable issues and process intensifications
Nano catalysis and 3 D printing in catalysis
Metallodrug for cancer treatment
Advanced materials
Nanomaterials for Chemical sensing in particularly Mercury and hydrogen sensing
Natural Carbon materials for different applications

Supervisor projects:
Critical metals(Ni & Co) refining for Li- Ion Batteries
Nano-materials for catalysis and sensing including mercury and Hydrogen sensing
Ammonia Fuel cells for Hydrogen production
Hydrogen from solid bio-waste

Research interests

Catalysis in air pollution control
Mines and Minerals processing
Nanotechnology use in Chemical sensors - Mercury emission control
Metallodrugs for Cancer treatment

Research keywords:
Gold, Metallodrugs, Catalysis, Mercury, Hydrogen, Cancer SERS, Nanotechnology
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RMIT University acknowledges the people of the Woi wurrung and Boon wurrung language groups of the eastern Kulin Nation on whose unceded lands we conduct the business of the University. RMIT University respectfully acknowledges their Ancestors and Elders, past and present. RMIT also acknowledges the Traditional Custodians and their Ancestors of the lands and waters across Australia where we conduct our business - Artwork 'Sentient' by Hollie Johnson, Gunaikurnai and Monero Ngarigo.

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