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Feasibility and Efficiency of Renewable Energy Habitat

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Page 1: Feasibility and Efficiency of Renewable Energy Habitat
Page 2: Feasibility and Efficiency of Renewable Energy Habitat
Page 3: Feasibility and Efficiency of Renewable Energy Habitat

Solar PV = The ability to produce energy, anytime

and almost anywhere

Wind

Geothermal

Solar Thermal Thermal

Tidal

Nuclear

Biomass

Page 4: Feasibility and Efficiency of Renewable Energy Habitat

Index

The Landscape

Perceptions on Feasibility

The Applications

The Challenges

Breaking the Shackles

About Us

Takeaways

Page 5: Feasibility and Efficiency of Renewable Energy Habitat
Page 6: Feasibility and Efficiency of Renewable Energy Habitat

The Landscape

Page 7: Feasibility and Efficiency of Renewable Energy Habitat

The Landscape

Total generation capacity cumulative: 288GW

Per capita electricity generation of 1010kWh.

Per capita consumption of power is approx. 750kWh.

300 million still without electricity.

Cities consume approx. 20-25% of the power.

With tepid industrial growth and a soft market, how do we become smarter,

how do we connect the unconnected?

Page 8: Feasibility and Efficiency of Renewable Energy Habitat

Perceptions on Feasibility

Page 9: Feasibility and Efficiency of Renewable Energy Habitat

Returns and the notion of Feasibility

Let‟s assume you have invested Rs 1 crore in a flat in Mumbai in 2015. If

you could travel to 2065 and find your grandchild selling it for Rs 117

crore, will you think that you‟ve made a great investment?

Courtesy: http://forbesindia.com/article/investment-guide-2015/return-is-king-in-real-estate/

The actual return on this investment is just 10 percent per annum, and even that

is prior to the payment of capital gains tax.

Page 10: Feasibility and Efficiency of Renewable Energy Habitat

Returns and the notion of Feasibility

Stock markets

Dow Jones: 10.4% (1990-2009)

Real Estate

India: 14-15% (2000-2015)

Industries (Net profit)

US: 7%-13% (2015)

Tax-free Bonds

India: 7-9%

Gold: 6: 5-7% (1990-2016)

Page 11: Feasibility and Efficiency of Renewable Energy Habitat

The Applications

Page 12: Feasibility and Efficiency of Renewable Energy Habitat

Applications with Breakout Potential

Solar Water Pumps (SWP)

Solar Rooftops

Solar Microgrids

Solar on Wastelands

Page 13: Feasibility and Efficiency of Renewable Energy Habitat

Private & Confidential

SWP: A boon for India

India is the largest groundwater user in the world. Potential to measure water

consumption.

Urban pumping requirements are huge today.

Consider the bills being paid by societies and complexes for pumping from the

ground and distribution of water.

Life of 25 years, with pump replacement required.

Diesel prices are increasing

day by day

Polluting nature of Diesel

Pump

Ever-increasing Tariffs, T&D

installation and opex costs

Page 14: Feasibility and Efficiency of Renewable Energy Habitat

Private & Confidential

The Economic Case for SWP’s without Subsidies

Consider a case of a 3HP pump being used in a residential complex.

If it runs for 10 hours a day, it uses about 36-38 units of power.

This is equivalent to 13140 units of power per year.

Hence, at Rs. 8.5/kWh, the annual bills for pumping only are Rs. 1,11,690.

A 3HP Solar Pump costs Rs. 2,95,000.

An IRR in excess of 33%, after considering all expenses.

Approx. 2 years

Approx. 3.2 years

Approx. 4.8 years

Page 15: Feasibility and Efficiency of Renewable Energy Habitat

Private & Confidential

Solar Rooftops for Urban India

Solar PV Rooftops are possible on all kinds

of roofs.

Ideal for placement on residential,

commercial or industrial.

Dead load in range of 16-25 khgs/Sq. Mtr.

Life of 25 years.

Low-maintenance with cleaning of panels required.

Page 16: Feasibility and Efficiency of Renewable Energy Habitat

Private & Confidential

The Economic Case for Solar Rooftops

Consider a case of a commercial complex with a 30kW Solar Rooftop

If generates approximately, 120 units per day, considering seasonal changes.

This is equivalent to 43,800 units of power per year.

Hence, at savings of Rs. 8/kWh, the annual bills saved are Rs. 3,50,400.

A 30kW Solar Plant will cost about Rs. 20 lakhs.

An IRR in excess of 14%, after considering all expenses. Remember gold?

Approx. 2 years

Approx. 3.2 years

Approx. 4.8 years

Page 17: Feasibility and Efficiency of Renewable Energy Habitat

Solar Microgrids

300 mn+ people without access to electricity

Smart AC microgrids with 24-hour electricity supply. It is cheaper to build

micro-grids than to create and maintain infrastructuure.

Tamper-proof prepaid meters resulting in “Pay-as-you-go” Solar PV.

Theft-proof cabling with complete underground infrastructure.

Also available: Batteries with 8-9 year life on offer.

Page 18: Feasibility and Efficiency of Renewable Energy Habitat

480kW at Shapur, Junagadh

Page 19: Feasibility and Efficiency of Renewable Energy Habitat

Private & Confidential

Solar on Wastelands

Solar PV requires 3.5-4 acres of land per MWp of installation.

Out of the 3,166 lakh hectares of land area, approximately 15% is

wasteland which comes to 465 lakh hectares.

This can accommodate approximately 32,000GW of solar plants.

Even 5% of the above will generate, 1600GW i.e. 320GW. Our current

capacity for all power sources in country is 288GW.

Clearly, a closer look at wastelands can provide the solar sector with

optimal land for use.

Page 20: Feasibility and Efficiency of Renewable Energy Habitat

Private & Confidential

The Economic Case for Solar on Wastelands

Consider a case of a 5 MWp Grount-mount Solar Plant.

It will generate about 22000 units of power daily considering seasonal variations.

Its CAPEX including land (wasteland) would be Rs. 30 crore.

The term loan of 10 years on 70% needs to be considered at 12% Interest.

Given the above, and considering following:

Life of 15-years

Total generation = 12,00,00,000 (12 crore units)

CAPEX = Rs. 30,00,00,000 (30 crores)

O&M = Rs. 2,50,00,000 (2.5 crores)

Interest = Rs. 16,00,00,000 (16 crores)

Equity contribution is recovered within first year due to tax savings.

Lifecycle Cost of Energy Produced for Solar PV would be less than Rs. 4/unit.

Approx. 2 years

Approx. 3.2 years

Approx. 4.8 years

Page 21: Feasibility and Efficiency of Renewable Energy Habitat

Breaking the Shackles

Page 22: Feasibility and Efficiency of Renewable Energy Habitat

Private & Confidential

Breaking the Shackles

Help common man by making processes easy. France has made it mandatory.

Emphasis on long-term and not short-term in investor mindset.

Remove subsidies, allow market modes to flourish. Adopt Interest Subvention or T&D Bonds

for raising money.

SWP‟s and off-grid applications such as Microgrids will become a reality.

Conduct an in-depth study of Lifecycle Costs of Coal, Diesel and Solar PV. Include all

environmental, health and economic costs.

Create a Carbon Replacement Fund. Incentivise „carbon reduction‟.

Financiers should look at applications like SWP‟ as they see tractors.

Page 23: Feasibility and Efficiency of Renewable Energy Habitat

About Us

Page 24: Feasibility and Efficiency of Renewable Energy Habitat

Company Introduction

Shashwat Cleantech Pvt. Ltd. (formerly known as Shashwat Green Fuels & Technologies (I) Pvt.

Ltd), is a clean technology company founded in 2009, based in Ahmedabad, Gujarat.

We believe that the use of resources will only be

made more efficient, if clean technologies are made mainstream.

Vision: A holistic planet built on the minimal usage of fossil

fuels

Mission: To commercialize clean technology solutions in

energy and water

Page 25: Feasibility and Efficiency of Renewable Energy Habitat

Private & Confidential

Solar Energy Projects

Solar Energy Products

Efficient Lighting Products

Customized Lighting Projects

Waste Efficiency Projects

Manufacturing & Distribution

Solar Lighting Systems

Solar Pumps

Solar Fencing

Customized Solar Packs

Engineering, Procurement &

Construction

Waste to Energy Projects

What do we do?

Engineering, Procurement &

Construction

Rooftop Solar PV

Ground-mount Solar PV

Manufacturing & Distribution

LED Indoor Lighting

LED Outdoor Lighting

Engineering, Procurement &

Construction

LED Lighting Projects

Page 26: Feasibility and Efficiency of Renewable Energy Habitat

Why us?

Quickest to reach 70MWp in Solar PV Project Services.

India‟s first Solar PV based village.

World‟s first Solar Pump-based Microgrid.

India‟s largest residential rooftop.

First company in India to have installed more than 100kW on pre-engineered buildings using

specially fabricated mounting structures.

The highest solar photovoltaic project at a height of 300 feet from ground has been installed

by us.

Only EPC company in India to have installed a MW-scale plant within 19 days.

All systems installed by us are PID-free.

Page 27: Feasibility and Efficiency of Renewable Energy Habitat

A thought

Even the volume of C02 generated by a sparsely populated country such as

Australia beggars belief.

Imagine a pile of 200 litre drums, ten kilometres long and 5 kilometres across.,

stacked 10 drums high. That would be 1.3 billion drums, the number required to

hold the CO2 that pours out of Australia’s power stations everyday.

And Australia accounts for less than 2 percent of global emissions.

Hence, imagine a pile of drums, 250 kilometres across and 500 kms long. Every

day!

- Michael Flannery, The Weather Makers

Carbon stays in the atmosphere for a 100 years.

Page 28: Feasibility and Efficiency of Renewable Energy Habitat

Website: www.shashwatcleantech.com

Email: [email protected]