National Frontiers of Science (NatFoS) Meeting 2019

November 6-8, 2019

Samode Bagh Resort,Jaipur

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Dr. Arabinda Mitra
Scientific Secretary
Office of PSA to GoI
Background:
In June 2018, Dr. Mitra was appointed as the Scientific Secretary in the Office of the Principal Scientific Adviser to the Government of India. Arabinda Mitra started his career in 1985 as a research scholar in the Dept. of Geology, Delhi University. In 1987 he joined the Department of Atomic Energy, Government of India as a Scientific Officer and was involved in survey and exploration geology of the Himalayas. In 1988, he was awarded the Cambridge Nehru Fellowship to pursue PhD in Earth Sciences at University of Cambridge, UK. The project work was carried out jointly with MIT, USA in REE geochemistry of mid-ocean ridge hydrothermal systems. His research work has been published in international journals like Nature, Marine Chemistry, Geo-chimica Cosmo-chimica Acta and Journal of Remote Sensing etc.

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Dr. Mahesh Kumar
Chair, INYAS
Department of Electrical Engineering, Indian Institute of Technology Jodhpur
Email: mkumar@iitj.ac.in
Background:
Dr. Mahesh Kumar is Chair of Indian National Young Academy of Science (INYAS), and Associate Professor at IIT Jodhpur. He has received M.Sc degree in Physics from University of Rajasthan, M.Tech degree in Solid State Materials from IIT Delhi and Ph.D degree in Engineering from IISc Bangalore. He worked at Central Research Laboratory of Bharat Electronics Ltd. (CRL-BEL) Bangalore as Scientist from 2005 to 2013. He has worked at University of Paderborn Germany through INSA Bilateral Exchange programme and South Dakota State University through prestigious BASE Fellowship supported by IUSSTF. His research interests are focused on 2D materials, Nanomaterials, Sensors, Semiconductor materials and devices.
He has received INSA Medal for Young Scientists-2014 by Indian National Science Academy,the MRSI Medal-2016 by Materials Research Society of India, DAE-Young Achiever Award-2016 by BRNS (Department of Atomic Energy), ISSS Young Scientist Award 2017 by the Institute for Smart Structures and Systems,YSAP mission award 2019 by Global Young Academy, JPhysD: Emerging Leader Award 2019 (Runner-up) by Institute of Physics UK, and PHSS Foundation Young Scientist Award 2018-19 by Prof. H. S. Srivastava Foundation. He is founding Member of Indian National Young Academy of Sciences, Member of National Academy of Sciences India, Royal Society of Chemistry & Global Young Academy and IEEE Senior Member from 2016. He has published more than 90 research articles.

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Dr. Gitanjali Yadav
Staff Scientist
NIPGR, New Delhi
Email: gy@nipgr.ac.in
Title: Biology at the Interface of AI, Complex Networks and Genomics
Background:
Dr. Gitanjali Yadav is a Lecturer at the Dept of Plant Sciences, University of Cambridge, on a Joint Deputation Program with DBT at NIPGR, New Delhi. She is an expert in Genomics and Structural Bioinformatics, with special emphasis on plant communication and food security. Her group works on sustainable agriculture through enhancement of crop productivity.
Dr. Yadav has received the Hamied Fellowship from the University of Cambridge (2019), Exceptional Talent Award from the Royal Society of London, and the Women Excellence Award from Govt of India. She is a graduate with Honors in Botany, with a Ph.D. in Immunology and Master's degree in Biomedical Research.
Abstract: Dr. Gitanjali Yadav will introduce the notion of intelligence for computers, as the ability to make right decisions, and how it requires knowledge, in a form that is operational. She will then discuss simple tasks that fall under the label of Artificial Intelligence, including perception and control. Computers already possess some intelligence thanks to all the programs that humans have crafted and which allow them to “do things” that we consider useful, and that is what we mean for a computer to take the right decisions. But there are many tasks which animals and humans are able to do rather easily but remain out of reach of computers, involving knowledge that is implicit. This knowledge needs to be made explicit to get machines to acquire the same kind of intelligence. The talk will formalise the process of machine learning using data and examples to build operational knowledge. She will also talk about a variety of graph theoretical approaches that are currently being used in her laboratory for reducing data dimensionality in Genome analyses, such as Co-expression networks, Protein-Protein interaction networks and species interaction networks. She will also briefly introduce other talks in this session for an overview of this emerging area.

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Dr. Mrutyunjay Suar
Professor & Director, School of Biotechnology, KIIT University
CEO, KIIT- Technology Business Incubator (KIIT-TBI)
Email: mrutyunjay@kiitincubator.in
Title: Translating young minds: Thinking Beyond
Background:
Mrutyunjay, an entrepreneurial professor with PhD in Molecular Microbiology from University of Delhi in 2003 and Postdoc at ETH Zurich, Switzerland, he returned to India and established School of Biotechnology under KIIT University in Bhubaneswar. To promote technology and innovation, he also established KIIT-Technology business incubator (KIIT-TBI), promoting deep tech start-up companies. He is a strong promoter of technology for all and works especially in the sector of public health innovation and technology development. Under his leadership, KIIT-TBI nurtured almost 150 start-up companies and created almost 1600+ jobs and established Centre of Excellence, supported by DST, GoI. He is committed to replicate the successful incubation model in other states of East and North East regions of India, for which BIRAC has established the BIRAC Regional Centre @KIITTBI focusing on East and North East states of India.

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Dr. Carl Malamud
President
Public.Resource.Org
Email: carl@media.org
Title: Gyan Swaraj: Promoting the Increase and Diffusion of Knowledge in India
Background:
Dr. Carl Malamud is an American technologist, author, and public domain advocate, known for his foundation Public.Resource.Org. He founded the Internet Multicasting Service. During his time with this group, he was responsible for developing the first Internet radio station, for putting the U.S. Securities and Exchange Commission's EDGAR database on-line, and for creating the Internet 1996 World Exposition. Dr. Malamud is the author of eight books, including Exploring the Internet and A World's Fair. He was a visiting professor at the MIT Media Laboratory and is the former chairman of the Internet Software Consortium. He also is the co-founder of Invisible Worlds, was a fellow at the Center for American Progress, and was a board member of the non-profit Mozilla Foundation. In 2009 Dr. Malamud received the EFF Pioneer Award from the Electronic Frontier Foundation for being a public domain advocate.
Abstract: The raw materials needed for doing science in India, and for educating generations of future scientists, have been outsourced to foreign corporations, an example of the colonisation of knowledge throughout the world. In this talk, Carl Malamud will discuss the concept of Gyan Swaraj and his efforts with colleagues in India to make available text and data mining facilities for Indian scientists to use to conduct their research. This is part of a broader vision that maintains that the raw materials of education are crucial to the advancement of not only science, but the economy, democracy, and justice.

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Dr. Chandra Shekhar Sharma
IIT Hyderabad
Founder, Restyro Technologies Pvt. Ltd
Email: cssharma@iith.ac.in; chans2k2@gmail.com
Background: Dr. Chandra Shekhar Sharma is an Associate professor in the Department of Chemical Engineering at the Indian Institute of Technology, Hyderabad. His research interests are Carbon based hierarchical materials, Nature inspired polymer functional surfaces, Electrospun polymer and carbon nanofibers and Carbon-MEMS. Dr. Sharma is a member of National Academy of Sciences, India and also serving Indian National Young Academy of Sciences (INYAS) as National Core Committee member. Recently, Dr. Sharma has been inducted as Expert Advisory Committee Member of Department of Science & Technology Committee on Waste Management. Dr. Sharma has published 78 papers in International Journals of high repute with more than 1000 citations. He has filed 11 national and international patent applications and four book chapters to his credit. Recently, a Chinese patent is granted also to his lab. Dr. Sharma has guided 5 Ph.D. and 8 M.Tech. Students as of now and presently supervising 12 Ph.D. students. Dr. Sharma has also incubated a start-up company, M/s Restyro Technologies Pvt. Ltd. to commercialize some of the technologies developed in his lab including recycling of polystyrene waste using orange peel and nanofibers based feminine sanitary napkins. Both of these innovations has won several Gold Medals at International level in last two years.

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Dr. Satyavrata Samavedi
IIT Hyderabad
Email: samavedi@iith.ac.in
Title: Engineered biomaterials for longer, safer and healthier lives
Background:
Satyavrata received a B.Tech in chemical engineering from the National Institute of Technology, Tiruchirappalli, and a doctoral degree, also in chemical engineering, from Virginia Tech, Blacksburg. After a 2-year post-doctoral stint at Rensselaer Polytechnic Institute, he joined the department of chemical engineering at the Indian Institute of Technology Hyderabad as an assistant professor in 2015. At IIT Hyderabad, Satya’s research focuses on the development of functionalized polymeric matrices possessing specific mechano-chemical and architectural properties for application in controlled drug delivery, immunomodulation and the development of in vitro disease models. Satya was inducted into INYAS in January 2019, and is also a life member of the Alpha Epsilon Lambda Graduate Honor Society. Previously, he has received the Paul E. Torgersen Research Excellence Award and the David & Lillian Francis Dissertation Scholarship. In 2017, he delivered the SM Ibrahim memorial lecture at NIT Trichy. Satya currently serves on the editorial board of Scientific Reports.
Abstract: Biomaterials play a vital role in maintaining and improving human health, and are typically used to evaluate, treat, augment or replace tissues, organs and functions in the human body. Recent advances in nanotechnology and material fabrication approaches, improvements in measurement and characterization tools, and a significantly enhanced ability to probe cell responses over a wide range of spatio-temporal scales have led to the development of materials with advanced functionality that can dynamically modulate complex biological systems. In his introductory talk, He will discuss how engineered materials can be applied to control biological systems/processes and help advance treatment modalities. In addition to highlighting some of his work, He will specifically discuss how biomaterials are currently used in several exciting applications such as tissue regeneration, wound healing, immunomodulation, controlled drug delivery and disease modeling. Detailed insights into some of these applications, including challenges, innovations and future scope, will be provided by invited experts during the talks that follow.

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Dr. Anindita Bhadra
IISER, Kolkata
Email: abhadra7@gmail.com
Title: The life of a dog on Indian streets
Background:
Anindita Bhadra is an Associate Professor at the Department of Biological Sciences, IISER Kolkata. She did her PhD at IISc Bangalore, on the social politics of a paper wasp. She joined IISER Kolkata as an IISER Fellow in 2009, where she set up the Dog Lab to work on the behavioural ecology of free-ranging dogs. She is interested in understanding the evolutionary history of dogs using the free-ranging dogs as a model system. Anindita was involved in the founding of INYAS, which she led for the first three years. She is a member of the Global Young Academy and is currently serving on its Executive Committee. She is very interested in teaching and is engaged in various outreach activities, especially involving children. She also writes popular science article quite regularly in Bangla. She has various interests beyond academia. Anindita and her husband run a professional theatre group based in Kolkata.
Abstract: The free-ranging dog is a ubiquitous presence across India, to be found in every human settlement, from the mountains to the sea-sides. The dogs have existed in similar ecological situations for centuries, the earliest narrative dating back to the Mahabharata. They depend on humans as resources and interact with people on a regular basis and show excellent urban adaptation. Hence, they can provide interesting insights into the nature of dogs and give pointers to how dogs might have evolved from wolf-like ancestors to become man’s best friend. While there is a large body of literature dedicated to pet dogs, little has been done in the past to study dogs in their natural environment. We have been engaged in studying the free-ranging dogs in India for 10 years, delving into their ecology, behaviour and cognitive abilities. They are an excellent model system for eco-ethological studies and for understanding urban adaptation. In my talk, I will give an overview of our current understanding of the social behaviour of free-ranging dogs and their interactions with humans in the streets. Using our findings over the past decade, I would provide a brief overview of what it means to be a dog in the streets of India.

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Dr. Felix Bast
Assistant Professor
Central University Punjab, Bathinda
Email: felix.bast@gmail.com
Title: Life on the edge: Why Antarctica, Oceans and Himalayas matter?
Background:
Dr. Felix Bast's focus of interest is molecular systematics and characterization of algal biodiversity. He is also working in the related fields of phylogeography and DNA barcoding with a special focus on marine, polar and extreme habitats.
Abstract: Extreme habitats of planet earth matters to the world of science enormously. As the unrelenting physico-chemical pressures are extreme and unique, novel life forms that are found in nowhere else on the planet evolve through natural selection and genetic drift at these remotest habitats. Life forms of extreme habitats harbor rich tapestry of biomolecules and genetic resources with immense bioprospecting potentials. Oceanic bioprospecting has its own dramatic success stories. One example is development of industrial enzyme Ultra-Thin from the genes isolated from archaebacteria living in deep-sea hydrothermal vent in Pacific Ocean. Gene encoding Alkaline Phosphatase enzyme collected from an oceanic Shrimp species had been developed as a successful PCR Post reaction clean-up tool (Exo-SAP-IT). Heat labile variant of the same enzyme, Antarctic Phosphatase, had been originally isolated from Antarctic bio resource. Salinosporamide-A from marine bacterium (Salinospora) is a protease inhibitor and a potential anticancer therapeutical currently in early-stage clinical trials. Ecteinascidin 743 (trabectedin) is an approved anticancer drug developed from a marine tunicate sea squirt Ecteinascidia turbinata. Luminase pulp bleaching enzyme was originally collected from the genes of geothermal sediment samples from Kamchatka, Russia. An example of Himalayan success story involve the soil sample from Lahaul and Spiti valley collected by a team led by Dr. Javed Agrewala of CSIR- IMTech. Organisms cultured from the sample revealed its potent immunosuppressive and anti-bacterial properties. Further research lead to the development of Caerulomycin A, a pyridine-derived broad-spectrum antiobiotic and immunosuppressant. Nostrum Pharmaceutical reportedly have brought this technology for USD 3 million, and Dr. Javed Aggrewala was honoured with the prestigious Bhatnagar Award for his contribution by the Indian Government. These remotest and least polluted habitats not only serve as a baseline for climate change results, but also for studying the origin of life on earth, and for the search of life in other planets in the universe. However, India is facing multiple challenges for the exploration of extreme habitats, including lack of a research submarine and an icebreaker ship capable of navigating through polar waters. Some of the contributions from my own research group on deciphering hidden biodiversity of Antarctica, Oceans and Himalayas are summarized herein.

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Dr. Krishanu Biswas
IIT, Kanpur
Email: krisbis1@gmail.com
Title: ICME Approach of Alloy Design of Multicomponent Complex Concentrated Alloys
Background:
Dr. Krishanu Biswas, Professor at the Department of Materials Science and Engineering at IIT Kanpur has made significant contribution towards understanding of the several important scientific and technological aspects of metallurgy and materials engineering. The research work performed by him ranges from development of hard low friction wear-resistant coating for coating applications , complex concentrated alloys (CCAs) including high entropy alloys and entropy-stabilized ceramics, novel processing of ceramic composites, understanding the alloying behaviour at nanoscale, development of alloy catalysis for hydrogen energy. His recent research activities involve research on sintering of nanomaterials, nanocrystalline high entropy alloys (HEAs), ionic nanoparticles, 2D materials etc. He has published over 125 papers in international repute and peer reviewed journals and delivered 40 invited talks in different national and international conferences. Recently, he as co-edited a special issue on “Nanocrystalline High Entropy Materials: Processing Challenges and Properties” in J. Materials Research, published by Materials Research Society, USA. He has also signed contract with Springer Nature to write a book on “High Entropy Materials: Processing, Properties and Application”, to be published by December, 2019. He has completed 12 projects and currently 4 other projects are under progress. He could garner total funding to the tune of 6,00,000,00 (US$8,50,000) in a span of 11 years. The projects include small projects from Indian Space Research Organization (ISRO) and Indian National Science Academy (INSA) to bigger projects from Department of Science and Technology (DST), Department of Bio- technology (DBT), Board of Research on Nuclear Sciences (BRNS). He has been actively involved in industrial consultancy with various companies, including MKU Ltd, Kanpur, Tata Steels, Vardhaman Steels etc. Currently, 2 post doctoral fellow, 7 Phd students, 3 MTech students, 2 project staffs and several B.Tech students working on different research problems. 8 Phd students and 30 M.Tech students and large number of B.Tech students have completed their degree under his supervision. He has international collaboration with Japan, Taiwan, Germany, Sweden, USA. He teaches extensively at IITK on variety of subjects including, Phase Equilibria, Manufacturing Processes, Phase Transformations, Process Metallurgy, Solidification Processing etc. He has developed several important web-based courses on NPTEL forum, including Phase Diagrams and Phase Transformation in Materials. He has received a number of awards, fellowships and professional reorganization from various organizations, notable ones being INSA Young Scientist, Metallurgist of Year, Sri Ram Arora Award from TMS, USA, Young fellowship from Global Young Academy, fellowship from West Bengal Academy of Science and Technology etc. He serves in the editorial board of several international journals.
Abstract: Multicomponent complex concentrated alloys (CCAs) are the newly discovered metallic cocktails and novel entropy stabilized multicomponent ceramic, predominantly stabilized by configurational entropy of mixing. It has expanded the field, opening up new vistas of exciting research on these materials. This field has recently emerged as one of the most fascinating and challenging areas of materials research. In our research group, integrated computational materials engineering (ICME) framework consisting of detailed CALPHAD (CALculation of PHase Diagram) modeling and experimental investigation have been carried out to design both equiatomic and non-equiatomic composition exhibiting thermodynamically stable single-phase FCC or BCC. The major thrust involves establishing a robust thermodynamic based technique to design and develop both equiatomic and non-equiatomic single phase alloys, thereby adopting accelerating the materials design of multi-component systems. The use of integrated computational materials engineering (ICME) framework consisting of detailed CALPHAD (CALculation of PHase Diagram) modeling and experimental investigation have been carried out.

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Dr. Riffat John
Sr. Assistant Professor
Department of Botany, University of Kashmir, Srinagar
Email: riffatminhaj@kashmiruniversity.ac.in
Title: Understanding abiotic stress tolerance in plants by proteomics
Background:
Dr. Riffat John is senior assistant professor in the Department of Botany, University of Kashmir. Her focus as a plant molecular biologist is to understand the environmental stress tolerance mechanism in plants at proteomic, genomic and metabolomics levels and at the same time genetically engineer plant genome to develop plants resilient to extreme climatic conditions. Her group also is trying to understand the effect of temperature and photoperiod on flowering in plants growing in Kashmir Himalayan region.
Despite various bottlenecks, she has been able to set up a working laboratory and has built up a group of active research scholars. She has also been successful in obtaining extra mural grants. She is recipient of Indo-US Getin Fellowship by IUSSTF in 2017 and Young Scientist Award from Ministry of Science and Technology, Government of Jammu and Kashmir in 2014. Dr. Riffat was inducted as INYAS member in 2015. She has published 31 papers in International Journals and six book chapters.
Abstract: Variation in various environmental factors such as temperature, light, water and nutrient availability that adversely affect plant growth and development are termed as abiotic stresses. These stress conditions dramatically reduce crop production and incur huge losses. Conventional breeding methods have been attempted to impart stress tolerance to plants but it has not proved very effective, as breeding methods are very lengthy and laborious. Genetic manipulation of crop plants for enhanced abiotic stress tolerance holds a great promise for sustainable agriculture. Rapid advances in plant genetic engineering have made it possible to improve endogenous metabolic pathways an/or bestow useful foreign functions. However, most metabolic processes that are targets for manipulation depend on the interaction between numerous genes, therefore, effective metabolic engineering will only be achieved by controlling multiple genes on the same, or interconnected, pathways.
Dr. Riffat will highlight the research work of her group. They have done proteomic investigation of Calendula (marigold), Digitalis purpurea and Brassica rapa in response to low temperature and isolated novel cold induced proteins and these proteins have been characterized in Arabidopsis and tomato. At the same time her PhD scholars have developed Arabidopsis mutants by CRISPR/Cas9 for brassinosteroid signaling.

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Dr. Jitendra Pattanaik
Assistant Professor
School of Environment and Earth Sciences, Central University of Punjab(CUPB), Bathinda
Email: jitendra.bapi@gmail.com
Title: Fate of East Antarctica Ice sheet? Its impact on ocean circulation
Background:
Dr. Jitendra Pattanaik's research interest is to understand the Earth’s dynamic processes involved in Earth surface and landscape modification, using different isotopes, trace element and geochemical parameters. He has applied various models using major and trace ions and Sr isotope to estimate the relative weathering rate of different rock types exposed in the river basins and CO2 consumption rate by natural processes. He is also using cosmogenic radionuclides such as 10Be and 26Al as a tool to decipher time and spatial variation of various Earth surficial processes. Recently, He has taken up a new research project to estimate glacial extent in the Schirmacher Oasis (an ice-free area) of East Antarctica during Last Glacial Maxima (LGM) using cosmogenic radionuclides (10Be and 26Al). He participated in the 36th Indian Scientific Expedition to Antarctica as a summer member and spent 3 months at Maitri station of India, East Antarctica to collect exposed rock. His research findings are being presented at various national and international forums in India and abroad. He has completed my Ph.D. in the year 2010 from Pondicherry University in collaboration with IUAC, New Delhi. He has worked at IISER Kolkata for 5 year after Ph.D. and currently serving at Central University of Punjab, Bathinda since 2015.
Abstract: East Antarctica Ice Sheet (EAIS) is the largest continental ice sheet of the world (its volume is equivalent to ~53 m in mean sea level equivalent) and minor changes in the volume of the ice sheet can sturdily affect global sea level [1]. Although EAIS was assumed to be more stable compare to other continental ice sheet such as Greenland or West Antarctica ice sheet, but recent works suggest that the EAIS loss during Last interglacial contributed to the sea level rise [2]. Under the Antarctica Climate Evolution (ACE) Program of the Scientific Committee for Antarctica Research (SCAR) various study including exposure age of Nunatak and exposed rock were conducted by different researchers for understanding the past ice sheet thickness of EAIS [1]. Many researchers are advocated that more and detailed studies are required from EAIS to have a better model to explain the response of EAIS to past and present climate change, change of thickness of EAIS and possible contribution to global melt water pulses. Ocean circulation is a complex process and the increasing melt water from Antarctica ice sheet has certain impact on it. Melting of Greenland ice sheet and influx of melt water immediately affects the thermohaline circulation, however the impact of rising influx of melt water from Antarctica ice sheet is debatable and only considered as threat to sea level rise and liberation of trapped gas. Rate of melting of EAIS and West Antarctica Ice sheet is different and the influx to the Southern Ocean is varying at diverse location. Present day behavior of EAIS is being monitored by the satellite, but estimation of long-term changes can be obtained by the geological records. Geological records show that EAIS is continued since 34 Ma and experienced various glacial and interglacial cycles [3]. It is important to know the behavior of EAIS and effect on global sea level during Last Glacial Maximum (LGM) and subsequent deglaciation phase.

Dr. Abhishek Kumar
Dr. Abhishek Kumar
DBT Ramalingaswami Fellow & Faculty Research Scientist
Institute of Bioinformatics (IOB), Bangalore
Email: abhishek@ibioinformatics.org
Title: Tapping Ocean for marine fungi and their drug-like compounds using omics approaches
Background:
Dr. Kumar is faculty scientist at the Institute of Bioinformatics, Bangalore focusing on various multi-omics approaches and computational genomic data science. He is a recipient of prestigious Ramalingaswami Fellowship (2018) awarded by Department of Biotechnology (DBT), Government of India.
He has several years of working experiences on various facet of biology and medicine which includes a Bioinformatics Postdoctoral Fellow in the Department of Biology at the University of Padova in Italy where he established pipelines for Roche 454-based transcriptome analyses for insects and fishes.
Later on, he worked at the Institute of Botany at the University of Kiel in Germany where he established multi-omics approaches for characterizing marine fungi and studied marine fungal adaptions. Currently, he has to his credit, sequencing of the largest numbers of marine fungal genomes in the public domain.
Abstract: The ocean harbor enormous bio and chemical diversity in term of marine fungi and their natural products. However, till now there have been only limited studies on exploration of marine fungi and their drug-like compounds. Gigantic technological advancements in next-generation DNA sequencing methods opened up wide avenues in discovering and characterization of various aspects of biological science in a cost-effective manner. Herein, I summarize my experiences in developing bioinformatics and genomic applications in unravelling future drugs from marine fungi. I developed the multi-omics-based methods for discovering drug-like compounds using marine fungal genomics, proteomics and transcriptomics. Genomics provides comprehensive overview of the secondary metabolite producing biosynthetic gene clusters and hint for their regulatory systems which can be modified and can be used for higher production of drugs in the heterologous systems like yeast or Aspergillus. At the moment, I have characterized largest datasets with more than 10 genomes of marine fungi and about 300 drug-like compounds produced by marine fungi with the notably anti-cancerous compound, scopularide from marine Scopulariopsis brevicaulis. Towards end, I will be presenting my future projections of 5 years for setting of OMICS approaches for drug-discovery from marine fungi.

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Dr. V. Ramanathan
IIT, BHU
Email: vraman.chy@iitbhu.ac.in
Background:
Dr. Ramanathan’s work spans two areas namely computational chemistry and laser spectroscopy, particularly Raman imaging and quantitative Raman spectroscopy. In computational chemistry, he works on ab initio electronic structure calculations to elucidate the nature of non-covalent interactions in molecular clusters. In Raman imaging, he works on the label-free diagnosis of tumour so as to detect the early onset of any change in the tumour. He uses both spontaneous and non-linear Raman scattering for the imaging purposes and this is a niche area of label-free diagnosis. Besides, he applies spectroscopic techniques to study formulations from Indian traditional medicine repertoire.

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Dr. Ruchi Saxena
Director
India Flying Labs (flyinglabs.org/india), Mumbai
Email: dr.ruchi.saxena@gmail.com
Title:Technology for generating Climate Resilient Crops
Background:
Dr Ruchi Saxena is a Global Health Systems Consultant, working on application of drones and AI for social good and humanitarian aid with projects in sustainable agriculture, nature conservation, disaster management and healthcare.
Abstract: As the weather becomes more extreme and unpredictable, agriculture takes a hit. The maximum loss is borne by the small holding farmers due to untimely rains, seasonal cyclones, droughts and even hailstorms. Can technology help small hold farmers own a smart system that will give them better control over their crop health and be better prepared to face disasters? This presentation explains how technologies such as robotics, sensors, remote sensing and AI can be brought closer to the farmers.

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Mr. Manu Kohli
CEO
CogniAble (Indian Startup), Gurugram
Email: manu.kohli@cogniable.tech
Title: Machine Learning technologies used remotely by non-expert for screening and treatment of Autism Spectrum disorders
Background:
Manu is an engineering and management graduate with 16 years of Information technology consulting experience in multiple countries. After completing his MBA from Indian Institute of Foreign Trade (IIFT New Delhi) he has worked for fortune 500 companies in France, Germany, Switzerland and USA. He has extensively build data-driven solutions for the clients in healthcare and other core sectors. He has authored various papers in renowned journals and books with SAP PRESS in area of Machine Leaning and Artificial Intelligence. Manu is currently pursuing PhD from IIT-Delhi.
Married to a child psychologist and a special educator; Manu Kohli realized what special needs services are. However, the big transformation happened for him and his wife Swati after diagnosis of their own son with Autism. Exploring services in India, US and other few countries in Europe they realized the need of technology to scale up the services with 4 major objectives-affordable service, used by non-experts, available remotely and data driven.
In 2017, Manu returned to India and started CogniABle, a company developing Artificial Intelligence driven digital solutions for early screening and behavioral treatment of Autism and associated disorders. The company has won various Grants and awards from Government of India,
Abstract: Studies suggest (Center of Disease Control) 1.5% of children are diagnosed with Autism Spectrum Disorder (ASD) . With limited clinicians available in our country, many children remain undiagnosed or even if they are, it is often when they are much older - with untapped cognitive potential. Early intervention results in an increase of 10-15 IQ Points, however those services are not accessible and affordable.
Using Deep Learning model we are developing an innovation that can screen children on Autism remotely and at 25% of the cost by analysing the child’s video. The screening services can help identify children at risk as early as 1.5 years to 3.5 years.
Another feature of our innovation is an integrated assessment and treatment plan available at 20% of the market cost. Machine learning models builds customized treatment for the child measuring longitudinal treatment progress using both structured and unstructured data. Judiciary use of our treatment service brings significant change in the self-dependency & skills of special needs children at a young age,teaching them relevant life skills to sustain themselves.

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Dr. Biren Banerjee
Founder
inDNA Life Sciences/ KIIT TBI
Email: bnbanerjee@kiitbiotech.ac.in
Background:
Biren Banerjee is a trained expert in Molecular Oncology, DNA based Diagnostics and translational research, innovation in healthcare and clinical application based programs. He has completed a PhD in Cancer genetics from Bangalore while working in Department of Medical genetics, Manipal Hospital Bangalore and trained in National University of Singapore (NUS) and Baylor College of Medicine, Houston Texas USA. He has established Eastern India’s first DNA based Diagnostics Platform called inDNA Life Sciences in Bhubaneswar and has also Co-founded inDNA Global in London. His research is supported by Department of Biotechnology (DBT) Govt of India and he is working for Molecular profiling of cancer in Odisha. He has published several papers in reputed Journals and reported novel finding highlighting genome signatures of oral cancer in Odisha.
Areas of Interest: Biren is Scientipreneur (a scientist who is passionate about entrepreneurship and innovation) . Application of Science for the benefit of people and elevating suffering gives him high. He loves challenges and always look for solutions and excels in finding them. His moto is looking for solutions for life inDNA and thereby named his venture as inDNA Life Sciences.

Mr. Himanshu Mehlawat
Mr. Himanshu Mehlawat
Founder & CEO
Intraversity (Startup)
Email: mehlawat.himanshu@gmail.com
Background:
Himanshu Mehlawat is the founder and CEO of Intraversity- A startup incubated and funded by Indian School of Entrepreneurship and Enterprise Development. Intraversity is building a platform to connect Indian Talented students with Global Companies and startups through open innovation projects. Mr. Mehlawat has a master’s degree in Business Administration with a specialization in International Business and Marketing. Before Founding Intraversity he worked as the marketing director of Indus Foundation Inc. and Community head of Indo-Polish Chambers of Commerce and Industry.

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Dr. Saptarshi Mukherjee
Scientist
IISER, Bhopal
Email : saptarshi@iiserb.ac.in
Title: Luminescent Metal Nanoclusters: Spectroscopic Signatures and Applications
Background:
Saptarshi Mukherjee did his B.Sc. and M.Sc. from Javadpur University, Kolkata and carried out his PhD at the Indian Association for the Cultivation of Science, Kolkata under the supervision of Professor Kankan Bhattacharyya. He did his post-doctoral research with Professor H. Peter Lu at the Centre for Photochemical Sciences, Bowling Green State University, Ohio. He joined the Department of Chemistry, IISER Bhopal as an Assistant Professor in December 20008 and became a Professor in January 2018. Presently, he is also the Deputy Director of IISER Bhopal.
His research interests include ultrafast and single molecule spectroscopy of molecules having biological relevance, luminescent metal nanoclusters, protein conformational dynamics and surface chemistry.
He is the recipient of the INSA Young Scientist Award in Chemistry (2012), CRSI Young Scientist Award (2018) and a Founding Core Member of INYAS.
Abstract: Metal nanoclusters (NCs) have attracted a lot of research attention of late, primarily due to their advantage of exhibiting size dependent optical properties, better water solubility, biocompatibility, and low toxicity. They are now considered as the next generation fluorophores. In my talk I will I will discuss some of the spectroscopic signatures of metal NCs (with emphasis on Cu NCs). Also, how these NCs can serve as a nanothermometer, specific metal ion sensors, nuclear membrane markers, bio-sensors etc. will be discussed.

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Dr. Shubhra G. Dastidar
Associate Professor
Bose Institute, Kolkata
Email: sgd@jcbose.ac.in
Title: Simulating the Jiggling Atomic Networks in Protein Structures: Earning Extra Miles of Understanding
Background:
He completed his Ph.D. in Chemistry from University of Calcutta in 2006. He went for Postdoctoral research to various foreign universities like University of California (Davis), University of Texas Medical Branch (Galveston). He is a Computational Chemist, interested in probing and providing structural and dynamical insights into the fundamental processes in biology using atomistic molecular modeling and dynamics simulations. He has contributed to several areas of Biophysical Chemistry and Structural Biology, e.g. protein folding and aggregation, protein-protein and protein-ligand interactions, structure refinement, protein-lipid interactions, microsolvation etc. The intrinsic dynamics of proteins and its ligand induced perturbation leading to change in proteins’ function have been his recent areas of focus.
Abstract: The atoms and molecules in nature are always jiggling and bumping into each other, which form the basis of their properties and functions. Therefore, the structure-function relationship of molecules in life science is often non-trivial to understand just from the static models of molecular structures. Instead it is necessary to understand how the complex networks of atom-atom interactions are dynamically changing which collectively determine the link between structure and function. Computer simulations offer scopes to witness the atoms in action, mimicking a more realistic behavior of the molecular structures and tell how exactly they are meaningfully choreographed in order to perform or not to perform a function. But how much it can really help to take the scientific understanding forward and where the benefit from standard computational methods can get exhausted? This presentation will address this issue with examples and will discuss the scopes to move forward using the emerging computational methods, including AI.

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Dr. Vineet Sharma
IISER, Bhopal
Email: vineetks@iiserb.ac.in
Title: Networks of Disease Spread – The Human Microbiome
Background:
Dr. Sharma is an Associate Professor at Indian Institute of Science Education and Research Bhopal. He holds a Ph.D. in Bioinformatics and Biomedical Sciences from IGIB, New Delhi and did his Postdoctoral Research at RIKEN, Japan. Dr. Sharma is also the founder and coordinator of the Innovation and Incubation Centre of Entrepreneurship (IICE) at IISER Bhopal. The main focus of Dr. Sharma’s lab is to analyze the human gut and skin microbiome in different populations to gain functional insights and also to compare it with the healthy and disease datasets. His group employs machine learning approaches to carry out the large scale human gut data analysis and develop new algorithms and software. Recently, Dr. Sharma’s groups has sequenced the Peacock genome, India’s national bird.
Abstract: Population-specific differences in human microbiome due to diet, geographical location, age, etc. play a key role in determining human health and metabolism. The vast microbial diversity in our guts is involved in the breakdown of the complex polysaccharides and stimulation of our immune system. The gut microbiome also harbours enormous metabolic potential, which can alter the metabolism of orally administered drugs leading to individual/population-specific differences in drug responses. Investigation of species-specific contribution to xenobiotic/drug metabolism by experimental studies is a challenging task considering the large heterogeneous pool of human gut bacteria and their metabolic enzymes. Therefore, we have used hybrid of machine learning and chemoinformatics approaches, to develop ‘DrugBug’; a predictor of metabolic enzymes and gut bacterial species that can potentially carry out the biotransformation of a xenobiotic/drug molecule. This talk will describe development of Random Forest based ML models for gut bacteria and the performance evaluation on FDA-approved drugs, apart from the design and experimental validation of an automated tool ‘ToxiM’ that can predict toxicity of metabolites.

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Dr. Ramray Bhat
Molecular Reproduction, Development and Genetics, IISc, Bangalore
Email: ramray@iisc.ac.in
Background:
Dr. Ramray Bhat's undergraduate education was in clinical sciences and his graduate research work was in development and cancer. Since 2015 he leads a group that focuses on glycobiological mechanisms that underlie progression of cancer of breast and ovaries. They use both experimental and theoretical approaches to understand how cancer migrates to newer organs and destroys their functions.

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Dr. Shamik Sen
Associate Professor
Department of Biosciences & Bioengineering, IIT Bombay
Email: shamiks@gmail.com; shamiks@iitb.ac.in
Title: Cell-matrix Crosstalk in Development & Disease
Background:
Dr. Shamik Sen is currently an Associate Professor in the Department of Biosciences and Bioengineering, IIT Bombay, India. Dr. Sen earned a B.E. in Mechanical Engineering (1999) from Jadavpur University, Kolkata, and a M.Tech in Mechanical Engineering (2002) from IIT Kanpur. He then moved on to the University of Pennsylvania in Philadelphia, where he earned a Ph.D. in Mechanical Engineering (2007) in the lab of Prof. Dennis Discher. Subsequently, he completed postdoctoral training at the California Institute for Quantitative Biosciences (QB3), University of California, Berkeley, in the lab of Prof. Sanjay Kumar.
Dr. Sen’s research group at IIT Bombay studies how physicochemical cues encoded by the extracellular matrix regulates stem cell fate and cancer invasion, and how physical properties of cells are dynamically tuned during these processes. For addressing these questions, his group combines traditional cell biological approaches with cell biophysics techniques and computational biology. Dr. Sen has been a recipient of the BRNS Young Investigator Award (2011) and the Swarnajayanti Fellowship from DST (2019).
Abstract: Tissue properties are dictated to a great extent by composition and organization of the extracellular matrix (ECM). Physiochemical properties of the ECM are increasingly appreciated to play key roles both in physiology and in pathology. I will first discuss some examples of how ECM physical properties regulate cell properties. Next, I will discuss how ECM properties are altered in cancer and the implications of these alterations in the context of cancer metastasis. Specifically, I will discuss how ECM properties regulate the ability of cancer cells to remodel the ECM through regulation of proteases, i.e., enzymes which degrade the ECM. When such protease activity is inhibited, I will discuss how cells alter their physical properties and continue to migrate.

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Dr. Biman B. Mandal
Biosciences and Bioengineering, IIT Guwahati
Email: biman.mandal@iitg.ac.in; mandal.biman@gmail.com
Research URL
Title: Bioengineering Human Tissues & Organs: The way forward
Background:
Dr. Biman B. Mandal is a Professor at Department of Biosciences and Bioengineering, Indian Institute of Technology Guwahati (IITG). He received his Ph.D. from IIT Kharagpur and Post Doc from Tufts University, Boston, USA. His research area is Tissue Engineering and Regenerative Medicine. Dr. Mandal has 125+ research articles and 15 patents to his credit. He is recipient of NASI-SCOPUS award, INSA-Medal, NASI-Medal, DST-INSPIRE faculty award along with young scientist awards conferred by DST, DBT, APA and DAE.
Abstract: Every year, millions of patients suffer loss or failure of an organ or tissue as a result of accidents or disease. Tissue or organ transplantation is a commonly accepted norm under these circumstances. However, constant shortage of donor tissue and organ transplants coupled with high morbidity and mortality has spurred great interest for lab grown tissues/organs as promising substitute.
Recent scientific advancement in biomaterials science, stem cells in combination with biomimetic environments have made this possible through tissue engineering approaches. In such an approach, conventionally fabricated or 3D bioprinted polymeric scaffold imitates the native tissue/organ it is replacing, while also providing a temporary functional support for the residing cells. In comparison to synthetic, biologically derived polymeric scaffolds being natural, biodegradable and biocompatible offer resident cells a wide variety of biofunctional motifs that help to regulate cell adhesion, proliferation, phenotype, matrix production and physiological activity. In our laboratory at IIT Guwahati, we utilize silk as a natural model biopolymer to fabricate various tissue forms to study and understand the mechanisms related to cell-surface interactions and stem cell differentiation towards regeneration of tissue/organs with an aim to achieve total physiological functionality.
In his presentation, He would share their recent in vitro and in vivo findings to reconstruct native tissues/organ including human skin, engineered bone & cartilage, bioengineered blood vessels, bioartificial pancreas, beating cardiac patches, 3D printed intervertebral disc and meniscus to name a few. Findings from these studies have immense implications in relation to development of artificial tissues and grafts towards future in vivo human transplantation.

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Dr. Jayanta Haldar
Associate Professor
Antimicrobial Research Laboratory, Jawaharlal Nehru Centre for Advanced Scientific Research, Bengaluru
Email: jayanta@jncasr.ac.in;   jayanta.jnc@gmail.com
Title: Engineering Biomaterials in the Era of Antimicrobial Resistance
Background:
Jayanta Haldar is an Associate Professor at New Chemistry Unit and School of Advanced Materials, Jawaharlal Nehru Centre for Advanced Scientific Research (JNCASR), Bangalore, India. He received his PhD from IISc in 2005 and did Postdoctoral Research from Department of Chemistry, MIT, USA. His research interests are towards the development of molecular strategies for the prevention and treatment of infectious diseases. He has published more than 70 international peer-reviewed papers, book chapters and review articles. He has many national and international patent on the development of new drugs and new materials to tackle drug resistance and infections. His research work has been featured in Scientific American, Chemical Engineering News, American Chemical Society, BBC News etc. He has been awarded as a Ramanujan Fellow from DST, Government of India, in 2010. He has received BIRAC-GYTI awards in 2015 and 2016 and received Gandhian Young Technological Innovation appreciation awards in 2015 and 2016. He has been awarded CDRI-Awards 2017 for Excellence in Drug Research and received CRSI Bronze Medal 2017 and Sheik Saqr Career Award Fellowship in 2018. He is a winner of 8th National Awards for Technology and Innovation, Ministry of Chemical Fertilizers, Govt. of India-2018. He is an editorial board member of Microbial Pathogenesis and Editorial Advisory Board Members of Biomacromolecules, ACS Infectious Diseases MedChemComm.
Abstract: As arsenal of antibiotics dwindle, increasingly more effort is being focussed on the development of novel strategies to tackle drug resistant bacteria. This talk focusses on our efforts in engineering new polymeric materials to tackle antimicrobial resistance and infection. Recently we have developed various biocompatible/biodegradable water-insoluble and organo-soluble antimicrobial paints from synthetic and natural polymers to prevent infections. We have also developed a variety of water-soluble macromolecules as potent antimicrobial peptide mimics that are selectively active against microbes and prevent microbial resistance development. Further, various membrane-active polymers were engineered that re-sensitize obsolete antibiotics. Additionally, some of the polymers were designed to possess immunomodulatory properties. In another set of studies, injectable hydrogels were developed which are inherently bioadhesive and antimicrobial, and shown to possess wound-healing properties thus suitable to combat surgical site and Eye infections. Further, both injectable and preformed antimicrobial hydrogels were developed to deliver antibiotics/antimicrobial agents locally to combat topical/deep tissue infections.

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Dr. Vidya T.N.C.
Jawaharlal Nehru Centre for Advanced Scientific Research(JNCASR), Bengaluru
Email: tncvidya@gmail.com; tncvidya@jncasr.ac.in
Title: Socioecology of female Asian elephants
Background:
Dr. Vidya did her Ph.D. on the population genetic structure and phylogeography of the Asian elephant at the Centre for Ecological Sciences, Indian Institute of Science (Ph.D.: 2005) and partly at Columbia University, New York. She was a post-doctoral researcher at Stellenbosch University, South Africa, before joining the Evolutionary and Organismal Biology Unit of the Jawaharlal Nehru Centre for Advanced Scientific Research, Bengaluru, in August 2008. She is currently an Associate Professor and Chair of the Unit.
Vidya is primarily interested in animal behaviour and socioecology. The lab currently focuses on Asian elephant social organisation and behaviour, collecting long-term data on physical IDs, genetic IDs, associations, dominance behaviour, and resource availability, in order to understand the relative effects of ecological factors and individual relationships in shaping social organisation. With over 800 elephants individually identified in a population in southern India, this is one of two such long-term studies in the world that monitor the behaviour and ecology of a large number of individually identified Asian elephants.
The lab also works on communal roosting in mynas, and has worked on the comparative phylogeography of large mammals in the Western Ghats and on conservation genetics issues.
Abstract: Socioecological theory offers a framework to understand the relationship between resource-risk distributions and female social organisation, mediated via different kinds and strengths of competition between individuals and groups. While socioecological predictions have been examined primarily in primates, we present the first such study on Asian elephants, which have some advantages over primates in examining female social organisation. Through long-term monitoring of a large number of individually identified elephants in Nagarahole and Bandipur National Parks (Kabini population) in southern India, we were able to quantitatively characterise female social structure, which was found to be organised into clearly defined communities, based on network analysis. These communities, that we call clans, are the most inclusive level of social structure and can have sub-structuring. We found individual-based to flexibly-nested multilevel fission-fusion dynamics in the population. Fission-fusion dynamics seemed to allow for extended associations with clan-mates in the face of, possibly ecologically imposed, constraints on group size. Based on monitoring resource availability, we expected greater contest competition between clans than within clans. Data collected on the rates of agonistic interactions showed greater agonism between clans than within clans, as expected. However, while between-clan agonism was explained by the distribution of food resources, within-clan agonism was not, and we discuss the findings in the context of socioecological theory.

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Dr. V.V. Robin
IISER Tirupati
Email: robin@iisertirupati.ac.in
Title: Bird songs and cultural traits in a passerine across the Shola Sky Islands
Background:
VV Robin has been working on birds from for the last 20 years, much of it on Shola Sky Islands. He has a masters in Ecology from Pondicherry University, a PhD in Ecology and Evolution from NIAS IISc campus, and a PostDoc at Loyola University, Chicago. He has also been an NCBS Fellow, a Salim Ali -Lok Wan Tho Ornithological Fellow, a Fulbright Scholar, and a National Geographic Explorer. His research interests broadly cover patterns and processes in ecology, behavioural ecology, biogeography and evolutionary ecology. He uses bioacoustics, genetics and remote-sensing based GIS mapping as the primary tools for his research, some of which translates to conservation action. www.skyisland.in
Abstract: There are various mechanisms and ways populations can be isolated from each other, and some of these can eventually result in cultural and genetic differentiation. In songbirds, culturally transmitted sexual signals such as breeding song can be used as a measure of differentiation since songs can also be impacted by geographic isolation resulting in population-level differences in song structure. Studies in different parts of the world have found differences in song structure across ancient geographic barriers and also across contemporary habitat barriers owing to deforestation. However, very few studies have examined the effect of both ancient barriers and recent deforestation in the same system along with an investigation of genetic differentiation. Shola Sky Islands provide a unique landscape where some mountain-top islands are isolated by ancient valleys, while others are separated by recent deforestation.
In this talk, I will detail the genetic and morphometric differentiation patterns uncovered across the populations of the White-bellied Shortwing (Sholicola), a threatened and endemic songbird species complex found on isolated mountain-tops or ‘sky islands’ of the Western Ghats. Using extensive field sampling of several hundred birds, we uncovered endemic radiations of multiple species distributed on isolated mountain-tops. We also recovered a population genetic effect that indicated recent limitation to gene flow even within an island but isolated by deforestation.
To this background data, we added data on the geographical variation in song structure across six populations. We identified three major song clusters based on a discriminant model of spectral traits, degree of similarity of syntax features, as well as responses of birds to opportunistic playback. However, some traits like Complex Vocal Mechanisms (CVM), perhaps related to the use of syrinxes, differentiated both ancient and recently fragmented populations. We also conduct syntax analyses of individual traits. We thus suggest certain song characters that may have a cultural basis and can be used to identify culturally isolated populations. Our results demonstrate the use of bird songs to reconstruct phylogenetic groups and impacts of habitat fragmentation even in complex scenarios of historic and contemporary isolation.

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Dr. Manjari Jain
IISER Mohali
Email: manjari@iisermohali.ac.in
Title: Fish in troubled waters: problems of foraging in turbid water and how zebrafish solve them
Background:
Manjari's reseach broadly focuses on sensory ecology in animals. In particular, She is interested in the evolution of acoustic communication in animals. A major aim of her research is to examine the influence of social complexity on communicative complexity. She also works on how animals solve problems that arise due to altered sensory environments that are characteristics of human-dominated landscapes. The work done makes use of diverse model systems ranging from insects to mammals.
Abstract: Fish rely on vision for various tasks such as finding food or mates, avoiding predators and navigating. What happens when their vision is compromised? This is likely to happen when the environment becomes polluted and the turbidity increase. Rapid changes in water turbidity is characteristic of waterbodies in human-dominated landscapes. Using zebrafish as a model system we examined to what extent increased turbidity adversely affects foraging efficiency of fish. We also examined the role of acclimatization to altered visual environments in allowing animals to deal with and function in such environments. Finally, we examined if zebrafish are capbale of learning and utilizing visual landmarks to find foraging location. Our study has implications on the role of behavioural plasticity in animals. It also provides an example of how animals resolve problems of operating in an altered environment when dispersing from the environment is not an option.

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Dr. Suresh Babu
AUD, Delhi
Email: suresh@aud.ac.in
Title: Living it up in the Cities? Ecology and behaviour of urban animals in Delhi
Background:
Dr. Suresh Babu is the Dean at School of Human Ecology (SHE), Ambedkar University of Delhi (AUD). He is also the Director of AUD 'Centre for Urban Ecology and Sustainability'. His research interests have been broadly in the areas of Ecology, Ecosystem Management and Human Ecology. He started out as a researcher studying rainforest ecology in Nicobar Islands, and of late he has been working in the areas of Ecological Restoration, Ecological Networks, Invasive Species Management and Urban Ecology.
Abstract: The idea that cities are far from the ‘lively ecology’ which happens in jungles and coral reefs has certainly come to pass. In the last two decades, an explosion of research studies have clearly shown that the Urban is where the new action is. As opposed to classical ideas, cities are now seen as evolutionary hotspots where new forms of life and life history strategies manifest. This paper outlines a survey of of urban animals – wild, domestic, stray & feral and the unique life history challenges they encounter in the city of Delhi. Their adaptations and responses often manifest in behavioural changes, as they become human companions in the cities. The animals in the city have set-up transformative encounters, reminding us of the centrality of natural history studies in ecology that are increasingly getting replaced by mathematical models.

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Dr. Sanjeeva Nayaka
Principal Scientist
NBRI Lucknow
Email: sanjeeva_n@nbri.res.in; nayaka.sanjeeva@gmail.com
Title: Progress in lichen research in India during post-independence period
Background:
After completion of M.Sc. in Applied Botany form Mangalore University (year 1998), I joined the team of Prof. Madhav Gadgil, at Centre for Ecological Sciences, Indian Institute of Science, Bangalore. Here I developed interest for lichens. Later, I joined CSIR-National Botanical Research Institute, Lucknow and completed Ph.D. under the guidance of Dr. D.K. Upreti (year 2005). Meanwhile I joined the same institute as Scientist (year 2001) and till date successfully completed 20 years in lichen research. My main research interest includes lichen taxonomy and allied aspects. I strongly believe that correct identity of an organism is important before any research on that organism. Since lichen study in India is considered to be a neglected branch of botany and very few researchers are engaged in this work, a vast area of the country is remains unexplored for lichens. Therefore, my primary focus is to explore the unexplored areas of the country. Secondly, to creating awareness among common man and students regarding biodiversity, especially the importance lichens. Third, I am interested in producing skilled manpower (capacity building) in lichen taxonomy through series of training programs. Biogeography, biomonitoring and biodeterioration studies utilizing lichens and their bioprospecting are other area of my interest.
Abstract: Lichens from India are being studied since the time of Carl Linnaeus who described Lichen fuciformis L. (= Roccella montagnei Bél.) from the country in is monumental work Species Plantarum (1753). Before independence Indian lichens are mostly studied by European botanists and some of the popular lichenologist’s names include Montagne C (1842), Hooker JD (1854), Nylander W (1867), Müller Argoviensis (1893) and Zahlbruckner A (1911). After the independence K. Biswas (1947) initiated lichen study at Botanical Survey of India at Kolkata and T.R. Sesadri (1949) at Delhi University. However, all the credit goes to Dr. D.D. Awasthi, popular known as ‘Father of Indian Lichenology’ who laid a strongly foundation for lichen research in India. For long time in India Lucknow University; CSIR-National Botanical Research Institute, Lucknow; Agarkar Research Institute, Pune and Botanical Survey of India were only four major centre for lichen research India. In the recent times lichen research spread all over the county with about 150 researchers from 50 organization are engaged in this research.
Lichen research in the country has seen a steady growth from the number of lichen species being discovered to geographical area explored. From year 2010 to 2017 a total of 422 species were added to the country at the rate of 60 species per year. A total of 80 new species were discovered during this period. Eastern Ghats parts of Andhra Pradesh and Orissa, whole state of Uttar Pradesh, Cotigao Wildlife Sanctuary in Goa, Coastal habitats of Sundarbans in West Bengal and Gujarat, arecanut and tea orchards of Assam, Himalayan region in Arunachal Pradesh, Jammu and Kashmir, Himachal Pradesh, Sikkim and Uttarakhand are some of the regions extensively surveyed for lichens. In addition Mizorum and Tripura from where hitherto no records of lichens available some cursory records collections were made. At present a total of 2,714 species of lichens were documented from the country of which 21% are endemic. Western Ghats, North-eastern India and Western Himalaya are the lichen diversity hotspots. However, it is observed that still there are several ecologically interesting habitats those need to be explored, while there are no reports of lichens from seven states or union territories. Exploring such areas will certainly yield novel or otherwise interesting lichen species.

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Dr. Karthick Balasubramanian
Scientist ‘D’ S & T
Agharkar Research Institute, Pune
Email: karthickbala@aripune.org
Title: Diatoms across water, land, and air: In search of extremists to infer the environment
Background:
Karthick Balasubramanian is a Scientist at the Biodiversity and Palaeobiology Group, Agharkar Research Institute, Pune. He studied the community structure of streams of the Western Ghats for his Ph.D. He later in 2010 he joined Natural History Museum of the University of Colorado at Boulder for his postdoctoral research where he studied the taxonomy of endemic diatoms of the Indian subcontinent. In 2013 he joined the North-West University, South Africa to work on the endemic diatoms of Southern Africa. His laboratory is currently studying the diversity and distribution of diatoms across the Indian subcontinent and application of this information in the monitoring of water quality, paleoenvironment reconstruction, and environmental education. He had discovered more than 30 new species of diatoms from Africa, America, and Asia. He is also involved with environmental educational activities using diatoms as an educational tool. He writes science communication in Tamil focusing on biodiversity research.
Abstract: Diatoms represent a large and ecologically significant group of unicellular eukaryotic photosynthetic microalgae occurring in all aquatic habitats. Although most familiar as inhabitants of the marine phytoplankton community, they thrive in varied environments such as ice and hot springs, acidic and alkaline habitats, oligotrophic and hypereutrophic environments, and across all ranges of salinity. They play a significant role in global biogeochemical cycles, and the amount of oxygen generated by diatoms is more than oxygen produced by world rainforests. Due to their high species richness, habitat specificity, and persistent silica cell wall, diatoms are good indicators of environment, both past, and present. In this talk, I will introduce the diatoms and a short history of diatom research in the Indian subcontinent.
Diatoms are known to occur in the aquatic habitats for more than a century, however, the reports of diatoms from extreme environments such as terrestrial and aerophilic habitats are rare. In this lecture, I will present the taxonomic and ecological diversity of these extreme habitats. The data presented here are based on nearly 300 samples covering two biodiversity hotspots of the country. A strong biogeographic pattern at multiple spatial scales was observed with high levels of endemism in the Western Ghats and Northeastern region, crossing more than 50% mainly from the genera Luticola, Stauroneis, Humnidophila, and Gomphonema. Additionally, the taxonomic novelty emerges even at generic level with presenting missing links in the “diatom tree of life” contributing to understanding the global diatom diversity. Further, the current study confirms the presence of some of the so-called “strict aquatic” diatoms from the extreme moisture limited aerophilic and terrestrial habitats, which reassures our current understanding is very limited. The present study also confirms that factors operating the diversity of distribution of larger organisms also play a critical role in determining the distribution of microorganisms and reassures that “everything is not everywhere”.

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Dr. Alok Jain
National Institute of Pharmaceutical Education and Research(NIPER), Ahmedabad
Email: alokjain@niperahm.ac.in
Title: Morphology control in peptide nanostructures: Multiscale simulation study of penta-peptide aggregation
Background:
Dr. Alok Jain is a computational biophysicist. He did bachelor in chemical engineering from Raipur in 2002. After his bachelor he joined the master’s program in the field of computational biology at the Indian Institute of Technology Kanpur. He continued his Ph.D. research at the same institute and graduated in 2012. After his Ph.D. he worked as a post doctorate fellow at the Max Planck Institute for Polymer Research, Mainz, Germany and University of Konstanz, Germany for more than five years. Recently, he joined the National Institute of Pharmaceutical Education and Research Ahmedabad, India as an Assistant Professor. He has been awarded the prestigious Ramalingaswami Fellowship-2019. He has expertise in computational chemistry, structural bioinformatics, computational bio-nanotechnology, computational tissue engineering and structural biophysics. His current research interests lie primarily to design and characterization of nanoparticles for biomedical applications, identification and optimization of drug/lead compounds using various computational approaches and to understand protein structure-function relationship.
Abstract: Development of new well ordered, functional biomaterials based on the underlying principal of self-assembly has immense application in nanotechnology, nanomedicine and tissue engineering. Peptide based nano-materials are not only biocompatible but also their properties can be altered easily by slight changes in environmental conditions and/or side- chains of amino-acids. Herein, we report a multiscale simulation study of penta-peptides that exhibit very different morphologies upon altering a single amino acid. Atomistic simulations identified governing factors that lead to specific peptide morphology such as peptide flexibility vs rigidity, role of dimerization and the partitioning of hydrophobic side chains. The study was extended with coarse grained simulations. That allowed general conclusions about the mechanistic origin of the different morphologies. Our systematic study with differentbackbone beads and supportive psedo-dihedral angles illustrate the importance of very careful and delicate selection of coarse grained parameters to reproduce the chemical and structural properties of the system.

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Dr. P. Manikandan
Dept. of Chemistry, Indian Institute of Technology, Jodhpur
Email: mkumar@iitj.ac.in
Title: Dynamics and mechanisms of chemical reactions via direct classical trajectory simulations
Background:
Dr. Manikandan Paranjothy's broad field of research interest is theoretical and computational chemistry. In my research group, we use direct classical trajectory simulation technique coupled with modern electronic structure theory to study interesting reactions that are relevant to biochemistry and astrochemistry. Specifically, my current research interests are unimolecular and intramolecular dynamics in the gas phase, ion-molecule collision reactions, organic reaction mechanisms, and collision induced dissociation of complex molecules.
Abstract: The classical trajectory method has been used to study chemical phenomena for the past seven decades. Advantages and limitations of employing a classical mechanical technique to study atoms and molecules, which are quantum in nature, are well known. The traditional trajectory calculations involve integrating the classical equations of motion using analytic potential energy functions. With the advancements in modern computing techniques, it is possible to directly use an ab initio or a density functional electronic structure method to compute the potentials and gradients required for the trajectory integration. This method is known as direct dynamics and can be used to generate high accuracy classical trajectories. This methodology has been employed to study atomic level dynamics of several chemical reactions and has led to the discovery of new mechanisms and pathways. In our research group, direct classical trajectory simulations are used to study unimolecular and bimolecular reaction dynamics in the gas phase. In this talk, dynamics of an example unimolecular system and a bimolecular reaction investigated in our group will be discussed in detail. The simulation results will be compared with experimental predictions and the advantages of using direct trajectory simulations will be demonstrated.

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Dr. Manju Sharma
School of Chemistry, University of Hyderabad, Hyderabad
Email: manjusharma@uohyd.ac.in
Title: A Molecular Level Insight into Prenucleation Behavior of Active Pharmaceutical Ingredients
Background:
Dr. Manju Sharma obtained her integrated masters degree in Chemistry from Dept. of Chemistry, Panjab University and was awarded PhD degree in Computational chemistry from SSCU, IISc, Bengaluru. Thereafter she gained postdoctoral experience from Department of Bio molecular and Chemical Engineering, UC Berkeley, CA, USA and Department of Chemical Engineering, MIT, Boston, USA. She is currently assistant professor in School of Chemistry, University of Hyderabad. Her areas of interest are prediction of biocompatible, green materials for pharmaceutical and petrochemical applications and major areas of interest are enhanced nucleation of drug polymorphs, carbon dioxide and methane capture and removal of organic impurities from water, prediction of novel biocompatible, selective hydrate promoters for CO2-CH4 exchange in gas hydrates using computational simulation techniques.
Abstract: Controlled polymorphism of active pharmaceutical ingredients is a grand challenge in pharmaceutical industry. The key to selective crystallization of desired organic molecules is to control the nucleation of desired polymorphs. Nucleation being a rare event phenomenon is hard to capture experimentally for small molecules. In this direction, molecular dynamics simulation techniques can be a vital tool to elucidate the factors at molecular level that control nucleation. The current molecular level understanding of heterogeneous nucleation is mainly limited to model systems like Lennard-Jones particles as one of the main limitations in understand nucleation in complex systems is lack of a priori knowledge of reaction coordinates that govern the phenomenon of nucleation. Recently direct molecular dynamic simulations studies have shown that paracetmol aggregates formed in polyethylene glycol diacrylate polymer can be correlated to the known polymorphs of paracetmol. This approach was further employed to study aggregation of other pharmaceutical ingredients. These studies show that study of early states of nucleation using direct molecular dynamics simulation techniques could be a faster route to develop molecular level tools to understand factors that lead to selective polymorph nucleation under different conditions.

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Dr. C. N. Ramachandran
Department of Chemistry, Indian Institute of Technology Roorkee
Email: ramcnfcy@iitr.ac.in
Title: Structure, Stability and Properties of Mixed Gas Hydrates and Their Melts
Background:
Ramachandran obtained his Ph.D from Indian Institute of Technology Kanpur in 2008. After working as a post-doctoral fellow in University of Perugia (Italy), The State University of New York at Buffalo (USA) and University of Ontario Institute of Technology (Canada), he joined as an Assistant Professor in the Department of Chemistry, Indian Institute of Technology Roorkee in 2012. His research mainly focuses on the designing of materials for electronic, energy and environmental applications. His studies have shown that the optoelectronic properties of carbon nanostructures can be tuned by the endohedral or exohedral noncovalent functionalization. Recently, Ramachandran extended the concept of strong weak effective hydrogen bond model to fused water cages that enables one to investigate the properties of gas hydrates at reduced computational cost. His research group is also involved in the studies on the removal of environmentally hazardous gases by their sequestration in the form of gas hydrates via an exchange mechanism or by their adsorption and subsequent conversion to environmentally benign products using cost-effective materials. In a recent project, he is also exploring the area of molecular machines. He has published around fifty papers in internationally reputed journals. He has been also selected as Marqui’s Who is Who in the world.
Abstract: Gas hydrates are naturally occurring crystalline compounds consisting of light weight gas molecules encapsulated in water cages formed by hydrogen bonds. Due to complex hydrogen bond topology, modeling of gas hydrates is a challenge and most of the available studies are limited to single cages. Recently, we modeled various fused water cages by extending the concept of strong-weak effective hydrogen bond model (SWEB) originally proposed by Kirov et. al.. The structure, stability and spectroscopic properties of the complexes formed by encapsulating small gas molecules such as H2, CH4 and CO2 inside water cages of different size and shape are studied using dispersion corrected density functional theoretical methods with appropriate basis sets. Our studies revealed that the interactions between the guest species and water molecules of a neighboring cage depend on the size of the guest species. For large guest species, the interaction extends beyond a cage. The interaction between guest species of neighboring cages was also found to be significant only for large guest species. The studies on the structure and stability of the mixed gas hydrates of tetrahydrofuran and hydrogen showed that both types of molecules can be occupied in large hexakaidecahedral water cages thereby increasing the hydrogen storage capacity at moderate temperature and pressure. In addition, the findings of the classical molecular dynamics simulations performed for various gashydrate melts will be also discussed.

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Dr. Charu Lata
Assistant Professor
CSIR-NISCAIR, New Delhi
Email: charulata@niscair.res.in; charulata14@gmail.com
Title: Millets: the climate resilient crops for food and nutritional security
Background:
Dr. Charu Lata is a Plant Molecular Biologist currently working as a Scientist and Assistant Professor at CSIR-National Institute of Science Communication and Information Resources, New Delhi-110067. Prior to it, she served as a Scientist at CSIR-Botanical Research Institute, Lucknow. Her research interest has been in the field of crop improvements especially abiotic stress responses and tolerance through functional genomics approaches especially transcriptomics, characterization of stress-responsive genes and small non-coding RNAs, and genome editing in important crops. Currently her group is working towards developing transgenic pearl millet, and chickpea for improved drought tolerance. She is a recipient of Young Scientist awards by INSA and NASI. She also received Indo-Australia EMCR Fellowship, INSPIRE Faculty Award, Jawaharlal Nehru Award for Outstanding Doctotal Thesis Research and numerous other awards. She is an Associate of the Indian Academy of Sciences, Bengaluru; a founding member of INYAS and a member of NASI.
Abstract: Rain-fed agriculture is the most dominant form of agriculture in most parts of the world especially in India, and recurrent drought spells are regular phenomenon under such situations. Drought stress contributes most significantly to potential crop yield reduction. Plant adaptation to drought is a complex process and involves an array of changes at physiological, biochemical and molecular levels. Further, improvements to drought tolerance in crops have been elusive; partially because it is a quantitative trait. Reports on drought stress responses have also been merely descriptive, with the suggested functions of few drought-induced genes only. Moreover, with the expansion of irrigation facilities, most of the irrigated lands have been taken over by high yielding cereals and minor crops such as millets have been increasingly pushed to the marginal lands which are dependent on rainfed ecosystem and minimal inputs.
Millets are the world’s oldest cultivated crops and still a staple food in the diet of millions dwelling in arid and semi-arid regions of the world including India (especially in Andhra Pradesh, Tamil Nadu, Madhya Pradesh, Chhattisgarh, Karnataka, Rajasthan and North Eastern states), where monsoon failure and drought are frequent and land terrain is difficult. About 90% of total millet production in the world is utilized in the developing countries and India ranks first in total world millet production. Millet comprises of several small-grained, annual cereals and forage grasses among which pearl millet (Pennisetum glaucum), and foxtail millet (Setaria italica) are important. Distinctive features of the millets are their resilience and adaptability to unfavorable agro-ecological conditions, requisite of least inputs, and excellent nutritional properties. These represent indispensable plant genetic resources for the agriculture and food security of poor farmers that reside in arid and marginal lands. India is the largest producer of pearl millet and second largest producer of foxtail millet. However, as millets are considered minor cereal crops of only regional importance, yet until very recent times, genetic and molecular level studies have lagged behind those of other staple cereals. Transcriptome analysis for identification and functional characterization of drought responsive genes from millets, being extremely stress tolerant will not only help in providing new insight for understanding drought tolerance mechanisms but will also help in designing strategies for improving stress tolerance/resistance in these crops eventually paving path for developing crop varieties superior in stress-tolerance by genetic manipulation.

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Dr. P.V. Shivaprasad
Reader F
National Centre for Biological Sciences (NCBS) Bengaluru
Email: shivaprasad@ncbs.res.in
Title: Small RNA-mediated regulation of rice domestication associated phenotypes
Background:
Dr. Shivaprasad is an expert in the molecular analysis of plants including forward and reverse genetics, ChIP analysis, whole-genome methylation analysis, biotechnology, use of multiple model plants to study functions of small RNAs and epigenetics. He has developed patented technology to help breeders in using specific rice genes as markers for yield and lodging resistance. He is a recipient of EMBO Fellowship 2006 and Ramanujan Fellowship 2013. His lab is interested in understanding small RNA-mediated mechanisms in plants.
Abstract: Small (s)RNAs are a set of key molecules resulting from RNA silencing pathways across eukaryotes. These 20-24 nt RNA molecules associate with specific protein partners called Argonautes to target nucleic acids having base-pair complementarity. sRNA targeting may result in degradation of target RNAs or translational repression of mRNAs. Among plants, this targeting can also induce DNA methylation and histone modifications. Micro (mi) RNAs are a class of sRNA regulators typically involved degradation of target RNAs. miRNAs regulate various aspects of plant development, acting as second-generation gene switches controlling expression of primary gene switches, the transcription factors and their co-factors. Intriguingly, miRNAs are also capable of arresting invading viruses and promote resistance to bacterial and fungal infections. Our lab focuses on various aspects of small RNA biogenesis and their functions, using genetic, molecular, bioinformatic and biochemical approaches. I will be discussing a novel small RNA-mediated pathway that played a key role in indica rice domestication from semi-aquatic weeds.

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Dr. D. Raju
Division of Plant Physiology, Indian Agricultural Research Institute, New Delhi
Email: dandyman2k3@yahoo.co.in
Title: Next Generation Phenotyping for improving water use efficiency in Rice
Background:
Dr. Raju is currently working as scientist in ICAR-Indian Agricultural Research Institute (IARI), New Delhi. He did his graduation in Agriculture from TamilNadu Agricultural University, Coimbatore. He had availed ICAR national talent fellowships (JRF and SRF) to complete my post-graduation and doctoral degrees in the subject of Plant Physiology at ICAR-IARI, New Delhi. After qualifying Agricultural Research Services (ARS), He had served as seed molecular biologist at ICAR-Indian Institute of Seed Sciences, Mau, U.P. for 7 years. Currently, posted at Nanaji Deshmukh Plant Phenomics Center, ICAR-IARI, New Delhi and involved in high throughput, non-destructive and precise phenotyping of crop plants.
Abstract: The rate of genetic gain in yield, quality, input use efficiency and adaptability of crops to biotic and abiotic stresses must be improved significantly to achieve global food and nutritional security by 2050. Rice is the major staple crop uses about 50% of irrigation water in India. The water use efficiency (WUE) of rice is very low. To improve the WUE in rice, deciphering the physiological genetic basis and assembly of component traits through analytical breeding is necessary. The two pillars of analytical breeding are genotyping and phenotyping. Advances in genotyping technologies such as single-nucleotide polymorphism genotyping and genotyping by sequencing have made deep genotyping cheaper and quicker, while phenotyping has lagged behind and thus remains a rate limiting step. Recently, phenomics has emerged as a new way of accurately phenotyping large set of rice genotypes. Phenomics employ non-invasive sensors and advanced computational platforms for non-destructive and high-throughput phenotyping. The depth of component phenotypic traits and the spatio-temporal dynamic phenotypic data generated in phenomics are enormous and unparalleled to the conventional phenotyping. The utility of phenomics in QTL mapping and genome-wide association studies has been demonstrated in rice crop. Phenomics has high potential for phenome-wide association studies, genomics selection models for enhancing selection efficiency, and genetic-eco physiological crop simulation models for prediction of genotype phenotypes relationship, in silico phenotyping and ideotype design. With the advancement in the depth of phenome data acquisition and analyses capabilities of phenomics, phenome assisted breeding and phenomic selection is anticipated to be a reality in near future. Complementary use of conventional phenotyping and advanced phenomics is suggested to assist in fundamental discoveries and analytical crop breeding.

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Dr. Arun Bhardwaj
Office of PSA
Email: arun.bh@gov.in
Background:
Dr. Arun Bhardwaj joined Indian Space Research Organization's (ISRO) Ahmedabad Centre of Space Applications Centre (SAC) in July 1997. He worked here for more than 18 years on the development of space borne Electro-optical camera payload systems such as Very High Resolution Radiometers of INSAT-2E, INSAT-3A and Kalpnasat satellites used for Meteorological forecast, Cartosat series: Cartosat-1, Cartosat-2, Cartosat-2A, Cartosat-2B for high resolution imaging cameras. He has also worked on Resourcesat -1, Resourcesat-2 for mapping Earth resources, Ocean Colour Monitor (OCM) for Ocean studies, Chandrayaan-1 payloads and Mars Orbiter Mission, popularly called Mangalyaan. Since March 2016, He has been working in the office of Principal Scientific Adviser to the Government of India with focus on synergy projects. He is presently working on Sharing of Resources/Instruments of all Government funded Institutions and Departments under I-STEM (Indian Science Technology and Engineering facilities Map) and City Knowledge Clusters in various cities by bringing together Academia, R&D Labs and industry for bringing synergy.

Dr. Ranjit Kumar
Dr. Ranjit Kumar
Department of Chemistry
Dayalbagh Educational Institute (Deemed University), Agra
Email: rkschem@rediffmail.com
Background:
Dr. Ranjit Kumar is working Faculty in the Department of Chemistry, Faculty of Science, Dayalbagh Educational Institute (Deemed University), Dayalbagh, Agra (India). His main research area is atmospheric science. He has successfully completed eight major research project funded by DST, UGC, CSIR, MHRD and ISRO-GBP. He is principal investigator of “Environmental Observatory” at Agra funded by ISRO-GBP. More than thirty nine research papers in National and International journals of repute and 70 papers in conferences/seminars and a number of National and International awards are in his credit. He was a visiting faculty in the Department of Energy, Environmental and Chemical Engineering, Washington University in St. Louis, USA in 2014.

Dr. Seema Mandal
Dr. Seema Mandal
Asstt. Executive Director
Science & Society
Indian National Science Academy
Email: sci-soc@insa.nic.in
Background:
Dr. Mandal is a Assistant executive director at Indian National Science Academy. She is also a part of the editorial staff of the journal “Proceedings of The Indian National Science Academy”.

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Dr. Rajendra Singh Dhaka
Assistant Professor
Department of Physics, IIT Delhi
Email: rsdhaka@physics.iitd.ac.in
Background:
Dr. Dhaka completed his PhD in Physics from UGC-DAE Consortium for Scientific Research, Indore in the year 2008. Then he did his postdoc from Max Planck Institute for Microstructure Physics, Germany and Iowa State University, USA. He joined Deptt of Physics at IIT, Delhi as an Assistant Professor in 2014. He has visited universities in Switzerland, Australia and Germany as Visiting/Guest Scientist.

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Dr. Rohini Garg
Assistant Professor
Department of Life Sciences, Shiv Nadar University
Email: rohini.garg@snu.edu.in
Background:
Rohini Garg is currently working as Assistant Professsor at Department of Life Sciences at Shiv Nadar University. The focus of her research interests is plant epigenomics to uncover the epigenetic diversity in crop plants and its role in interaction of plants with its environment. Her lab also studies the role of DNA secondary structures in interaction with various proteins. She is reciepient of INSPIRE Faculty Award, IYBA award, INSA Young Scientist Award, NASI Young scientist award, associate of Indian Academy of Sciences and SERB Women excellence award.

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Dr. Indu S.
Research Associate
University of Cambridge
Email: is438@cam.ac.uk
Background:
She is a Postdoctoral researcher working at the University of Cambridge, with a focus on studying carbon concentration mechanism in algae to identify potential means of engineering higher plants with enhanced photosynthetic efficiencies. Her previous research experiences are in the area of protein folding and design, and mechanisms of chaperone action.

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Dr. Kiranjot Kaur
Research Associate
IIT, Ropar
Email: kiranjot.kaur@iitrpr.ac.in
Background:
Dr. Kiranjot Kaur is working as RA in Mechanical department, IIT Ropar and currently working on FP5 project of TIGR2ESS. She has done B. tech and M. tech with distinction and has 3 years of industrial experience in quality and inspection department.

Satej Bhushan
Dr. Satej Bhushan
Research Associate
NIPGR
Email: satej.bhushan@nipgr.ac.in

Sanjeet Kumar Mahtha
Mr. Sanjeet Kumar Mahtha
Ph.D. Student
NIPGR
Email: sanjeetmahtha@nipgr.ac.in

Citu
Ms. Citu
Ph.D. Student
NIPGR
Email: guliasitu40@gmail.com

Manish Kumar
Mr. Manish Kumar
Technical Assistant
NIPGR
Email: manishkumar@nipgr.ac.in

Dr. Ramya Gupta
Ms. Ramya Gupta
Junior Research Fellow
NIPGR
Email: ramyagupta96@gmail.com

Ajay Immanuel Gonji
Mr. Ajay Immanuel Gonji
Ph.D. Student, School of Human Ecology
Ambedkar University, Delhi
Email: ajaygonji@aud.ac.in

Oinam Linthongambi
Ms. Oinam Linthongambi
M.Sc. Student, School of Human Ecology
Ambedkar University, Delhi
Email: oinam.18@stu.aud.ac.in

Kartik Chugh
Mr. Kartik Chugh
Intern
Ambedkar University, Delhi
Email: kartikchugh.17@stu.aud.ac.in

Rishabh Shukla
Mr. Rishabh Shukla
Ph.D. Student
IIT, Delhi
Email: rishabhshuklaiitd@gmail.com

Simranjot Kaur Sapra
Ms. Simranjot Kaur Sapra
Ph.D. Student
IIT, Delhi
Email: simransapra90404080@gmail.com

Tanya Mathur
Ms. Tanya Mathur
Undergraduate Student
Shiv Nadar University, Greater Noida
Email: tm464@snu.edu.in