The Advanced Molecular Materials Research Centre (AMMRC) was established as a new academic initiative by Mahatma Gandhi University and inaugurated by Shri. P. K. Abdu Rabb, the Minister for Education, Kerala on November 22, 2012. The Centre has been envisaged as a platform to encourage interdisciplinary advanced research in the cutting edge areas of molecular materials. The establishment of the Centre was aimed to augment the University in its effort to have a potential center of excellence in the area of advanced materials. The Centre will have in-house facilities of the most sophisticated and advanced equipments to undertake research in the area of molecular materials and devices.

  The vision of AMMRC is to foster frontier interdisciplinary research in the area of molecular materials and to provide advanced instrumentation in these areas to the University research communities. The center will function as an interfaculty collaborative center of excellence providing linkage between Material scientists in different areas and brings together students and investigators from diverse scientific backgrounds to carry out advanced research projects in the area of molecular materials at the regional and national levels. AMMRC is committed to train skilled postgraduate researchers who are highly sought after in public and private sectors.

The objectives of AMMRC:

• To augment the university in its effort to have a potential Centre of Excellence in the area of advanced functional materials.

• To provide advanced instrumentation in these areas to the university research communities and the researchers from other Universities and Institutes.

• To establish intense interdisciplinary collaborative research partnership in the frontiers of functional molecular materials with national and international research groups through internships and exchange programmes.

• To provide students and researchers the expertise and resources that can be applied to new opportunities in research and development.

• To strengthen the interaction with industry and to focus on new materials developments that has potential benefit to the society at large. 

• To organize conferences/workshops/symposia on diverse cutting-edge fields of materials research and state-of-the-art characterization techniques for the benefit of  research students and faculties.


Inauguration of AMMRC by Hon’ble Minister of Education on 22nd November 2012



Research Areas:


1. Metal-Organic Frameworks (MOF) 

Global energy consumption is one of the central issues for human beings in the 21st century. Rapid increase in the atmospheric level of carbon dioxide will damage the global ecosystem. A great amount of attention has been needed to find solutions for conservation and remediation of the environment due to the impacts of CO2 release. Scientists seek advanced materials for capturing CO2 which is directly related to clean energy and environmental protection. Hydrogen storage is a critical issue that needs to be overcome for hazards of hydrogen in transportation. These challenges were accepted by the scientists and expanded the research area into the development of most promising materials for storing these valuable energy sources. These investigations have led to new porous materials,' Metal-Organic Frameworks' which have exceptionally high surface areas and hydrogen uptake capacities. 


2. Ferrofluids 

A ferrofluid is a stable colloidal suspension of sub-domain magnetic particles in a liquid carrier. The particles, which have an average size of about 100Å (10 nm), are coated with a stabilizing dispersing agent (surfactant) which prevents particle agglomeration even when a strong magnetic field gradient is applied to the ferrofluid. When a magnetic field is applied to a ferrofluid, the magnetic moments of the particles orient along the field lines almost instantly. The magnetization of the ferrofluid responds immediately to the changes in the applied magnetic field and when the applied field is removed, the moments randomize quickly. In a gradient field the whole fluid responds as a homogeneous magnetic liquid which moves to the region of highest flux. This means that ferrofluids can be precisely positioned and controlled by an external magnetic field. Application: Electronic devices, medical applications, space craft propulsion etc. 


3. Photocatalysis

Photocatalyst is one that participates and modifies the reaction rate of chemical reactions under light irradiation without changing and consuming itself in the end. Semiconductor nanoparticles were capable of trapping and oxidizing organic compounds to minerals and small molecules such as CO2. As shown in Figure semiconductor absorbs UV photons from sunlight generating electron and hole pairs (EHPs). When the hole reaches the particle's surface, it can react with hydroxyl ions from adsorbed surface water and form highly reactive hydroxyl radicals that are electrically neutral but highly reactive. The material used is environment-benign and easy to be separated for recyclable usage and the reaction process is simple and can take place under ambient conditions. Therefore, photocatalytic degradation (PCD) of contaminants using semiconductor as photocatalyst is being studied for disinfection, air purification, environmental cleaning, and wastewater treatment in daily life and industrial activities.

4. High Energy Materials 

These are a special class of compounds which have low stability and are sensitive to pressure and temperature liberating high energy on decomposition. Explosives and propellants fall under this category and they find extensive applications in defense and space research. There are inorganic, organic and polymeric compounds and the area of research includes their synthesis, characterization and property evaluation suiting to different applications. At present we are working on solid propellant oxidizers like Phase stabilized ammonium nitrate and Ammonium perchlorate crystal structure studies and high energy polymeric binders synthesis. More areas of research are planned. 


5. Flexible Opto-Electronic Materials 

Opto-electronic devices developed until now are usually highly costly, rigid and brittle. Pursuit for low-cost-flexible inorganic and organic semiconducting materials with easy processability for the development of flexible opto-electronic devices has recently been surged as a highly sought after research field. Such devices are in constant demand in renewable energy sectors where mechanical flexibility offer distinct advantages in carriage and installation of the devices, and in display devices where flexible displays render a better 3–dimensional view and ease of carrying. Recently non-volatile, low viscosity, functional molecular liquids/crystals are proposed as potential materials to be used in foldable device applications. These materials are made by simple chemical functionalization of a functionally active molecule with long chain carbon based side chains. Synthesis of such materials with tunable opto-electronic properties can aid the development of flexible solar cells, light emitting diodes and transistors. 


6. Perovskite Solar Cells

Recently, perovskite-based solar cells have been developed and have rapidly surpassed the efficiencies of many emerging and commercial photovoltaics, such as dye-sensitised, organic and amorphous silicon solar cells. The term perovskite is given to all compounds which have the general chemical formula ABX3. Organic–inorganic metal trihalide perovskites (where A is an organic cation, B a divalent metal ion, and X a halide or any mixture thereof) such as CH3NH3PbX3, are promising alternatives to silicon, having both cheap and abundant starting materials,and being able to be manufactured by simple solution. The efficiencies of perovskite solar cells have now reached a remarkable certified value o 17.9% (Newport). One concern with this material is the toxicity of lead, and as such, a key scientific challenge is to replace the lead in the perovskite crystal with a less toxic metal. Here we aim to undertake the research of environmentally benign lead-free perovskite solar cells. 


7. High Temperature oxidation resistant materials

Ultra-high temperature ceramic (UHTC) refractory materials including metal carbides and borides have potential applications in hyper sonic aerospace vehicles, missiles etc., as they can afford temperatures between 1600 0C and 2800 0C in oxidizing environments of high velocity dissociated air. Silicon Carbide-Zirconium Carbide nanoceramic composite produced by the high temperature pyrolysis of preceramic polymers offers a convenient method for coatings on substrates subjected to high temperature oxidative environments. 


8. Theoretical and Computational studies 

Theoretical and computational studies are valuable tools that compliment experimental syntheses and characterization. Currently computer simulations are being carried out to study the structure-property relationships of ferrofluids, organic semiconductor molecules for opto-electronic applications and high throughput computational screening of materials for solar cell and OLED applications.




AMMRC collaborates with other centers of MG University for carrying out advanced research in Materials area. Also sponsored projects with R & D institutions like ISRO, CSIR, SCTMIST, DRDO, IIT’s who are actively engaged in Materials Research will also be taken up and the expertise and facilities available with them also will be used. Research projects will be submitted to these organizations and funding for projects will also be made available in future.


International collaborations


Collaborations made with the following international universities.

  •  Rzeszow University of Technology , Rzeszow, Poland
  •  University of Ulster, UK
  •  Australian Institute for High Energetic  Materials,  Australia
  •  NYU-Abu Dhabi, Abu Dhabi





1. Hon. Director: Dr. S. Anas (Assistant Professor, School of Chemical Sciences, Ph.D. 

NIIST(CSIR), Trivandrum, Post-doc: Université Paris-Sud XI, Orsay, France)

Website: http://mguniversity.edu/index.php?option=com_content&view=article&id=417


2. Founder Director: Dr. Suresh Mathew (Professor & Director, School of Chemical 

Sciences, Ph.D. Vikram Sarabhai Space Centre & Kerala University, Trivandrum, 

Post-doc: Alexander-von-Humboldt Fellow at Fraunhofer Institut für Chemische Technologie, Germany)

Website: http://mgu.ac.in/index.php?option=com_content&view=article&id=521


3. Visiting Professor: Dr. P. Radhakrishnan Nair (Retired Scientist-G, Vikram Sarabhai Space Centre, Ph.D. Cochin University)


4. Research Staff: Dr. Sunish K. Sugunan (Ph.D. University of Saskatchewan, Canada, 

Post-doc: Durham University & Cambridge Display Technology Ltd., UK)

Website: https://scholar.google.co.in/citations?user=nU7VKMoAAAAJ&hl=en&oi=ao


5. Casual Worker: Joice Kurien


Contact Us:

Hon. Director

Advanced Molecular Materials Research Centre (AMMRC)

Mahatma Gandhi University

P.D. Hills P.O. 


E-mail: This e-mail address is being protected from spambots. You need JavaScript enabled to view it