A/Professor Mohan Yellishetty

A/Professor Mohan Yellishetty

Associate Professor in Resources Engineering
Department of Civil Engineering
Room 147, 23 College Walk (B60), Clayton Campus

Assoc Prof Yellishetty possesses two decades of promising research and altruistic academic career in Australia, USA and India which enabled me to develop a broad skills base in all aspects of the mining cycle. He has been involved with mining education for nearly two decades and conducted a fair amount of research in this discipline. His research and academic work experience at Monash University and CSIRO, Australia, Yale University, USA and IIT Bombay, India have provided him with the opportunity to undertake high-quality research work and to contribute significantly to mining engineering discipline and publish widely in reputed high impact journals.

A/Prof Yellishetty has been working with several Australian and Indian mining companies and universities. This has directly led to a number of MoUs / contract research agreements/projects under negotiation between Monash University and others.

A/Prof Yellishetty’s research has positively influenced both public policy and industrial practice. His major disciplinary public service contributions include:

His teaching philosophy combines a solid theoretical background backed by real-world examples, through the integration of field-based, project-based and hands-on learning experiences for his students. He pioneered the use of a variety of pedagogical practices, such as developing industry-centric curriculum and industry-based learning to achieve effective teaching-learning outcomes that not only contributed to the strong student engagement but have prepared the students for employment within the Australian and the global mining industry. His teaching and research (both discipline-specific and pedagogical) are mutually informing, complementary and inseparable. He strongly believes that excellence in teaching involves constantly re-evaluating what and how he is teaching, and continually striving for the most creative and effective methods to maximize student learning and student success.

A/Prof Yellishetty co-founded the Critical Minerals Consortium at Monash University


  • Graduate Certificate in Academic Practice, Monash University, 2010
  • PhD, Monash University., 2010
  • M Tech, IIT Bombay, Mumbai, India, 2004
  • PG Dip Environmental Education & Management , Hyderabad University, India, 2001
  • Diploma in Industrial Safety Engineering, Annamalai University, India, 1998
  • BEng, Osmania University, India, 1995


Mine rehabilitation and closure
Sustainability frameworks/tools and their application to mining industry.
Industrial ecology, life cycle thinking, substance flow and material flow analysis.
Critical and strategic mineral supply chains and assessment
Resources and environmental geotechnical engineering

Professional Association:

  • Society of Mining Professors
  • Australasian Institute of Mining & Metallurgy (CP)
  • Southern African Institute of Mining and Metallurgy
  • Mining Engineers Association of India

Honors & Awards:

  • 2019 Finalist India Australia Business & Community Awards
  • 2016 Engineering Dean’s Award for Teaching Excellence, Faculty of Engineering, Monash University.
  • Teaching Excellence Award 2016,  Department of Civil Engineering, Monash University.
  • Endeavour Research Fellowship 2014, Government of Australia
  • Best PhD Thesis Award (2010), Department of Civil Engineering, Monash University, Australia.
  • Civil Engineering Nominee for the Mollie Holman Medal for Excellence in a PhD Thesis (2010), Faculty of Engineering, Monash University, Australia.
  • Postgraduate Publications Award (2010): Monash University, Australia.

Research Projects

Current projects

Development of a cost-effective and resilient mine rehabilitation strategy framework for AGL Loy Yang mine.

Field trials at Loy Yang Mine, Victoria will be undertaken to test the performance of rehabilitated mine slopes. AGL has selected a site to commence large-scale rehabilitation trials at the Loy Yang Open Cut Coal Mine. The trials will focus on large-scale in situ data collection during and after the construction phase. This project will investigate the existing conditions within the planned cut and fill slope and expected stability parameters. Three phases of the investigation are required:

  • Construction,
  • Instrumentation, and
  • Monitoring.

The scope of work presented covers activities associated with the planned construction of the Trial Slope 1 and specifically investigates the following:
Design and performance monitoring of engineered earthen covers on slopes.
Development of a cost-effective monitoring framework for Loy Yang mine slopes.
Numerical slope analysis including the assessment of consolidation, swelling and saturation behaviour and performance of the coal-capping material interface.
Full-scale Field Trials of Artificial Soils at Loy Yang Open Cut.

Evaluating Critical Raw Material Supply for Australia’s Defence Sector

‘Criticality’ assessments evaluate the exposure and vulnerability of an actor to potential raw material and mineral supply chain disruptions. These supply chain disruptions can be caused by a variety of factors, including potential economic or geopolitical conflicts and may be exacerbated in situations of excessive import dependence from unstable or hostile countries. Due to this, it has been speculated that future resource conflicts may not just be associated with fuel resources (e.g. oil, gas), but may also arise from competition and access to strategic, non-fuel minerals and elements (e.g. the rare earth elements) (www.pnas.org/cgi/doi/10.1073/pnas.1717152115). In the context of the United States, recent research has developed approaches for early-warning screening of mineral criticality in an attempt to pre-emptively avoid potential supply constraints (https://10.1007/s13563-017-0119-6), and there has also been work undertaken by the U.S. Geological Survey to assess mineral criticality risks for the U.S. defence and manufacturing sectors (https://doi.org/10.3133/ofr20181021). However, to our knowledge there has been no equivalent assessment of mineral criticality risks for the Australian defence sector. The proposed research will provide an analytical framework for evaluating mineral criticality risks for the Australian defence sector, based upon a novel machine learning approach for assessing mineral criticality recently developed at Monash University (currently unpublished). This will provide a pathway for improved understanding of the mineral supply risks facing Australia’s defence sector and potential strategies for mitigating these risks.

Australian Critical Minerals and Economic Fairways

There is a clear opportunity for Australia to position itself as a reliable supplier of a range of critical minerals (and metals) – those which are economically important and assessed as being at risk of supply disruption leading to significant economic, environmental and/or social impacts. The critical minerals are typically those required for renewable energy (e.g. rare earths, tellurium), consumer electronics (e.g. indium, lithium, rare earths), chemical catalysts (e.g. platinum), specialty alloys (e.g. rhenium) or military technologies (e.g. rare earths, tungsten). At present, a small number of countries (or companies) control the supplies of most critical minerals, and these are often developing countries, justifying concerns about stability of these supplies.


Given that critical minerals are typically potential by-products to base or precious metals, Australia’s existing mines and mineral resources are potentially well positioned to take advantage of the growing need for reliable critical minerals supplies in the world. Furthermore, most of Australia’s base and precious metal mines and mineral resources are located in the northern half of Australia, meaning these can be linked to economic development opportunities currently being pursued for the region, known as ‘Exploring for the Future’ (EFTF).


Researchers at RMIT and Monash universities have considerable expertise in critical minerals and quantifying various aspects of mining and mineral resources.

Past projects

AusIMM EEF Funding Program for Universities - Mining Engineering Industrial Experience for Monash Mining Students 2017.

The AusIMM Education Endowment Fund provides funding for a variety of educational initiatives to attract and support those studying minerals related degrees.

Gallium and germanium from discarded products in Australia's "urban mines" under future scenarios as well as their potential for recycling and reuse.

This study estimated the potentially recoverable resources of Ga, Ge, and Sb in Australian primary ore deposits and geogenic stocks (such as waste rock piles, tailings, smelting, and refining).

Hood Infiltrometer Procurement.

4-drum Slake Durability Apparatus - procurement.


Yellishetty, M., V Wong, M Taylor, J Li (2014). Forming an artificial soil from waste materials for mine site rehabilitation. V N L Wong (Ed), in proceedings of Third Australian Regolith Geoscientists Association Conference, Bunbury, WA, 6-7th February 2014, pp. 66-68.

Yellishetty, M., J Li, and V Wong (2013). Turning mine sites greener through industrial symbiosis practices: An innovative way of creating artificial soils from waste products for mine rehabilitation a case study. T Ren & J Xu (Eds), In proceedings of the 6th International Symposium on Green Mining (ISGM), November 24 – 26 2013, the University of Wollongong, pp. 392-397.

Yellishetty, M.,(2013).Abiotic resource depletion and life cycle assessment: where we go from here?, in: Mancini, L., De Camillis, C., Pennington, D. (eds.) 2013 Security of supply and scarcity of raw materials. Towards a methodological framework for sustainability assessment. European Commission, Joint Research Centre, Institute for Environment and Sustainability, Publications Office of the European Union, Luxemburg, pp. 35-36.

Yellishetty, M., G M Mudd, L Mason, D Giurco, S Mohr and T Prior (2012). A critical assessment of Australian and Global iron ore resources: production trends, sustainability issues and future prospects. Prepared by Monash University and UTS for CSIRO Minerals Futures Collaboration Cluste.

Yellishetty, M., G M Mudd, L Mason, D Giurco, S Mohr and T Prior (2012). Assessment of Australian iron ore resources: production trends, sustainability issues and future prospects, accepted for presentation at 21st International symposium on mine planning and equipment selection, New Delhi, India.

Yellishetty, M. (2009). Technical consulting report entitled ‘Data on material flows of the world iron ore, steel and the iron and steel inventory’ for CSIRO Sustainable Ecosystems, Highett, Victoria, Australia.

Yellishetty, M., P G Ranjith A Tharumarajah, M Patil and E H Reddy (2008). Best practice environmental management systems in mining industry: a case study, Sesa Goa, India, Proceedings of 14th annual Int. Sustainable Development Research Conference.

Yellishetty, M., P G Ranjith, A Tharumarajah (2008). Achieving sustainable development: a material stewardship approach in mineral industries. Submitted to the 3rd International symposium on environment, 22-25 May 2008, Athens, Greece.

Yellishetty, M., S Kulkarni, D L Kumar and K N Subhash (2005). Economic use of mine wastes: A case study. Presented in the national seminar on Indian mining industry: Destination 2020, organized by Institution of Engineers (India), Nagpur Center on 1-2 December 2005, pp. 145-149.

Yellishetty, M., D L Kumar, H K Bhuptawat and K N Subhash (2005). Metal leaching and acid mine drainage: A long-term threat to mine environment. Presented at the International symposium (AIMM, 2005), Indian Institute of Technology-Kharagpur, Nov., 30 to December 3, 2005, pp. 613-618.

Yellishetty, M., H K Bhuptawat, B M Chodankar, D L Kumar and K N Subhash (2004). Soil erosion prediction, quantification, and mitigation from mine dumps. Proceedings of the international seminar on technology update in mining and mineral industries, IISc, Bangalore, from 16-17 October, 2004.

Yellishetty, M., E H Reddy, D L Kumar and K N Subhash (2004). Technology options available for remediation of acid mine drainage Proceedings of the VI international conference on clean technologies for the mining industry. Concepcion, Chile, April 18-21, 2004.

Yellishetty, M. and S R Asolekar (2004). Technology options available for overburden management of iron ore mines of Goa. Proceedings of the 8th international symposium on environmental issues and waste management in energy and mineral industry (SWEMP 2004), pp. 197-201.

Yellishetty, M. and S R Asolekar (2004). Environmental significance of mine waste recycling. Paper presented at conference on technology and management for sustainable exploration of minerals and natural resources (TAMSEN), KHARAGPUR, 5-7 February 2004. 16.

Yellishetty, M., E H Reddy and D L Kumar (2003). Mining and sustainable development-the Indian perspective. Proceedings of mining and sustainable development conference, implementing sustainable development in mining: from talk to action, 5 November 2003, Johannesburg, South Africa.

Taylor, M., Yellishetty, M. and B C Panther (2013). Geotechnical and hydrogeological evaluation of artificial soils to remediate acid mine drainage and improve mine rehabitation – an Australian case study. C Drebenstedt and R Singhal (Eds) Mine Planning and Equipment Selection: Proceedings of the 22nd MPES Conference, Dresden, Germany, 14th-19th October 2013. 2, pp. 855-868.

Gupta, M. Yellishetty, and T.N. Singh (2015). Optimization of ash content in overburden dumps: a numerical approach. Proceedings of MPES 2015 Smart Innovation in Mining, The Southern African Institute of Mining and Metallurgy

Yellishetty, M., V Wong, M Taylor, J Li, B Panther (2014). Forming an artificial soil from waste materials for mine site rehabilitation. Presented to European Geosciences Union General Assembly 2014, Vienna | Austria, 27 April 02 May, 2014.

Books Edited

Singhal, R, Topal, E., Fytas, K., and Yellishetty M. (Eds) Proceedings of the 21st International Symposium on Mine Planning & Equipment Selection [MPES 2012], November 28-30, 2012, New Delhi, India. ISSN 21673322.

Subhash, K. N., M. Yellishetty and E. H Reddy (Eds) (2006). Proceedings of the National workshop on Occupational health, safety & environmental issues in industries. Goa Chamber of Commerce & Industry and and Institution of Engineers (India), Goa, India.

Invited Book Chapters

Yellishetty, M., N. Haque, A. Debruil (2012). Issues and Challenges in Life Cycle Assessment in the Minerals and Metals Sector: A Chance to Improve Raw Materials Efficiency. R. Sinding-Larsen and F.-W. Wellmer (eds.), Non-Renewable Resource Issues: Geoscientific and Societal Challenges, International Year of Planet Earth, Springer Dordrecht Heidelberg London New York (Pub).

Yellishetty, M., P. G. Ranjith A. Tharumarajah (2009). Application of best practice environmental management systems: a sustainable solution for the mining industry. In: T. N. Singh (Ed) Recent Advancements in Disaster Analysis, JBC Publishers, New Delhi.

International Journal Publications (Peer Reviewed)

M Khandelwal, D J Armaghani, R S Faradonbeh, *M Yellishetty*, M Z A Majid and M Monjezi (2016). Classification and regression tree technique in estimating peak particle velocity caused by blasting. *Engineering with Computers *(in press).

G M Mudd, M Yellishetty, B K Reck, T E Graedel (2014). Quantifying the Recoverable Resources of Companion Metals: A Preliminary Study of Australia. Resources.

K R Chandar, C Hegde, M Yellishetty and B G Kumar (2014). Classification of Stability of Highwall During Highwall Mining: A Statistical Adaptive Learning Approach. Geotech Geol Eng.

Yellishetty, M. and G M Mudd (2014). Substance flow analysis of steel and the sustainability of iron ore resources. Special issue of Journal of Cleaner Production ( (in press).

Ukwattage N, P G Ranjith, M Yellishetty (2014). A laboratory scale study of the aqueous mineral carbonation of coal fly ash for CO2 sequestration, Journal of Cleaner Production (in press).

Yellishetty, M., G M Mudd, D. Giurco, L. Mason and S. Mohr (2013). Iron ore in Australia too much or too hard? Journal of the Australasian Institute of Mining and Metallurgy (The AusIMM Bulletin), 3, pp. 42-47.

Yellishetty, M., G M Mudd and R. Shukla (2013). Prediction and evaluation of soil erosion due to water from overburden dumps from opencast mines of Goa and their impacts on the environment. International Journal of Mining, Reclamation and Environment, 27:2, 88-102.

Shukla R., P G Ranjith, A Haque, X Choi, M Yellishetty, L. Hong (2012). Investigating mechanical behaviour of reservoir rock under brine saturation: Geological sequestration of carbon dioxide in saline aquifers. Rock Mechanics and Rock Engineering Journal (in Press).

Yellishetty, M., G M Mudd, P G Ranjith and A Tharumarajah (2011). Environmental life-cycle comparisons of steel production & recycling: sustainability issues, problems and prospects. Environmental Science & Policy, 14, 650 663.

Yellishetty, M., G Mudd and P G Ranjith (2011). The steel industry, abiotic resource depletion and life cycle assessment: A real or perceived issue? Journal of Cleaner Production, 19, 78-90.

Yellishetty, M., and W Darlington (2011). The effects of monsoonal rainfall on waste dump stability and respective geo-environmental issues. Environmental Earth Sciences, 63, 11691 S177.

Yellishetty, M., A Tharumarajah and P G Ranjith (2010). Iron ore and steel production trends and material flows in the world: Is this really sustainable? Resources, Conservation & Recycling, 54, 1084 S1094.

Khandelwal, D L Kumar and M Yellishetty (2010). Application of soft computing to predict blast-induced ground vibration. Engineering with Computers, 27, 117 S125.

Yellishetty, M., P G Ranjith, A Tharumarajah and S Bhonsale (2009).Life cycle assessment in the minerals and metals sector: a critical review of selected issues and challenges. Int. J. of Life Cycle Assessment, 14, 257 S267.

Yellishetty, M., P G Ranjith and D L Kumar (2009).”Metal concentrations and metal mobility in unsaturated mine wastes in mining areas of Goa, India”. Resources, Conservation & Recycling, 53, 379 S385.

Yellishetty, M., V Karpe, E H Reddy, K N Subhash and P G Ranjith (2008). Reuse of iron ore mineral wastes in civil engineering constructions: A case study”. Resources, Conservation & Recycling, 58 (11), 1283-1289.

Yellishetty, M., V Karpe, E H Reddy, K N Subhash and P G Ranjith (2008). Mineral wastes as alternative and sustainable construction material, Canadian Mining Journal, 129 (2), 7.

Research Consultancy Reports & Others

Yellishetty, M. (2009). Technical consulting report entitled Data on material flows of the world iron ore, steel and the iron and steel inventory for CSIRO Sustainable Ecosystems, Highett, Victoria, Australia.

Yellishetty, M., G M Mudd, L Mason, D Giurco, S Mohr and T Prior (2011). A critical assessment of Australian and Global iron ore resources: production trends, sustainability issues and future prospects. Prepared by Monash University and UTS for CSIRO Minerals Futures Collaboration Cluster (April 2011).

Yellishetty, M., G M Mudd (2011). The Boom: Iron ore and Australia. The Conversation.

Conference Papers

K Svobodova, J Vojar, M Yellishetty, P Sklenicka (2016). Public knowledge of mining: the effect of sociodemographic characteristics and experience of mining operations. Submitted to 16th International Symposium on Environmental Issues and Waste Management in Energy and Mineral Production, October 5-7, 2016, Istanbul, TURKEY.


Associate Editor, International Journal of Mining, Reclamation and Environment Int J of Mining Science & Technology

Associate Editor, I J of Quality Control and Standards in Science and Engineering


MPES 2020


Research fellow

Dr Kamila Svobodova
The post-mining community aesthetic preferences in mine rehabilitation practice
2015 to 2016

Dr Sumit K Gautam
Temporal changes to the chemical characteristics of the artificial soils used in mine rehabilitation due to biological and physical weathering processes
2014 to 2015

Dr Alena Walmsley
Soil fauna establishment in artificial soils used for mine rehabilitation at Loy Yang’s open cut coal mine
2017 to Ongoing

Dr Stephen Northey
Critical Minerals and Economic Fairways
2018 to 2019

Dr Zhehan Weng
Evaluating Critical Raw Material Supply for Australia’s Defence Sector
2019 to Ongoing

Dr David Whittle
Critical Minerals
2020 to Ongoing


Ms Likhitha Mundodi
Study of artificial soil created from Overburden, Ash, Brown coal and Compost in Mine Rehabilitation
2013 to 2019

Mr Tushar Gupta
Ash utilisation in haul-road construction in open pit mines: A geoenvironmental investigation
2014 to 2018

Mr Shashibhushan Biliangadi
Synthesizing Soils Using By-Products from Iron & Steel Industry
2015 to 2018

Mr Ye (Eric) Yuan
A new framework for minerals criticality evaluation using machine learning, artificial intelligence, and game theory
2015 to 2019

Mr Stephen Northey
Assessing Water Risks in the Mining Industry using Life Cycle Assessment based Approaches
2014 to 2018

Mr Anil Kumar
Statistical and Machine Learning Models for the Evaluation of Geophysical and Geomechanical Data
2016 to 2020 (expected)

Teaching Commitments

  • RSE1010 - Natural resources engineering
  • RSE3020 - Resource estimation
  • RSE3060 - Blasting and fragmentation
  • RSE4010 - Mine planning and scheduling
Last modified: 17/11/2020