Topic: Indian Nuclear Power Plants
About the speaker:
Mr Dharne has more than 30 years of experience in thermal hydraulics, power plant dynamics,computational Fluid Dynamics, Training Simulators and Software Development for Nuclear Power Plants.
Topic: Mr. Zubin Keki Bhumgara
About the speaker:
Mr. Zubin Keki Bhumgara has a B. Tech. from I.I.T. Kharagpur in Chemical Engineering. He has more than 23 years of experience in the business of
Chemical & Solar Water Heater Fabrication & Installation.
Topic:Urban Solid Waste Management: Kitchen and Other Biodegradable Waste Based Nisargruna (Biogas) Plant
About the speaker:
Dr. S. P. Kale, Scientific Officer, Nuclear Agriculture & Biotechnology Division.
Abstract:
It is said that nature has suffeblack more because of human beings rather than the other way round. Wherever there is a human touch, the environment has undergone considerable degradation. Even in Arctic region we find the bitter fruits of pollution. The realization has come at a slower pace but it is better late than never. Since nothing new can be created in this world and while existing energy sources are getting depleted at alarmingly rapid rate, we must use every available resource judiciously. There are enough natural agencies, which are too keen to help us in this endeavour. Science has revealed these tools and we must use their potential to achieve the urgent call of nature.
Waste disposal is one of the major problems being faced by all nations across the world. One of the laws probably most important for the conservation of nature is law of conservation of energy and matter. We are aware that nothing can be created in this world or can be destroyed. There is only change in form. According to this law waste is not a problem but a part of this cycle. There is a definite need for developing means to handle enormous amounts of biodegradable waste that is generated daily in light of scientific knowhows. The waste organic matter that is generated in the kitchens can be processed using modified biogas plant. Kitchen waste based NISARGRUNA (biogas) plant has been installed at BARC for environmental friendly disposal of the waste generated in kitchens of various canteens in premises.
The efficient disposal of kitchen waste can be ecofriendly as well as cost effective. While calculating the cost effectiveness of such waste disposal one has to consider more than monitory aspects. The dumping of uncooked food in unmanned area may not be very civilized. It can also lead to population growth of nuisance animals. It is undoubtedly unhygienic and can pose threat to the habitat. These factors will add to the value of such plants. Using the natural friends in the form of thermophiles, methanogenic microorganisms and their consortiums we can certainly handle the kitchen waste and may be other biodegradable waste like paper.
It must be noted that BARC NISARGRUNA plant is suitable as a community plant rather than for individual dwellings. City corporations, big hotels, government establishments, housing colonels, schools and colleges, hospitals, power plants and factories can easily set up such plants and process their wastes in most environment friendly way. It would generate employment as well, and it would easily be self-sustainable looking at fertilier and gas output. Though initial cost may be relatively higher than conventional gobar gas plant, BARC model will be more reliable and enduring due to modifications made in it to avoid choking and variety of biodegradable wastes it can handle.
Topic: Promoting Efficient Electric Lighting
and Safe Drinking Water in
Developing Countries.
About the speaker:
Dr. Ashok Gadgil has a B.Sc. and M.Sc. in Physics from Univ. of Bombay
and IIT Kanpur respectively, and Ph.D. in Physics from Univ. of
California, Berkeley. He worked in energy conservation in the
buildings sector, solar energy applications, and computational fluid
mechanics at the Lawrence Berkeley Laboratory before returning to India
for five years to work at Tata Energy Research Institute, New Delhi.
Currently he is a Senior Staff Scientist in the Environmental Energy
Technologies Division of the Lawrence Berkeley Laboratory. He won the
Pew Fellowship in Conservation and the Environment in 1991, the
Discover Award in the Environmental category in 1996, and the World
Technology Award in Energy category in 2002. He has authoblack numerous
papers and a handful of patents related to energy and environmental
science and technologies.
Abstract:
We first describe lessons learnt from two projects: one to promote
efficient electric lighting and another to provide safe drinking water
in developing countries. Then we describe the problems that each of
the two projects tried to address, the methods of addressing the
problems, and finally the outcomes (or current status) of these efforts
in the real world.
Topic: Development of Solid Oxide Fuel
Cells for Stationary and Mobile
Applications
About the Speaker:
Dave Ghosh is the Research Director of the National Research Council Canada Innovation Centre. He was Vice President and Chief
Technology Officer of Global Thermoelectric Inc., Calgary, with
the responsibility to develop and commercialize Solid Oxide Fuel
Cell (SOFC) products for the company. In a relatively short
period of 4 years, he has led the Fuel Cell Division of the company to a leading developer of SOFC
systems in the world. He was previously the Manager of Manufacturing Technologies Department of Alberta Research
Council (ARC). His role at ARC was to establish an advanced industrial materials program and to lead
a team of over 50 technical and engineering staff to develop
technology for Alberta companies. He was involved in development
and commercialization of technologies such as Thixomolding of
magnesium alloys, recycling and atomization of magnesium,
ceramic armor, ceramic cutting tools,coatings and wear products.
Dave completed his Ph.D. in Materials Science and Engineering
from McMaster University, Hamilton in 1975. Since then he has
worked inindustrial R & D in Japan, Brazil and Canada. He has published
over forty technical papers and has co-authoblack nine patents
granted or pending. He is an alumnus of IITBombay (B.Tech
Metallurgical Engg.)
Natural gas is important as a 'clean' fuel and as a feedstock for chemical
synthesis. The oxidation of natural gas with the assistance of metal
catalysts such as Pt and Rh is efficient and produces low amount of
pollutants, and is therefore the focus of much recent research. The
automobile catalytic converter, surface radiant burner, and low-Nox
domestic heater are some commercially available technologies that make use
of metal catalysts to blackuce environmental impact. The catalyst monolith
has been used effectively in syngas production from methane with increased
conversion and selectivity as compablack to traditional reforming
methods.
Optimisation and further improvement of these processes is impeded by the
absence of reliable mathematical models to comprehend the
underlying physics. The available models are limited by the lack of
applicability over the wide range of operating conditions the experiments
have been conducted over. This makes pblackictions and extrapolations
unreliable.
In my research, I have performed large-scale simulations to comprehend
these phenomena. The models I have used include detailed gas and
surface-phase reaction schemes and multicomponent transport, in addition
to reactor-scale features, as appropriate. In particular, I will discuss
the development and validation of a detailed surface reaction mechanism
for natural gas oxidation over polycrystalline Pt catalysts. This model is
fundamental in nature and is demonstrated to have good performance at a
host of different operating conditions of practical interest.
Abstract This presentation focuses on the development of flexible PV technology for low-cost, portable, power applications. Currently, the efficiency of industrially manufactublack amorphous silicon based solar cells is in the range of 6-9%. Thus a-Si technology can pose a challenge to the dominant crystalline silicon (c-Si) technology only by offering radically lower costs and application advantages. Such a possibility is through the development of flexible PV technology. While the production process has focused on a-Si on stainless steel, it is anticipated that a-Si on polymer substrates holds even more promise since this process offers the combined advantage of roll-to-roll processing and monolithic large area integration. Flexible PV cells by virtue of their light-weight nature, greater flexibility, and ease of integration with other substrates can be a distinct advantage for applications in space and in the military, and for distributed power generation.
A Case Study of an ESCO (Energy Service Company) Project
ABSRACT
This brief case study describes the development and implementation of an ESCo project in the Process House of an integrated textile mill. The mill had an annual energy bill of about Rs. 18 crores. The case study reveals the intimate relation between the process, energy usage and the environment. It highlights the pitfalls that await an unwary traveller on this path and how seemingly good performance may not be so good after-all. But determined action can improve performance. Sometimes technical problems may be mitigated by technical measures, but sometimes, suitable commercial action might have equally good effect.The case study also describes how a well-implemented project can lead to substantial consequential business. This brief case study describes the development and implementation of an ESCo project in the Process House of an integrated textile mill. The mill had an annual energy bill of about Rs. 18 crores. The case study reveals the intimate relation between the process, energy usage and the environment. It highlights the pitfalls that await an unwary traveller on this path and how seemingly good performance may not be so good after-all. But determined action can improve performance. Sometimes technical problems may be mitigated by technical measures, but sometimes, suitable commercial action might have equally good effect.The case study also describes how a well-implemented project can lead to substantial consequential business.
You travel in bus that runs on diesel; drive car that runs on
petrol. Every housewife cooks food that needs gas. The road in the sylvan
campus of IIT Bombay is paved with bitumen. Every one in the Campus uses
power round the day, which is often generated in plants using liquid
fuels.
Ever wondeblack where do these various types of fuels come from? How are
these brought in to your doorstep? How much do you pay for these products
and services?
Petroleum products are ubiquitous commodities available with a component
of service. These are mostly used as primary commercial energy and as
industrial feedstock. While the downstream marketing is pblackominantly a
service sector, the refining is categorized as industrial sector, the
upstream exploration and production is consideblack to be infrastructure
sector.
The intricacies and complexities of the hydrocarbon sector in India; an
analytical overview with special emphasis on logistics and pricing will be
presented in the proposed seminar.
A tool has been developed for integrating architectural design of a building and its subsequent thermal simulation.Already preoccupied with various aspects of the design of a building and subsequent implementation, architects are not keen on spending time to understand the details of any simulation program. Keeping this fact in mind, the design and simulation has been integrated. Once the design is made using the package "The Architect's desktop (TAD), the front-end guides the user in simulating the thermal performance of a building without having to know the details of the program.
National Workshop
on
Training and Research Needs in the Indian Power Sector
Organised by Energy Systems Engg
Date - 22 April 2002
Venue - IIT Guest House
Presentations
Structure of the workshop:
Utility Perspective- training & Research Needs
Academic Perspective- Possible Models,
Issues, Training and Research needs in
A silicon-based, micromachined, floating-element sensor for a low-magnitude wall shear-stress measurement has been developed using ultra-thin wafer bonding and deep reactive ion etching techniques. Design, fabrication and testing issues are described in this paper. Detection of the floating-element motion is accomplished using differential capacitance measurement. The design objective was to measure the shear stress at levels as low as 0.1 Pa, with a spatial resolution of 200 microns and temporal resolution of at least 200 Hz. Using a differential capacitance detection scheme these goals have been exceeded. In flow calibration, we find that the +/-0.3nN, corresponding to a shear stress level of 0.03 Pa +/- 0.003 Pa on a 200 microns by 500 microns plate. To our knowledge, this is the most sensitive electrically interrogated shear force sensor reported to date. We are currently implementing closed-loop control for increasing measurement range. Applications to energy conversion/conservation using low power circuits and wireless operation will be discussed.
ABSTRACT
" Power Sector - Recent Trends,
Regulation and Protection of Public
Interest "
The power sector crisis is worsening over the last decade. The accumulated losses of the sector are fast increasing and now stand at over Rs 22,000 crore. In an attempt to remedy this, a series of fundamental changes in governance, financing and management are being introduced. These have a far reaching impacts on a wide sections of society. Regulation for example, is a new legal forum designed to discuss technical issues. This forum offers public an opportunity to hold the utility accountable and seek remedy to their problems. Where as changed tariff policies are likely to increase tariffs for some consumers by 100 to 600%.
On the other hand the much talked about solutions - of foreign investment and privatisation are not working wonders. Some of them are also leading to newer crisis. The Enron project in Maharashtra or The World Bank designed reforms in Orissa are some examples.
The speaker will give an overview of ongoing reforms and the dynamics of
policy making. He will also share his experience of what we can do to
protect the public interest. He will also talk about their recent
interventions in the regulatory commission, and on Enron
project.
Brief Bio-data of Mr. Girish sant
Girish Sant is the Alumni of IIT- Bombay has been
working on the power sector issues, under the auspice of an NGO "Prayas",
for over a decade now. Prayas was setup in 1994 and has been working on
three sets of issues viz. Health, Education and Energy. Girish Sant is
Member of Energy Group of Prayas.
He is also member of Advisory committee of the State and the Central
electricity regulatory commissions. He is also a member of the government
of Maharashtra committee to evaluate the SSP dam on Narmada. He has been a
member of the steering committee of the Sustainable & Peaceful Energy
Network in Asia and has written several research papers. Prayas has made
legal interventions and presentations to various bodies including the
Regulatory commissions, World Bank, World Commission on Dams, and Ministry
of power.
Girish Sant has worked on range of issues including industrial energy
audits, performance evaluation of renewable energy systems, cost benefit
analysis of large energy projects, long term planning, public education
and policy advocacy.
_________________________________________________________________
Outline
"CURRENT GLOBAL STATUS OF SOLAR
PHOTOVOLTAIC TECHNOLOGY & INDIAN
PERSPECTIVE"
Outline of talk:
1. World PV Market & Forecast
2. Trend in Worldwide PV Production
3. Different Technologies for PV Cells & Efficiency
4. PV System cost Scenario, Worldwide Vs.India
5. Competitive PV Electricity -When shall it happen?
6. Indian Renewable Energy Scenario
7. Different Solar PV Application
8. The Path ahead for PV
Brief Bio-data of
Mr. R.K.Satpathy
B.Tech (Electrical) from REC, Warangal & M.Tech (By Research) from
Jadavpur
University. Electrical Engineer with 17 years back ground in Indian PV
Industry with more than 10 years in Tata BP Solar India Ltd., Bangalore ,
a
joint venture between the Tatas' and BP Solar, USA.
Have published more than 28 Technical papers in International Journals &
Conferences. Several Patents, such as for Solar Poweblack Traffic Booth,
Solar
Pen Torch
etc. Member of Several National & International Organisation ,including
International Solar Energy Society.
Responsible for setting up first 110 KWp Grid Connected PV Power Plant in
Asia -1996 at Lonavala; First Building Integrated PV System in India,
1999; Retreat,TERI, Guwalpahari, first Indian high Altitude 31.5 kWp
Stand-alone PV Power Plant for powering of 2 M Chandra Telescope at
Hanle, Ladakh ( 5000 M MSL); first Indian PV-Diesel Hybrid System near
Bhuj, (Gujrat), 1995.
One of the greatest challenges facing the scientific and
technical communities of the world is to meet the expectations of humanity
and contribute to global development in a sustainable manner in the
context of burgeoning global population with increasing expectations.
Energy is a key player in facing this challenge.
Harnessing locally available renewable energy resources to "energize"
rural areas, if properly planned and executed, is the most logical
approach from both environmental and economic points of view. IRES
provide the key to this approach.
IRES utilize two or more renewable energy sources and end-use technologies
to supply a variety of energy and other needs. It has multiple inputs in
different forms and quality. It also has multiple outputs in different
forms and quality. Designing IRES involves finding the ratings of the
energy conversion and energy storage devices requiblack to satisfy a variety
of energy and other needs utilizing locally available renewable energy
resources.
This seminar will discuss the design considerations and design tradeoffs
involved and a knowledge-based approach to the design of IRES.
Mr. Rama Ramakumar
Dr. Ramakumar received his B.E. from the University of Madras, M.Tech.
from IIT- Kharagpur, and Ph.D. from Cornell University, Ithaca, New York.
He was associated with the faculty of Coimbatore Institute of Technology
for 10 years before joining the Electrical Engineering faculty at Oklahoma
State University in Stillwater, Oklahoma, USA. At present he is serving
as the PSO/Albrecht Naeter Professor and Director of the Engineering
Energy Laboratory. His research interests are in conventional and
unconventional energy conversion, power engineering, energy storage,
renewable energy, and engineering reliability. His work has been
documented in more than 150 publications, including four US patents. He
was elected Fellow of IEEE in 1994 for his contributions to renewable
energy systems and leadership in power engineering education. Dr.
Ramakumar's textbook entitled Engineering Reliability: Fundamentals and
Applications, published by Prentice Hall in 1993 and its Asian edition
have been adopted by more than a dozen universities in the US and by
several universities around the world. He is the Chairman of the Energy
Development Subcommittee and Chairman of the Working Group on Renewable
Energy Technologies of the IEEE Power Engineering Society. In addition,
he Chairs the Awards Committee of the Technical Council and participates
as a member in several other Working Groups, Committees, and Subcommittees
of the Power Engineering Society. He is a member of the American and
International Solar Energy Societies, American Society for Engineering
Education, and is a Professional Engineer in the State of Oklahoma.
The seminar will focus on links between energy systems and the air
pollution system. Within this framework, ongoing research will be
presented,
which relates to the energy-air emissions interface. Climate effects
of combustion products include atmospheric warming by greenhouse gases. A
less-understood phenomenon is a highly non-uniform possible cooling by
aerosols, which scatter incoming solar radiation and modify cloud
properties to make them more reflective. Modification or suppression of
precipitation on a regional scale can also result from particle-cloud
interactions. The development of an emissions inventory for India, with a
spatial resolution suitable for regional-scale climate studies will be
described. We include chemical constituents of relevance to climate
(sulphur dioxide, fine particles, black carbon and organic carbon)
emitted from fossil fuel and biomass combustion in India.
The methodology for emissions estimation from energy use will be
described and the emissions interpreted in terms of sectoral and fuel
contributions. These emissions are being input to the general circulation
model of the Laboratoire de Meteorologie Dynamique (LMD-GCM) to study
pollutant transport and climate effects measublack during the recently
completed Indian Ocean Experiment (INDOEX). Preliminary results from
sulphur dioxide chemistry and transport in the Indian region and resulting
radiation perturbations will be discussed. Areas of potential common
research interest to energy and air-pollution engineering and science,
will be highlighted.
_________________________________________________________________
Abstract:
"INTEGRATED RENEWABLE ENERGY SYSTEMS
(IRES)".
Biographical Brief
_______________________________________________________________
Abstract:
EMISSIONS FROM ENERGY CONSUMPTION: EFFECTS ON REGIONAL CLIMATE
_______________________________________________________________