Chairman Emeritus Reconnect 47 “Carbon Neutrality in Industry”

Dear friends,

In today’s scenario of threatening climate change, Industry has responsibility of being carbon-neutral. Any Industry going Carbon Neutral implies that it offsets carbon as much as it produces through its operations directly or indirectly. “For every car produced which would run on petrol, your company should produce another car which would run on ethanol (bio-fuel)” said Dr. A.P.J. Abdul Kalam while visiting a Car manufacturing company abroad. That signifies the concept of a carbon neutral industry in broad terms.


Any industry is responsible for carbon emission directly or indirectly. Its scope can be categorized by “GHG protocol Corporate Standard” developed by World Resources Institute (WRI) and World Business Council on Sustainable Development (WBCSD) as under:

Scope-1: Direct Carbon Emissions from owned boilers, Diesel generators etc.

Scope-2: Purchased Electricity- Indirect Carbon Emissions at the Generating sources

Scope-3: Other Indirect Carbon Emissions from Waste generated, Business Travel etc.


Any Industry willing to become carbon neutral will have to first assess its Carbon Footprint and then set its agenda for action. A study was conducted by GLIM, Gurugram at Tata Communications in Maharashtra region.

Carbon Foot Print (CFP) of Tata Communications

Scope-1 CFP: Fuel (Diesel) used in backup power

Scope-2 CFP: Electric power usage

[In TATA Communications- Maharashtra, approximately 90% of the Carbon Emission is due to the above.]

Scope-3  CFP : Activities generating carbon indirectly: Waste generated, Business Travel and Employees commuting.

Agenda of Tata Communications towards Carbon Neutrality

Scope-1 Agenda:   Back-up Fuel “High Speed Diesel (HSD)” to be replaced by “Bio-Diesel”

Scope-2 Agenda:

Carbon reduction through:

  • Energy efficiency {Efficient usage of power in data centers}
  • Innovative techniques to restrict carbon emission
  • Geothermal Pumping for Cooling (saving electric power)
  • Solar LED standalone street lighting system

Carbon off-set by sourcing Carbon-Free Green Power:

  • Solar
  • Wind
  • Regular & Seasonal Hydro

Scope-3 Agenda:

  • Treating Waste generated
  • Tele-presence Services to reduce “Business Travel”
  • Replacing conventional vehicles by ‘Solar charged battery operated vehicles’ in the Campus to reduce carbon footprint of  “Employees commuting”
  • Afforestation to nullify remains of the above three indirect sources of carbon emission
  • Promoting Environmental Consciousness


Scope-1 Strategies & Impacts

Back-up Fuel “High Speed Diesel (HSD)” to be replaced by “Bio-Diesel”

Replacement of High Speed Diesel (HSD) used in power backup generating units by BIO-DIESEL could be very effective in reducing emissions by 90%. Bio-diesel is seamlessly interchangeable with petroleum diesel. It has better lubrication and increased productivity of electricity generators. Bio-diesel needs no change in infrastructure and no engine modifications.

Scope-2 Strategies & Impacts

Electricity is consumed at five different locations of TCL within Maharashtra. At the end of FY 2014-15, the load at TCL Maharashtra was approximately 23.5 MW causing emission of 113096.7 Tonnes of CO2. Company proposes to expand its business by the end of 2020, for which it has estimated a capacity addition at some of the sites in Maharashtra resulting in 48 MW of net total load in Maharashtra.


Energy efficiency {efficient usage of power in data centers}

Benchmarking of Energy Efficiency of Data Centers is usually done by Power Usage Effectiveness (PUE) which is defined as the ratio of Total Facility Energy to Energy used in IT Equipment. At present TCL compares with reputed companies in the world as follows:

                                                PUE in Different Reputed Companies

Company PUE
TCL 1.9

The above shows that there is a scope of improving energy efficiency at TCL. One of the simplest ways to save energy in a data centre is to raise the temperature. It is a myth that data centres need to be kept absolutely chilly. According to most IT equipment manufacturers’ specifications, data centre operators can safely raise their cold aisle to 80°F or higher. By doing so, we significantly reduce facility energy use. At present TCL Data Centres are operated at a temperature of 73.4 0 F which is 6.6 0 F chiller than what Google is operating at present.

The electricity that powers a data centre ultimately turns into heat. Most data centres use chillers or air conditioning units to cool down the equipment, requiring extra energy usage. At Google data centres, they often use water as an energy-efficient way to cool instead. At TCL also we have Chiller and Crack units installed besides air conditioning, which help in cooling whereas at Google they are using natural water based cooling mechanism.

For using natural water based cooling, quality of water needs to be ensured and it may have a cost component associated with purifying it. A feasibility test on the availability of purified water has to be done, which if turns out to be positive for implementation, huge amount of electricity consumption can be reduced.

Innovative Techniques to restrict Carbon Emission: Geothermal Pumping for Cooling (saving electric power)

70% of the total energy used in TCL Maharashtra is used in HVAC load, which basically includes Chillers & Cracks.

In order to drastically reduce the HVAC load of Chillers and Cracks or to eliminate them completely, geothermal pumping can be resorted to. Geothermal technology uses earth to dissipate heat as sink and uses reverse geothermal pumping for cooling purpose. It relies on the fact that the Earth (beneath the surface) remains at a relatively constant temperature throughout the year, very much like a cave. Heat pumps can be deployed using a vapour compression cycle to transport heat from IT Equipment to the earth which becomes a heat sink and in the process cooling the machines. Energy saved in Chillers and Cracks can be enormous contributing to carbon savings.

Solar LED standalone street lighting system

Streetlights, which are being used at TCL Pune facility presently, are having the rating of 250 watts with at least 200 fixtures. Taking round-the-year operation @ 10 hrs. /day, energy implied would be 250 x 200 x 3650/1000 = 182500 kWh. By installing standalone LED solar enabled street lighting system, around 182500 x 0.98 = 178850 Kg= 178.85 Tonnes of CO2 can be offset annually.


Sourcing Carbon-free Green Power:

  • Solar
  • Wind
  • Regular & Seasonal Hydro

Solar Power

At TCL there is 3 MW of installed solar capacity in Pune which is supposed to provide about 12 % of power used in TCL, Maharashtra. Out of total energy of 129578438 kWh consumed during 2014-15, 14173643 kWh (10.94%) of green power from solar was used in TCL. By adding some more capacity (going up to 5 MW), it is expected to supply about 20% of power from green sources in near future, saving to that extent the emission of CO2 .

Wind Power

Out of the 5 office locations 4 are situated at the seashore where company is planning to install micro windmills for harnessing energy from wind source. They are looking at purchasing the turbines and installing them on the rooftops of the office locations. Power generated from these windmills can be used for general small lighting purpose. On an average these windmills cost Rs. 1-2 Lakh per turbine.

Regular & Seasonal Hydro

At Tata Communications, a paradigm shift in carbon neutrality can be seen by tying up with (carbon free) Hydropower. While seriously attempting to tie up with “Tata Hydro” for entire power requirement, surplus hydro power in Maharashtra Grid during rainy season could be tied up at the first place.

Scope-3 Strategies & Impacts

Following activities were identified under Scope-3 on which the Company did not have much control. However, Company’s limited intervention is possible.

Treating Waste Generated

In Tata Communications, the waste coming out of operations is primarily the waste from Diesel Generating sets during maintenance sent out to third party vendor for disposal. The data is maintained during refills and maintenance cycles for waste lubricating oil. Within the premises of Tata Communications, Pune the company has installed a waste handling unit, which essentially accepts biodegradable waste including kitchen wastes as input and processes it to provide output as manure, which is used for the plantation within the company. The net GHG emission is reduced because the energy intensive fertilizer production and associated GHGs are reduced to that extent.

Tele-presence services to reduce Business Travel

Tele-presence service can optimize travel. Tata’s Tele-presence service encompasses both public room services and private tele-presence managed services. Businesses aiming at reducing their travel costs and minimizing their carbon footprint want to consider adopting tele-presence meeting options such as videoconferencing. Frequent flyers contribute disproportionately to greenhouse gas emissions besides losing working time.

Replacing conventional vehicles by ‘Solar charged battery operated vehicles’ to reduce carbon footprint of ‘Employees Commuting’

On an average around 750 vehicles are daily running within the campus for a distance of around 2 km each. So 1500 km of run of four wheelers at an average of 15 km/litre consumes 100 litres of fuel for commuting. TCL is planning to start battery operated vehicles within the premises and designing a master solar park at the main gate (proposed) which is at ideal location of sun face for solar power. Power generated from this park could be used to charge the batteries of a single vehicle with the sitting capacity of 25 to 30 people and total Run per day 80 to 100 KM.

Afforestation to sink Carbon

Remains of the three identified scope-3 activities can be addressed by creating some forest carbon sinks. On an average 12 trees are needed to sink 1 tonne of CO2 after 5 years.  According to these statistics if we are planting 10,000 trees in 2015 in TCL’s campus then 833 tonnes of CO2 emission can be offset by 2020.  Plantation pattern has to be identified, which contributes to offset carbon emission and also adds to the aesthetics of the office premises as per choice of the employees. This approach will help in building green healthy environment around the work place. The office location of TCL Pune is spread over 1100 acres of land, so plantation on this land can be used to create carbon sinks. As per the Government policy a Corporate has to invest 2% of its total annual Profit in CSR activity. Linking this expense with afforestation, plantation can be done in the premises with the help of any NGO.

Promoting Environmental Consciousness

Promoting cycling within the Campus to ‘burn calories not carbon’ will also help in involving each and every employee of TCL in generating awareness towards reducing carbon emission.


All the above measures of carbon reduction and offsetting would show results in their own magnitude. Besides, it would generate tremendous awareness about carbon neutrality across the organization. Brand value of the Organization with pursuance of carbon neutrality as a corporate goal is going to increase in the emerging environment conscious scenario.  For many firms, the allure of bolstering their corporate or product brand reputation is a key consideration in seeking to go carbon neutral. What is crucial is that the approach adopted by TCL is robust, transparent and based on available standards and protocols. “Achieving Carbon Neutrality by 2020 in TATA Communications Ltd.-Maharashtra” has a great significance.  What is crucial is that it is not to be pursued as a stand-alone exercise, but as part of a broader sustainability strategy that encompasses the whole business.

At Tata Communications, the target of achieving carbon neutrality by 2020 seems possible if most of their input power can be tied up with (carbon free) conventional Hydro. The Group Company has an installed hydro capacity of 576 MW in Maharashtra itself. While the other measures dealt with in this letter may make their own contribution towards Carbon Neutrality, the objective could be fully achieved by dedicating majority of 24 MW now progressing to 48 MW of “Tata Hydro” to Tata Communications in Maharashtra by 2020.

Let us hope, Industry as such takes a step forward towards carbon neutrality.

Best wishes and Regards,

Dr. B.S.K.Naidu

BE(Hons), M.Tech., Ph.D., CBI-Scholar, D.Engg. (Calif.), FNAE, Hon.D.WRE (USA)
Chairman Emeritus, Great Lakes, Gurgaon, NCR, New Delhi, INDIA
Former Director General (NPTI & CPRI) Govt. of India

No job is small or big, the way in which you do, makes it small or big (c)

Chairman Emeritus Reconnect 46 “Value Orientation to Power / Energy Sector”

My dear friends,

Life on earth has been created on so many exacting conditions.
1. The earth rotates on its axis at one thousand miles an hour. If it turned at one hundred miles an hour, our days and nights, would be ten times as long as now, and the hot sun would then burn up our vegetation during each long day while in the long night any surviving sprout would freeze.
2. The slant of the earth, tilted at an angle of 23 degrees, gives us our seasons. If it had not been so tilted, vapors from the ocean would move north and south, piling up for us continents of ice.
3. The sun, the source of our life, has a surface temperature of 12,000o F and our earth is just far enough away so that this “eternal fire” warms us just enough and not too much. If the sun gave off only one half its present radiation, we would freeze, and if it gave half as much more, we would roast.
4. If our moon was, say, only 50 thousand miles away instead of its actual distance, our tides would be so enormous that twice a day all continents would be submerged.
5. Had the ocean been a few feet deeper, carbon di oxide and oxygen would have been absorbed and no vegetable life could exist.
6. Ozone layer protects the earth from ultraviolet rays of the sun and a well-designed greenhouse enveloping the earth maintains the right kind of warmth for living beings to survive.
The above exacting conditions necessary for life on earth could not possibly exist in proper relationship by chance. There is not one chance in millions that life on our planet is an accident. In fact, it appears to be a deliberately designed system to perfect equilibrium.

Sustainability of Human Intervention in Nature’s Equilibrium
Mahatma Gandhi said “There is enough in nature for everyone’s need but not enough for everyone’s greed”. With the evolution of human beings and their multiplying population together with their intelligence and aspirations to command the nature, the question arises as to how much intervention is possible in the universe, in such an exacting relationship as described above. For instance,
1. How much we can intercept locally the nature’s hydrological cycle for irrigation and power, with repercussions on local environment, even though carbon-free.
2. How much fossil fuel we can burn for power generation and other needs since it has a very serious repercussion on emissions of carbon di-oxide which according to an estimate, if not brought down to 60% of the current level, may cause major climatic shifts and submergence of low lying lands by 2050.
3. How much we can afford emission of Chlorofluorocarbons (CFC) which have already started disrupting the ozone layer which may cause skin cancer, blindness etc. The seasonal hole in the ozone layer during Sept’1998 covered an area of 25 million KM2 (about 2.5 times the area of Europe). According to one estimate 60% of GHG is attributed to energy Sector.
4. How much technological development we can afford so as not to disrupt the nature’s supportive equilibrium. At what rate resource consumption and growth of population is possible keeping intact the regenerative and self-recycling characteristics of the nature besides carrying capacity and assimilative capacity of the Eco-systems.

Value Orientation
Human intervention needs value orientation in any sector of development. A 15-point charter of values is suggested below for power / energy sector.

1. Sense of Proportion: A respectable share of Hydro is a technical necessity of Power Grid. Present Hydro:Thermal mix of 20:80 should ideally shift to 40:60.
2. System Ethos: Voltage and frequency fluctuations causing heavy damage to power equipment and completely stalling the sensitive control equipment; speak poorly of power system ethos. Grid frequency is a critical aspect of power system operations and a function of demand and supply (when demand exceeds supply, frequency dips and vice versa). Grid frequency reflects the discipline and the stress in the system. The frequency variation for example should be brought down from 8% (48 Hz-52 Hz) at times to less than 1% (49.7 Hz-52.2 Hz) at all times. CERC now aims at 0.2%.
3. Techno-economic Sense: Techno-economically, Hydro proves several times favourable option compared to thermal keeping in view the life cycle cost, recurring fuel cost and its escalation, environmental cost and grid economy. Nuclear option exhausts our foreign currency reserves right from fuel (uranium) to technology.
4. Financial Acumen: Solar PV is the costliest option for a 50 MW scale, but it breaks even for a 50 kW plant and proves cheapest for an isolated 50 W system.
5. Sustainability: With the present rate of consumption, all oil and gas stocks would be completely exhausted in India before 2050. Fossil route cannot prime the growth which is sustainable.
6. Renewability: Ever renewed solar energy is radiating directly onto the earth, at the same time manifesting itself in several indirect forms such as wind, hydro, ocean thermal and bio-energy etc. This naturally recycled resource-base holds potential for perpetual power generation.
7. Energy Storage: Energy storage is complementary to intermittent renewables. With “Energy Storage” component, the load demand can be met much better, right from cyclic stability to daily demand pattern to even seasonal demands.
8. Environmental Compatibility: Environmental impacts net of mitigative measures place Hydro at 3 against 7 that of thermal on a 10-point scale. Carbon emissions of Hydro and Nuclear options are least compared to all other known options for power generation, considering the full energy chain. Their carbon emission compared to coal option is in the ratio of 5:270. Hydro:Thermal SO2 emission is in the ratio of 1:1000.
9. Interweaving of Technical and Commercial Values: Higher tariff for peaking power could be an attempt towards optimising technical and commercial values of power.
10. Security Concerns: Longevity of imported fossil fuels is extremely doubtful since globally the oil and gas stocks are going to exhaust fast with the rate of consumption growing with population and their aspirations. National energy security concerns call for indigenous and renewable options to be developed.
11. Optimizing Demand-Supply Gap: Present peaking power shortages in India could have been completely eliminated under the same MW installed (under the same investment) had the country gone for a judicious Hydro:Thermal mix. Demand side management and energy efficiency measures on utilization side can also narrow down the demand supply gap which at present is in the range of 2.1 % energy shortage and 2.6 % peaking shortage during 2015-16, in respect of present electricity connected consumers.                                   12. Smart Grid: A smart grid is an electrical grid which includes a variety of operational and energy measures including real time smart meters and other appliances, renewable energy resources, and energy efficiency measures. For instance, improvement of tail-end grid voltages can be achieved through Solar Panels. Computer intelligence & networking abilities and automation make it interactive right from generator to consumer. Optimization of energy use on real time basis with resultant economy and comfort are obvious benefits of smart grid which should soon be made available to all the electricity customers.
13. Decentralisation: It may be uneconomical to extend the grid to the remotest areas and therefore off-grid electrification with localised generation and distribution system viz. ‘mini-grid’ should be equally respected and encouraged. Stand-alone systems can also help in avoidance of transmittal of that much of power over long distance with attendant losses.
14. New Capacity Vs. Upgradation: Upgradation comprising renovation, retrofitting, uprating and modernisation is cheaper, faster and environmentally friendlier option for coping with the increasing demand than the new capacity addition and should therefore get priority in the power sector.
15. Conservation: We generate 4 units for ultimate utilization of just 1 unit of electricity, 25% being T&D losses and 66.7% being the end conversion losses in some crucial sectors like agricultural pump-sets. Energy efficiency measures should lead to conservation of precious energy resources.

Sustained Value Addition
R&D should expand to R&D3 meaning Research and “Development, Demonstration & Deployment”. Such a countenance would provide an orientation to take research activity right up to its logical end. R&D3 program would involve Research, Technology development, Engineering and Business Management strategies, all together with an integrated approach. India should see more and more innovations through the entire R&D3 chain in the 21st Century for maximization of indigenous value addition which would not only make the nation proud but would rapidly strengthen our economy.

Concluding Remarks
Rather poor “Techno-Economic-Environmental-Operational ethos” of our Power System calls for value orientation- a conscious introspection linking the present ills and shortcomings to the values and ethos and strategic envisioning of corrective measures. Values chartered above for producing a credible blue print of a formulated vision for India’s Electrical Power Sector can be of generic importance applicable to other sectors of development also, with due modifications.

Let us appreciate that value based introspection and corrective action planning are crucial for development.

Best wishes and Regards,

Dr. B.S.K.Naidu

BE(Hons), M.Tech., Ph.D., CBI-Scholar, D.Engg. (Calif.), FNAE, Hon.D.WRE (USA)
Chairman Emeritus, Great Lakes, Gurgaon, NCR, New Delhi, INDIA
Former Director General (NPTI & CPRI / REL), Ex. Director (REC) / Executive Director (IREDA)

No job is small or big, the way in which you do, makes it small or big (c)

Chairman Emeritus Reconnect 45 “Solar Rooftops in India”

My dear friends,

India has been a land of revolutions witnessing the life changing upheavals like the Green Revolution and the White Revolution. Now she is on the verge of next revolution i.e. “Solar Revolution”. The newly set target of 100 GW Solar Energy by 2022 will change the position of India on the map of solar powered nations across the world. With 38 GW, Germany has led the world in Solar PV with a global aggregate of 177 GW. Can India follow suit?

Out of the Indian target, 40 GW is earmarked for Solar Rooftops. Our country has around 337 million houses as per the census 2011. A 1-kW system per house could add up to 337 GW of installed capacity; commercial and industrial rooftop space being additional avenue for generation which signifies that the 40 GW target is a small fraction of the potential. The commencements of “Make in India”, “Start-up India”, “Stand-up India”, “Housing for all by 2022” and “Digital India” missions are other elements which can complement and accelerate the transition.

Today, India’s 1/3rd population has no access to electricity and lives in darkness. This can only be answered by decentralised sources of energy like solar. Solar Rooftop PV (SRPV) is a decentralised technology, which is being encouraged due to its low land footprint and ability to reduce transmission and distribution (T&D) losses. Weak local distribution infrastructure, lack of economies of scale and poor social outlook has prevented SRPV systems from penetrating the Indian market. Currently India has only 300 MW of rooftop solar projects.

Consumer awareness

A survey was conducted by one of our PGPM (Energy) students to gauge the awareness of consumers towards solar technology and the apprehensions/partial knowledge related to it. It was an on-line survey and more than 50% respondents belonged to the age group of 25-30 yrs. Most of the respondents (98.3%) were aware of solar technology and the cost of the system which signifies that people now know about the solar rooftop PV technology.

Encouraging feedback was that about 84% of the respondents showed their willingness towards installing SRPV system in future. Most of the respondents are not fully aware of the incentives and subsidies provided by the Government. Almost 41% of the respondents knew about the area required for the installation of SRPV. However, only 6% of the total respondents have installed SRPV systems.

Almost 38% of the respondents were not aware of the new target of 100 GW of Solar deployments by 2022. About 59% of the respondents didn’t know about the Net-metering scheme. There were some ‘true-false’ questions which were asked to test the apprehensions in the minds of consumers. The results show that the respondents are still not aware of the basic features of the SRPV system and have certain false assumptions like solar PVs may cause electric shocks; it will not generate electricity during clouds, etc.

The results show that still a lot is to be done at the awareness front to give a boost to the SRPVs in India. An awareness and a promotional program is proposed to remove the apprehensions and for the better penetration of the technology with promotional ads like that of “Clean Water”, “Sanitation”, “Child Education” etc. The Government can also mandate each energy generator whether conventional or non-conventional to put an information board emphasizing the benefits of Solar Rooftop PV.

Possible Elements of Awareness Campaign

  1. With about 300 clear sunny days, the solar energy available in a year (5000 trillion kWh) exceeds the possible energy output of all fossil fuel energy reserves in India.
  2. India is ranked number one in terms of solar electricity production per watt installed.
  3. The electricity generated by Solar PV becomes free in 6-7 years (payback period) and you enjoy free power thereafter.
  4. Government provides 15% subsidy on the capital cost of installation of solar rooftop PV.
  5. Solar PV works more efficiently in cold climates (see graphs below).
  6. On a cloudy day, typical solar panels can produce 10-25% of their rated capacity. The exact amount will vary depending on the density of the clouds, and may also vary by the type of solar panel.
  7. The Solar PV doesn’t give electric shocks if touched rather they are required to be cleaned daily to keep them dust-free to increase efficiency.
  8. 1-kWp of solar panels typically require 8-12 m2 of shade free area to generate 4 kWh per day.
  9. Cost of Solar Rooftop PV varies between ₹80,000 to ₹100,000 per kW system.
  10. The electricity generated from solar PV costs ₹6/kWh.
  11. The solar energy generated can be supplied to the grid if in surplus.

Recently, a team of researchers from Stanford University have devised an ingenious means of boosting the efficiency of solar panels by exploiting a fundamental physics phenomenon. Solar panels lose efficiency as they heat up. Just as the top of our head radiates excess body heat as infrared light, the researchers have developed a translucent overlay comprised of patterned silica that does the same for solar panels. The overlay separates the visible spectrum of light (which generates electricity) from its thermal radiation, effectively “cooling” the incoming light, radiating the heat away from the panel while allowing more photons to be converted into electricity. Thermal overlay cools the panel’s surface by as much as 22o F and boosts energy production by 1 % (a sizable efficiency jump in the world of solar energy production @ 11-15% panel efficiency).

The fact that the “Solar panels lose efficiency as they heat up” and “that they can suit more the colder and sunny climate” seems to have been ignored in the state-wise target allocation of SRPV out of 40 GW by MNRE in June’2015.

Climate Change and Solar Rooftops

The National Action Plan on Climate Change obligates use of Renewable sources of energy to reduce the carbon footprint. The recent move of the Government in continuation of Jawaharlal Nehru National Solar Mission (2010) to install 100 GW of Solar by 2022 is a step forward to Climate change mitigation and connecting the unconnected through distributed source of energy. As the country moves towards the clean energy deployment, it also happens to be a good time for all stakeholders to spread their wings in the new market.

Solar energy revolution seems to be the next big thing after the achievement of Mars mission for India. It is high time for Government to prioritize its further movement towards the building of healthy and sustainable policy & regulatory regime to nourish the sector. A lot of improvement will also be required in the infrastructure to avail the net-metering and feed-in-tariff schemes.


Graph 1 & 2 : Temperature coefficient for crystalline cells

The Government can obligate the banks for financing an allotted target capacity of solar rooftop projects in a way similar to the RPOs for Industries/Utilities. Housing financing scheme should attach Home loan with a loan for Solar Rooftops. T
he “Make in India” program is an attraction to many foreign investors and soon the companies will base their units in the country; the Government can mandate Solar Generation Obligation (SGO) to utilize their rooftop space. An agreement and support from Discom’s would smoothen the trajectory of growth.


India’s Latest Initiatives at Global Level

It was our Prime Minister’s dream to associate 100+ Solar rich nations like consortium of Oil rich nations to harness solar energy faster by pooling their resources. This indeed happened in Paris during 2015-United Nations Climate Change Conference, COP 21, during 30th Nov-12th Dec’2015. [ It was the 21st yearly session of the Conference of the Parties (COP) to the 1992 United Nations Framework Convention on Climate Change (UNFCCC) and the 11th session of the Meeting of the Parties to the 1997 Kyoto Protocol.]

The Paris declaration aiming at containing the earth’s temperature rise to 2o C above pre-industrial level by limiting to 1000 billion tonnes of carbon, encompassed  “International Solar Alliance” of the countries to share the collective ambition to undertake innovative and concerted efforts for reducing the cost of finance and cost of technology for immediate deployment of competitive solar generation, financial instruments to mobilise more than 1000 Billion US $ of investments needed by 2030 for the massive deployment of affordable solar energy and to pave the way for future solar generation, storage and utilization for countries’ individual needs. Soon thereafter International Solar Alliance – the First International and Inter-Governmental Organisation of 121 Countries with United Nations as Strategic Partner was inaugurated by our Prime Minister Shri Narendra Modi, and the President of France Mr François Hollande. They jointly laid the foundation stone of the International Solar Alliance (ISA) Headquarters and inaugurated the interim Secretariat of the ISA in National Institute of Solar Energy (NISE), MNRE, Gurgaon on 25-Jan-2016.

These are positive steps which may also boost Solar rooftops segment in future.

Satyamev Jayate !!!

Best wishes and Regards,

Dr. B.S.K.Naidu

BE(Hons), M.Tech., Ph.D., CBI-Scholar, D.Engg. (Calif.), FNAE, Hon.D.WRE (USA)
Chairman Emeritus, Great Lakes, Gurgaon, NCR, New Delhi, INDIA
Former Director General (NPTI & CPRI / REL), Ex. Director (REC) / Executive Director (IREDA)

No job is small or big, the way in which you do, makes it small or big (c)


Chairman Emeritus Reconnect 44 – “Energy Storage for Intermittent Renewables”

My dear friends,

Our Hon’ble Prime Minister Shri Narendra Modi has been announcing to the entire world that India has scaled up its plans from Mega Watts to Giga Watts in the arena of Renewable Energy in view of its environmental sustainability. The quantum jump being mentioned is 5,000 MW to 100,000 MW (100 GW) in respect of Solar Energy and 25,000 MW to 60,000 MW (60 GW) in respect of Wind Energy by 2022.

Such an ambition is not realizable without complementary energy storage of intermittent renewables. Both the above stated renewable energies are available only for 6-8 hours/day, not matching with peak load requirements and are further subject to seasonal variations. One of the basics of Power System is that the electricity must be generated at the precise moment it is demanded. It is the ultimate “just in time” system, where long-term inventory of electricity is denied. (Electricity can only notionally be stored in Capacitors and Inductors for a short time.) It cannot be stored in significant quantities but its converted forms like chemical energy in batteries, gravitational hydro potential energy etc, are possible to be stored.

Recent Cabinet Approval on Amendments in Tariff Policy

Recently the Union Cabinet has approved the proposal of the Ministry of Power for amendments in the Tariff Policy. For the first time a holistic view of the power sector has been taken and comprehensive amendments have been made in the Tariff policy 2006. The amendments are also aimed at achieving the objectives of Ujwal DISCOM Assurance Yojana (UDAY) with the focus on following 4 E’s:

  1. Electricity for all
  2. Efficiency to ensure affordable tariffs
  3. Environment for a sustainable future
  4. Ease of doing business to attract investments and ensure financial viability

Unfortunately the 5th E i.e. Energy Storage for Intermittent Renewables has been missed out. Cost of energy storage should have been built in to the Peaking tariff. This was not expected in the present scenario when we have a common Union Minister for Power and MNRE.

Recent R&D Council Meeting of the National Wind Energy Institute under MNRE

I attended the latest (Twenty-third) meeting of R&D council of the National Institute of Wind Energy (NIWE) held at Chennai on 30.12.2015 wherein their 10-Year Vision Plan was presented.

I pointed out that the renewables like wind and solar can become 24X7 power suppliers only when the appropriate Energy Storage systems are in place and hence a thrust be given for projects in developing Energy Storage systems, for renewables.

Pumped storage is one of the most promising options for energy storage in the form of hydro potential whose assessment in India is more than 96,000 MW of which not even 6,000 MW has been harnessed so far. Almost all (>99%) of power-grid-scale energy storage in the world today is pumped-hydroelectric.

However, Pumped storage is also undergoing a conceptual transformation. Rivers and dams are no more required. Sea water can be used as pumped storage media in novel approaches and “swinging door algorithm” pumped storage becomes a big battery analog for wind farm energy storage. Even an exhausted mine can be used as lower reservoir, if you can find a small water pond at a higher elevation nearby. There are many such novel systems that would revolutionize the energy storage spectrum and need immediate focus and practical green field pilots.

It was agreed in the Committee that a new group for “Energy Storage” would be created in NIWE, reflecting it as an essential ground-breaking component in the 10-Year R&D Vision Plan.

There is no future for Wind Energy Sector (and so also the SPV) without “Energy Storage”. Its importance is more than the “Solar-PV Hybrid” which can only expand the electricity supply period in a day to an extent, not necessarily matching with the Grid demand. It may however facilitate more land space for PV.

With “Energy Storage” component, the load demand can be met much better, right from cyclic stability to daily demand pattern to even seasonal demands. Without Energy Storage component Wind Energy & SPV can never be accepted as viable options for energy supply due to their intermittent nature. The cost of energy storage system has to reflect in the peaking tariff of energy supply. Higher absorption of renewable energy round the clock on the other hand may reduce its cost of supply.

There are four basic options in Energy Storage:

  1. Mechanical→Pumped Storage (Seasonal balance), Compressed Air (Daily stability), Flywheel (cyclic stability)
  2. Chemical→Batteries, Hydrogen (Electrolysers), Fuel cells
  3. Electrical→Double Layer Capacitor, Superconducting Magnetic Coil
  4. Thermal→Heat Storage (Molten Salt), for stability in heating systems or re-conversion in to electricity

The above options may suit different sets of wind farms & SPV stations and their connecting sub-stations to supply 24×7 and more specifically as per grid demand and the environment around.

I hope, all concerned wake up to the urgent need of Energy Storage in our country!

Satyamev Jayate !!!

Best wishes and Regards,

Dr. B.S.K.Naidu

BE(Hons), M.Tech., Ph.D., CBI-Scholar, D.Engg. (Calif.), FNAE, Hon.D.WRE (USA)
Chairman Emeritus, Great Lakes, Gurgaon, NCR, New Delhi, INDIA
Former Director General (NPTI & CPRI / REL), Ex. Director (REC) / Executive Director (IREDA)

No job is small or big, the way in which you do, makes it small or big (c)

Chairman Emeritus Reconnect 32 – “Energy Security”

My dear friends,

Energy is humanity’s need after air, water, food and shelter. As a matter of fact, energy is required even to supply clean water,process and cook food and create shelter. Hence it becomes a basic need of human beings. Energy Security means safety and protection of energy availability to all at all times. Utilizable energy potential is limited on earth while its requirement would go up with the growing population. Energy access in its environmentally benign form is an essential part of energy security.

Energy security in Global context

Non-renewable energy dominates the world consumption today at 81%. Renewable energy supplies 19% of global energy consumption counting traditional biomass, large hydropower, and “new” renewables (small hydro, modern biomass, wind, solar, geothermal, and bio-fuels). Of this traditional biomass, used primarily for cooking and heating, accounts for approximately 13%.Hydropower represents 3.2%. Other renewables account for 2.8%.

According to one estimate, with the present rate of consumption, world is left with approx. 200 years of coal, 75 years of nuclear fuel, 50 years of gas and 25 years of oil respectively.

World energy-related carbon dioxide emissions are of the order of 33 billion metric tons. Fossil fuel plants (≃ 50,000) are largely accountable for carbon emissions contributing to nearly 60% of global warming. Sulphur content in coal causes acid rain which spoils the crops. Natural gas is less carbon-intensive than other fossil fuels. Worldwide smoke from biomass burning causes 1.3 million deaths besides 1.6 million from associated tuberculosis every year. Nuclear energy, though carbon free, has a risk of accidents causing radioactive hazards. Nuclear accidents from Three Mile Island in the United States (1979), the Chernobyl disaster in the USSR (1986) to the Fukushima nuclear disaster in Japan (2011) are compelling advanced nations like US, Australia, New Zeeland, Japan, Sweden and Germany to phase out their nuclear plants in favor of natural gas and renewable energy.


While sun is the infinite source of energy (reflected in several indirect forms also like hydrological cycle, wind, biomass etc.) its utilizable potential is finite on our planet on one hand and fossil fuels have a limited stock on the other. Renewable sources are seasonal & intermittent in nature and therefore need energy storage complements. This throws a challenge for a global vision on securing energy in a sustainable manner for present and future generations. For electricity component of energy the present and future scene appear as in the table above.

Energy security in National context

In Indian context, the utilizable potentials are: Solar-5×1015 kWh/yr., Hydro-300,000 (150,000 Conventional + 90,000 Pumped Storage + 10,000 Tidal + 20,000 Small Hydro + 30,000 Interlinking of Rivers) MW, Wind-231,000 MW including offshore, Biomass- 20,000 MW, Coal-250 billion tonnes, Coal Bed Methane-20,000 MW, Oil-125 Million metric tonnes, Natural Gas- 1,437 billion cubic metres, Shale gas-600 to 2000 Tcf, Uranium-49,000 tonnes, Thorium-846,477 tonnes, Geo-thermal-10,600 MW, Ocean thermal-50,000 MW, Sea wave power-20,000 MW, Energy from Waste-3000 MW and Energy Saving potential-25,000 MW.

When it comes to a national strategy, dependence on imports will have to be minimized in favor of indigenous renewable sources.Rest is techno-economic feasibility. India is responsible for 5.3% of world CO2 emissions. She is importing thermal coal from Indonesia and South Africa. Several nuclear accidents have occurred in India costing 910 million US$ for repairs besides long shutdowns and radioactive releases affecting thousands of people. For India’s energy security, dependence on import of technology and fuel (uranium) adds another negative dimension. Indian mining operations are inadequate both for Biotic and Abiotic resources.

Indian Electricity Sector

Electricity is the environmentally cleanest form of energy at user’s end and is therefore sought after to the largest extent. Barring furnaces, boilers, cooking gas and biomass, solar thermal and transportation sector, almost everywhere it is electricity.


India generates 1,100 BU of electricity in a year out of 21,000 BU in the world, being 3rd largest producer after China and United States. Yet out of 1.25 billion, 400 million Indian citizens have no access to electricity. Per capita consumption in India is 917 kWh against worldwide per capita annual average of 2,600 kWh.Expected growth, resource mix etc. by 2050 are shown in the table above.

Renewable Energy (RE) for “Energy Security”

Per capita consumption of energy is growing continuously in India. Present electricity deficit being around 10%. Nuclear, thermal (coal), oil and gas power plants partly depend on imports for their fuel. National energy security can come from indigenous and everlasting sources like Hydro and other renewables viz. Wind and Solar. Hydro has always been cheaper than other options and Wind and Solar are reaching grid parity. Wind tariffs are already comparable to tariffs related to imported coal. It would be desirable to change the projected Non-RE : RE Mix in favor of renewable energy in a foreseeable future.

Energy security of a nation does not merely mean fulfilling the needs of all by imports of non-renewable sources like coal, oil, gas and uranium but to consistently removing dependence on such fuels and developing indigenous renewable sources such as hydro, wind and solar. This has key to global energy security also. Low carbon pathways will mitigate global warming and climate change.

Satyamev Jayate !!!

Best wishes and Regards,

Dr. B.S.K.Naidu

BE(Hons),M.Tech.,CBI-Scholar,Ph.D.,D.Engg.,FNAE,Hon.D.WRE (USA)
Chairman Emeritus, Great Lakes, Gurgaon,
Former Director General (NPTI & CPRI, Govt. of India and REL), Director – REC

No job is small or big, the way in which you do, makes it small or big (c)

Chairman Emeritus Reconnect 31 – “Windfall of Energy”

Of all the forces of nature, I should think the WIND contains the greatest amount of power.” – Abraham Lincoln

The total global wind power capacity reaching 321,559 MW (more than India’s total installed capacity from all sources) is providing evidence to his imagination. Solar Radiation reaches earth unevenly (Equatorial vis-à-vis Polar Regions) creating temperature,density and pressure differentials in the air. Earth’s rotation drives the atmosphericEngine causing global Convective circulation of wind which has tremendous amount of power. Documented World Wind Potential is close to 100 million MW – actual potential is even higher, according to World Wind Energy Association.

Indian Wind Potential and Development Status

India is placed 5th on the Wind Power World Map, after China, USA, Germany, and Spain. India’s installed capacity is 22,000 MW; Tamil Nadu leading other states like Maharashtra, Gujarat, Rajasthan and Karnataka. India’s wind power potential was estimated by MNRE as 48,000 MW at 30 m height. C-WET placed it as 102,788 MW at 80 m height. According to a study by the Global World Energy Council conducted in partnership with the Indian Wind Turbine Manufacturers Association, wind energy capacity can be as much as 231,000 MW in India including offshore wind. There are more powerful and reliable winds above 300 m. Multi sets of rotor blades, high tower heights etc. can lead to higher energy capture.

“Make in India” Status of Wind Energy Plants

State-of-the-art technologies are now available in the country for manufacture of wind turbines. All the major global players have their presence in the country. The unit size of machines has gone up from 250 kW to 2.50 MW and tower height has gone up from 30 m to 120 m. There are 19 manufacturers in the country with an annual production capacity of 10,000 MW (2nd largest in the world after China). Wind turbines and their components are being exported to Europe, US, Australia, Brazil and other Asian countries, earning USD 500 million annually. Govt. of India has established National Institute of Wind Energy (earlier C-WET) at Chennai with 1) Wind Resource Assessment Unit 2) Wind Turbine Testing Unit 3) R&D Unit 4) Standards and Certification Unit and 5) Information, Training and Commercial Services Unit. Wind project cost in India is one of the lowest in the world.

Renewable Energy (RE) for “Energy Security”

2Per capita consumption of energy is growing continuously in India. Present electricity deficit being around 10%; nuclear, thermal (partly), oil & gas plants depending on imports for their fuel, national energy security can come from indigenous and everlasting sources like Hydro and other renewables viz. Wind and Solar. Hydro has always been cheaper than other options and Wind and Solar are reaching grid parity. Wind tariffs are already comparable to tariffs related to imported coal.

Environmental & Social Benefits

Avoidance/ offset of Fossil fuel generation by RE sources like Wind can reduce carbon emission and mitigate climate change impacts. India is committed to reduce emission intensity of its GDP by 20-25% over the 2005 levels by 2020. Meeting this target would mean saving of 500 m tonnes of CO2 emissions per annum. Present installed capacity of RE saves 55 m tonnes of CO2 per annum. Wind Industry in India has so far provided direct employment to 100,000 and indirect employment to 1000,000 people mostly in rural and semi-urban areas.

Consistent Policy Support to achieve National Action Plan for Climate Change (NAPCC) targets

Since wind power is mostly private sector driven in India (80-90% investments being from private sector) it deserves a consistent policy support from the Government in order to achieve NAPCC targets (capacity addition of >7,000 MW per annum) without any burden on the national exchequer. Besides RPO/ REC, FIT and other tax benefits like Income Tax holiday, concessions in Indirect Tax; Accelerated Depreciation (AD) and Generation based Incentive (GBI)-mutually exclusive, should be continued without any reversals in order to attract Companies with good balance sheets and Independent Power Producers (IPPs) to wind sector.

Capacity Utilization Factor (CUF) and Penetration Level

Annual average Capacity Utilization Factor (CUF) of Wind Energy plants in India is 18.33% (against that of 17.5% in Germany).However, 19%-22% has been recorded in India during last 5-years. Such CUF is because of seasonal and cyclic variation of wind.The efficiency of wind turbine is also low because of energy extraction from thin air in the open space unlike closed conduit flow of a denser medium in case of Hydro. Wind energy penetration level in the Grid is about 4% in India and so also worldwide.

Tower Height matching with Power Law Index of the Tropics

By the time India installed around 1500 MW of wind farms, it was realized that their capacity utilization was very low. This led to a conclusion that India was not a country of very high wind regime. But near the tropics, our country seemed to have “favorable wind velocities” at higher height from the ground. Power Law Index in the windy states was found very favorable which meant that energy capture at higher heights would more than compensate for the extra cost on higher tower and its deeper foundation. Tower heights were consequently increased to 50 m and then up to 120 m for MW size machines.

Wind Energy Integration with the Grid–Forecasting & Scheduling

Grid demand for electricity is a function of time; increasing in morning and evening and reducing during nights. On the other hand wind energy is susceptible to seasonality and time-of-the-day variations. Need of the hour is to ensure connectivity of Bulk power producing large wind farms with Meteorological centers’ forecasting system so that their production can be predicted to the connected load dispatch Center to help system operators in scheduling. This is critical in the states like Tamil Nadu where wind power share has crossed an amazing 33% level.

Hybrid Spinning Reserve or Energy Storage for enabling higher penetration of wind energy in to the Grid

Variable wind and intermittent solar energy cannot penetrate optimally in the absence of a suitable hybrid RE spinning reserve or energy storage back-up; nor can it provide stable power to the grid matching with the time variant demand. Biofuel based generation and small hydro provide suitable alternatives for spinning reserve. Various energy storage technologies such as Pumped Hydro, Compressed Air, and Thermal Energy Storage are available. For capacity addition of 20,000 MW from Solar and 35,000 MW from Wind by 2020; country would need Energy Storage of 5,000 MW.

Power Evacuation Infrastructure and Last Mile connectivity

Access to electricity remains a dream for more than half the households in India. Though we have a National Grid, it needs to be expanded for last mile connectivity to the small power producers and consumers. Till such time RE can be developed in “Distributed Generation” mode. While feeding power to the centralized system, 220 kV EHV lines are drawn by the wind farm developers. However, unless the upstream strengthening is taken up, generation back down is inevitable. Thousands of MUs were reported to have been lost in Tamil Nadu for inadequacy of evacuation facility.

Green Energy Corridor

Based on projected RE capacity addition (>40,000 MW) in 7-potentially RE rich states viz. Tamil Nadu, Karnataka, Andhra Pradesh,Gujarat, Maharashtra, Rajasthan and Himachal Pradesh, PGCIL produced a blueprint of “Green Energy Corridor” in 2012 covering Intra/ Inter State transmission system strengthening with an estimated investment of Rs 43,000 Cr. , on the advice of CERC/ MNRE. Wind energy should be allowed to be transmitted across the country similar to Solar.

Wind-Solar Hybrid Systems

Since the wind blows in the night and sun shines in the day, Solar becomes a good choice for hybriding on a daily basis. In some cases wind being limited to 4-5 months, wind farms can be solarized to effectively make use of the land and power evacuation infrastructure with 300 days of sun shine. Hybrid systems are possible on small scale as well as MW scale with appropriate system integrators.

Repowering/ Up-gradation of Old wind turbine Sites

Re-powering the old sites having 250 kW and 500 kW machines by retrofitting modern windmills with higher output and higher tower heights would be desirable. A National Plan on Re-powering Old Sites needs to be prepared and implemented. A policy also needs to be announced by MNRE. This has advantage of capacity addition without any hassles of land acquisition and forest clearance etc. However, economics of retrofitting needs to be ascertained including pay-back of old machines.

Offshore Wind

In the past 23 years, 7045 MW has been installed offshore worldwide with individual turbine capacity increasing from 450 kW to 7-8 MW, costs coming down by 30% per decade and wind farms moving up to 100 kM inside the sea from the shore. India has 7,000 kilometers of coastline. Facilitating Offshore Wind in India (FOWIND) backed by a € 4m under the Indo-European Cooperation on RE program is aiming at resource mapping, assessing infrastructure base, policy guidance & capacity building. India is set to introduce an offshore wind policy targeting 1,000 MW by 2020.

In order to leap frog to the next level of generation, a National mission on Wind Energy similar to Jawaharlal Nehru National Solar Mission (JNNSM) needs to be propelled across the nation addressing also the issue of Wind-Solar Hybrid Systems to optimize land use and power evacuation systems, besides developing green power out of thin air.

May each day of the New Year Bring Windfall of happiness, wisdom and cheer to you all ! Happy New Year-2015!

Satyamev Jayate !!!

Best wishes and Regards,

Dr. B.S.K.Naidu

BE(Hons),M.Tech.,CBI-Scholar,Ph.D.,D.Engg.,FNAE,Hon.D.WRE (USA)
Chairman Emeritus, Great Lakes, Gurgaon,
Former Director General (NPTI & CPRI, Govt. of India and REL), Director – REC

No job is small or big, the way in which you do, makes it small or big (c)

Chairman Emeritus Reconnect 17 – Mindset Issues of Electricity Sector

My dear young friends,

Once a non-technical colleague of mine in NHPC asked me an innocent question. He said “if I switch off the bulb during my lunch time, how does it help? The electricity has already been generated and traveled to my doorstep. Can it be degenerated? How does it save the resource-water or coal responsible for generation?” I realized that day that electricity is an extremely complex product being utilized by common man. Neither its technicalities nor its economics are easy to understand by the consumers and other stakeholders.

There is a notion in public mind that solar electricity is expensive. Yes, if you think of a 50 MW plant supplying to a city but if you think of a 50 KW plant supplying to a small village it breaks even with other sources like gas/diesel. And if you talk about a 50 W installation for a hut, it works out to be the cheapest version. Therefore Solar is expensive for the rich but most economical for the poor. 

As Director (Technical) REC, once I was addressing a meeting of Chairmen, SEBs. I was questioning and criticizing them for locating electrical sub-stations non-optimally. After listening to me for a while, Chairman of one of the largest Electricity Boards stood up and said “We don’t decide the location of the sub-stations. Each 33 KV sub-station is decided by the local MLA and 132 KV sub-station by the local MP”. Imagine more than Rs 60,000 Cr. is being pumped into the Indian grid system from the central Govt. under APDRP & R-APDRP programs for rectifying and re-configuring the network to reduce the ill effects of sub-stations located off the load centers.

Once I was sitting with the MD of West Bengal Power Development Corporation during evening time. Looking at the ‘Frequency Watch’ in his office, I told him how lucky he was to have frequency very close to 50 Hz. He said “Please wait for an hour or so, you will see a rising surge in this frequency as soon as NTPC’s Super Thermal Plants start pumping power with no sensitivity to grid frequency, since they have to bag Gold Medals for their high PLF. My small generators cannot withstand that high frequency and break down due to higher centrifugal forces on the LP side.” They get the Gold Medals and we incur huge losses, he said.

Once I visited the control room of Scandinavian Power Pool (100,000 MW) in Stockholm.  I observed a typical wall clock there with a single arm, hardly having moved from its zero position. On enquiry I came to know that it was showing the guilt accumulated in last 24-hours of frequency supply variation. In our country we don’t have guilt watches or “Guilt” itself. In the rural end of supply the voltage levels being alarmingly low, the agricultural pump-sets draw higher current and in the process get burnt up, incurring huge expenditure on their repairs.

What we see in India today is insensitivity towards customers/ consumers of electricity. Once we were conducting a program on “Six sigma for power distribution” in a large Power Distribution Company. At the end of the Program, head of a distribution zone shot a question. “Why six sigma in power distribution?” Though it is a quality tool by which we can analyze a pain area of our business and improve upon it to make more profit, he said. He went on further to say why should his company make more profit when Govt. regulations mandate only 16% return on investment by the company.

I was stunned. I asked him what stops him from making more profit and passing it on to the customer. “Customer was not only out of focus but was out of sight”. For instance in Delhi the two private sector companies claim to have reduced the AT&C losses (including theft) from nearly 50% to 15%. If this benefit is passed on to the customers, their energy bills are bound to reduce.

A shocking question was posed to me on another occasion after concluding a Program on “Energy Conservation” for a Power Distribution Company again. “Why should we promote energy conservation, when we are in energy supply business? Let the consumers waste energy. Every extra unit we supply, we have a profit margin in it. An interesting question emerging out of perceptional perversion and lack of values and consciousness…..!

I had to make an effort answering the above question. I said firstly there should be no worry as a hardcore businessman, as for any unit saved there is a queue waiting for new connections which is a profit making proposition. The argument fitted well in the conversant 1st orbit of intellectual logic. Secondly I asked them whether they would like to supply energy in energy surplus/ wasting area or energy starved area? I gave them an example. In Hawaii sugar industries at the receptions, one is offered sugar as well as sugar-free crystals along with the tea. Once I asked them as to why they offer ‘sugar-free’ as sugar producers, their reply was “we don’t produce sugar for sugar-surplus people”. Similarly as responsible energy producers and suppliers good businessmen should have a clear preference for energy-starved area vis-a-vis energy-surplus or energy-wasting area. This was the 2nd orbit of emotional intelligence.

Finally taking them to the 3rd orbit of social and spiritual consciousness, I said that after 10 years, even if the supply equals demand, for every unit saved there will be a saving of 1 kg of coal (conserving it for the future generations); 1 kg of CO2, 0.4 kg of ash, 6 gm of Nitrous Oxide and 1 gm of Sulphur-di-oxide (causing pollution for the present generation) !!

There is so much of hype about “Smart Grid” but no one knows where it exists in India. If every Circle/ City distribution could have just declared its peak hours and the differential tariff, displaying it on the internet and insisted for a timer in the consumers’ meters; the load curves would have flattened meeting the first and foremost obligation of a Smart Grid. What is perhaps required is implementation mindset !

Wish you all a very happy and enlightening Diwali!

Satyamev Jayate !!!

Best wishes and Regards,

Dr. B.S.K.Naidu

M.Tech., Ph.D., CBI Scholar, D.Engg.(Calif), FNAE
Hon.D.WRE (ranked amongst 30-most eminent scientists in the world)
Chairman Emeritus, Great Lakes, Gurgaon, NCR, New Delhi, INDIA
Former Director General (NPTI & CPRI / REL), Ex-Director (REC)/ Executive Director (IREDA)

No job is small or big, the way in which you do, makes it small or big (c)