Sustainable Energy Report: CSP Technology in India

This report provides an in-depth analysis of Concentrating Solar Power (CSP) technology in India, examining its current state, technological advancements, and potential impact on the country's energy systems. It explores the different types of CSP technologies, including parabolic trough, power tower, and dish Stirling systems, detailing their working mechanisms, advantages, and disadvantages. The report highlights India's commitment to sustainable energy goals, the potential of CSP given its geographical and climatic characteristics, and the progress made in implementing CSP plants. It also discusses the barriers and opportunities associated with CSP energy in India, including economic, technological, and environmental considerations, providing a comprehensive overview of the challenges and prospects for CSP's role in India's energy future.

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SUSTAINABLE ENERGY
By Name
Course
Instructor
Institution
Location
Date

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Executive Summary
India is committed to achieving the goals of sustainable energy as agreed by the international
forums. Concentrating Solar Power technology is based on focused sunlight in which power is
generated by CSP plants by using mirrors that concentrate or focus the energy from the sun and
change it into a heat of very high temperature. CSP is one of the most promising in India for the
days to come following the upsurge in the amount of electricity produced by concentrated solar
power in India every year. India has huge potential for solar power for the generation of solar
electricity per watt that is built following its geographical and climatic characteristics. Only 52.5
MW of the 470 MW CSP plants are operational in India showing a chunk of the task that needs
to be done. Various challenges and hurdles are attributed to this poor score.

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Contents
Executive Summary............................................................................................................................................... 2
Introduction.............................................................................................................................................................. 4
The current state of CSP technology in India.............................................................................................. 4
Concentrating Solar Power............................................................................................................................ 5
Concentrated Solar Power Plants in India............................................................................................... 9
Technological developments now and the future..................................................................................13
Impacts of Concentrating Solar Power on Energy Systems in India...............................................16
Barriers and Opportunities to Concentrating Solar Power Energy in India................................18
Conclusion and View.......................................................................................................................................... 19
References............................................................................................................................................................... 21

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CONCENTRATING SOLAR POWER IN INDIA
Introduction
The sun in conjunction with its excess solar energy is used in meeting numerous diverse
functions in the daily lives of human beings across the world. Be it air circulation, supporting the
growth of plants or heating of water, the sun and its solar energy of utmost importance. A study
conducted on the technologies and uses of solar energy established that the most common and
prevalent applications of the solar energy are a generation of electricity and heating. Just like
coal, natural gas and petroleum, the sun is cheap and readily a viable source of energy with an
exceptional feature of being renewable and clean. Thin film, photo-voltaic, CPV are some of the
technologies in solar energy render solar power in India least prominent but a very important
contributor of power generation (Sridevi, 2014, p.320).
India, just like any other countries in the world is struggling to meet the sustainable development
goals despite the numerous challenges and obstacles that it finds on its ways to the achievement
of such goals (Thangavel, 2014, p.265). From the abundant reserves of fossils fuels available in
the country, achievement of the sustainable energy foals that have been set out by national and
international agencies remains a major challenge that calls for diverse ranges of options. To
lower its dependence on imported coal as the greatest chunk of India’s primary energy is from
coal, the country is making remarkable progress when it comes to introducing renewable energy
power techniques and facilities.
The current state of CSP technology in India
Various issues among them environmental concerns, scarcity of fuel and availability of site are
the challenges and hurdles that conventional power plants suffer. These problems are overcome

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using alternate technologies which borrow from renewable energy sources such as biomass, wind
and solar. From the numerous options available in solar technology, generation of power through
Concentrating Solar Power, CSP, is one of the most promising in India for the days to come
(Blanco, 2016, p.269). There has been an upsurge in the amount of electricity produced by
concentrated solar power in India every year. This illustrates the commitment of the country
towards attaining sustainable, reliable and affordable energy for its citizens. India has huge
potential for solar power for the generation of solar electricity per watt that is built. This is
attributed to its solar radiation that ranges between 1700 and 1900kW per kilowatt peak. The
potential is also attributed to the numerous clear sky days in the year which is about 300 days.
India has more than enough land that can be used in the implementation of concentrating solar
power technologies (Philibert, 2011, p.237). The land areas are not only in abundance but also
ideal for direct normal radiation levels which are important in making Concentrating Solar
Power an integral contributor to the energy mix of India.
In its efforts to realizing Concentrating Solar Power, India introduced a ley of Rs 50 per ton of
coal that was either produced domestically or imported. The levy was to be used in funding a
National Clean Energy Fund of which Concentrating Solar Power is among them.
Concentrating Solar Power
Concentrating Solar Power revolves around accumulating heat from the rays of the sun to a
specific point on a surface for heating oil, water or any other material that is intended to be
heated. Concentrating Solar Power works by concentrating and focusing the sun rays on a very
small area which would otherwise be spread over a large area. This small area can be composed
of water that is flowing through some pipe or any other fluid is it liquid or gas containers. Due to
its ability to retain heat efficiently and for a long time, molten salt is often considered as the best

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fluid in this technology. The molten salt is able to dissipate heat during the cloudy days while
there is no sun. This heat can then be used in the generation of electricity (Tyagi, 2017, p.170).
Concentrating Solar Power technology is based on focused sunlight. Power is generated by CSP
plants by using mirrors that concentrate or focus the energy from the sun and change it into a
heat of very high temperature. The heat is then passed through a conventional generator. CSP
plants have two parts: the part responsible for collecting solar energy and changing it to heat and
the other part that changes the heat energy to electricity. Any of the CSP technologies
approaches need very large areas for collection of the solar radiation when production of
electricity is to be done on a commercial scale.
The technology of conversion of heat to power is normally applied in power plants that produce
electricity through steam turbines. In these plants, water heated by the heat from solar energy is
changed into steam which is then used in operating a turbine that in turn produces electricity. In
larger power plants, the supply of the heat is supplemented by burning of coal as coal has a high
capability of generating large amounts of heat. Concentrating Solar Power is used instead of coal
so as to lower the harmful impacts of using coal among them air, water and land pollution
(Palenzuela, 2015, p.312).
A mirror used in reflecting light to the point of focus is the main component of Concentrating
Solar Power. India has three main technologies used for Concentrating Solar Power based on the
types of mirrors that have been in the system. The types of technologies include parabolic trough
system power tower system and dish Stirling system.

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Dish Stirling system
Dish Stirling system makes use of mirrors that are of the shape of a bowl or dish and resemble
the satellite TV dishes even though they are normally larger, about ten times larger. These dish
mirrors work by concentrating the rays of the sun to the point of focus that is located at the
epicenter above the surface of the mirror (Blanco, 2016, p.452). At this point of reception, there
is a complex receiver which absorbs all the concentrated energy and drives the Stirling engine
which has gases such as hydrogen or helium. The gases undergo expansion upon receiving
sufficient amount of heat. The expansions results in motion of the engine’s piston just like are
the case with the engine in cars. This movement results in the generation of electricity.
The efficiency of the machine is increased through tracking of the positions of the sun in the sky
by the mirror. This leads to capturing of maximum solar energy that would mean generation of
more electricity (Rather, 2018, p.289). The advantage of Dish Stirling system is that it is
economical in terms of occupation of space being a stand-alone project. Dish Stirling system
provides the highest efficiency of conversion of solar energy to electricity at about 30-32%. It is
sufficiently modulus to lower the numerous complex steps that need to be followed to obtain
electricity. High initial capital and maintenance cost have formed the hurdles to the
implementation and commercial applications of the Sterling engine in India.
Parabolic Trough System
The Parabolic Trough System is made up of a large parabolic focusing mirror that is u-shaped.
The mirror works by reflecting light when sun ray falls on it towards a pipe that is fixed at the
center of the system. The pipe has been blackened to enhance its absorption efficiency. The
concentrated light from the sun in conjunction with the blackened pipes lead to heating of the oil

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inside the pipe to a temperature that can go as high up as 350⁰C. the heated oil which is at high
temperature then flows through a pipe and is used in heating water which then converts to steam
and in effect operate the turbines that are used in generating electricity (Heller, 2017, p.122).
The Parabolic Trough System was the initial technology of concentrated solar power and the first
one to achieve commercial viability hence a lot of information is at disposal as well as skilled
personnel in the manufacture of parabolic trough systems. The Parabolic Trough System is
disadvantageous in terms of space economization and the cost of the parabolic mirrors. The
trough systems need a very large space to be set up. Manufacturing of the parabolic mirrors is a
costly undertaking that most of the investors are shying away from engaging in (Bhaskar, 2013,
p.187).
Power Tower Systems
This system adopts flat mirrors called heliostats which rotate as the position of the sun changes
in the sky. The rotation ensures that as many rays as possible are reflected throughout the day.
The system uses numerous of such mirrors which are placed around a tall tower which acts as the
receiver and has a very big container of fluid such as molten salt that is to be heated. These
mirrors precisely and accurately concentrate the sun rays onto the container which heats up to a
temperature of between 500⁰C and 1000⁰C (Sunderasan, 2014, p.268). Power tower systems
have managed to address some concerns such as cost since the flat mirrors used in these systems
are cheaper than the parabolic mirror that is needed in the parabolic trough systems. The power
towers have also proved to be more efficient in terms of storage of energy. Despite these
advantages, power tower systems require very large and flat areas in order to meet its efficiency
objectives of high power generation.

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Technical specifications of concentrated solar power systems
Parameter Parabolic Trough Power tower Stirling Engine/Dish
Mirror U-shaped Flat Dish-shaped
Object to be heated Pipe A large container Small engine
Point of concentration Center of the mirror Separate high tower Center of the mirror
Temperature achieved 750⁰F 1050⁰F 2000⁰F
Mechanism of
generation of electricity
Heating of oil which in
turn heats water that
generates steam
Heating molten sand that
in turns heats water to
produce steam
Heating gas that
operates electricity
turbine
Main advantage Properly and well-
established technology
Flat mirrors are more
affordable
Require small surfaces
that can be located on
any terrain
Concentrated Solar Power Plants in India
Only 52.5 MW of the available Concentrated Solar Power is operational in India despite the total
number of projects which is seven and has a generation capacity of 470 MW upon completion of
the construction under the first phase of the Jawaharlal Nehru National Solar Mission. The
Jawaharlal Nehru National Solar Mission, launched in 2010, was set up as an ambitious plan to
implement 20 GW solar capacities across India by 2022 (Kohl, 2010, p.333). This mission was
segmented in three phases: the first phase that was to run up to 2013, the second phase running
between 2013 and 2017 and the third and the last phase that was to operate from 2017 to 2022.
The first phase involved the selection of seven proposals on Concentrated Solar Power plants
that cumulatively would generate 470 MW with bids that ranged between Rs 10.49/kWh and Rs
12.24/kWh. The projects were kicked off and were expected to have begun operating by May
2013. The deadline for the commissioning was however extended by months until March 2014

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as a result of delays in the supply of equipment which affected most of these projects (Sridevi,
2014, p.230).
A delay in the supply of the equipment resulted in the extension of the commissioning of most of
these Concentrated Solar Power projects. It is projected that there will be a rapid increase in the
demand for electricity in India in the coming decade following the rapid economic growth being
experienced in the country. This calls for the need to make heavy investments in a bid to increase
its present installed capacity and to foster the stability of its electricity grid. The first
Concentrated Solar Power plant in India was having an installed capacity of 2.5 MW and was
commissioned in 2011 at Bikaner, Rajasthan (Shome, 2015, p.215). This plant was established
by the ACME Group and made use of eSolar power technology in the generation of electricity.
Plans are underway to scale up the plant to 10 MW.
Karnataka state has recently launched a request proposal that would be used in coming up with
up to 130 WM of solar power projects in the state. The bidders are expected by law to apply a
discount to the tariff which has been set at Rs 11.35 /kWh for Concentrated Solar Power. Other
Concentrated Solar Power projects in India include:
 Megha Solar Plant
 Diwakar
 National Solar Thermal Power Facility
 Abhijeet Solar Project
 Dhursar
 KVK Energy Solar Project
 Godawari Solar Project

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 Gujarat Solar One among other projects
The details of each of the plants are discussed below:
Dhursar
This is a project that has been completed and is fully operational. Located in Rajasthan, Dhursar
the Dhursar Solar Project adopts the linear Fresnel reflector type of technology. It covers 340
hectares of land and started generating electricity in 2014. The tariff rate of the project is 11.97
Rs per kWh and is a project of a commercial scale. Rajasthan Sun Technique Energy is the
developer of the solar plant owned by Reliance Power and being constructed by Areva. The
gross and net capacity of the turbine is 125 MW, manufactured by Siemens. Steam Rankine is
the output type of the plant which using wet cooling method in cooling of its engines
(Thangavel, 2014, p.152).
ACME Solar Tower
This is a fully operational project. Located in Rajasthan, Bikaner the ACME Solar Tower adopts
the power tower system type of technology. It covers 12 acres of land and started generating
electricity in 2011. The tariff rate of the project is 12.24 Rs per kWh and is a project of a
commercial scale. ACME Group is the developer as well as the owner of the plant that is being
constructed by ACME Group Chennai. The gross and net capacity of the turbine is 2.5 MW,
manufactured by Siemens. Steam Rankine is the output type of the plant which using wet cooling
method in cooling of its engines. Water/steam is the heat-transfer fluid type used in ACME Solar
Tower.

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Godawari Solar Project
This is a project that is fully operational. Located in Rajasthan, Nokh the Abhijeet Solar Project
adopts the parabolic trough system type of technology. It covers 150 hectares of land and started
generating electricity in 2013. The tariff rate of the project is 12.20 Rs per kWh and is a project
of a commercial scale. Godawari Green Energy Limited is the developer as well as the owner of
the plant that is being constructed by Lauren-Jyoti. The gross and net capacity of the turbine is
50 MW, manufactured by Siemens. Steam Rankine is the output type of the plant which using
wet cooling method in cooling of its engines (Vogel, 2010, p.369). The SCA manufacturer model
of the plant is Euro Trough (ET 150), while the HCE manufacture is the Schott (PTR-70).
Dowtherm A is the heat-transfer fluid type used in Godawari Solar Project.
Megha Solar Project
This is a project that is fully operational. Located in Andhra Pradesh, Anantapur the Megha Solar
Project adopts the parabolic trough system type of technology. It covers large tracks of land and
started generating electricity in November 2014. The tariff rate of the project is 11.31 Rs per
kWh and is a project of a commercial scale. Megha Engineering and Infrastructure is the
developer as well as the owner of the plant that is being constructed by MEIL Green Power. The
gross and net capacity of the turbines is 50 MW, manufactured by Siemens (Rather, 2018,
p.230). Steam Rankine is the output type of the plant which using wet cooling method in cooling
of its engines. The SCA manufacturer model of the plant is Albiasa (AT-150), while the HCE
manufacture is Siemens (UVAC 2010). Xceltherm®MK1 is the heat-transfer fluid type used in
Megha Solar Project.

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National Solar Thermal Power Facility
This is a project that is fully operational. Located in Gurgaon city of India the National Solar
Thermal Power Facility adopts the parabolic trough system type of technology. It covers large
tracks of land and started generating electricity in 2014. The tariff rate of the project is not
defined and is a project of a commercial scale. IIT Bombay is the developer as well as the owner
of the plant that is being constructed by Abengoa Solar. The gross and net capacity of the
turbines is 1 MW, manufactured by Shrijee Structures. Steam Rankine is the output type of the
plant which using wet cooling method in cooling of its engines. The SCA manufacturer model of
the plant is Euro Shrijee Structures, while the HCE manufacture is Schott (PTR 70) (Dixit, 2017,
p.355). Therminol VP-1 is the heat-transfer fluid type used in Gujarat National Solar Thermal
Power Facility Project.
Technological developments now and the future
Gujarat Solar One
This is a project that is still under construction. Located in Gujarat, Kutch the Gujarat Solar One
Project adopts the parabolic trough system type of technology. It covers large tracks of land and
started generating electricity in 2014. The tariff rate of the project is 10.25 Rs per kWh and is a
project of a commercial scale. Cargo Solar Power is the developer as well as the owner of the
plant that is being constructed by Lauren CCL (Palenzuela, 2015, p.368). The gross and net
capacities of the turbines are 28 MW and 25 MW respectively, manufactured by Siemens. Steam
Rankine is the output type of the plant which using wet cooling method in cooling of its engines.
The SCA manufacturer model of the plant is Euro Trough (ET 150), while the HCE manufacture
is Schott (PTR 70). Diphyl is the heat-transfer fluid type used in Gujarat Solar One Project.

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KVK Energy Solar Project
This is a project that is still under construction. Located in Askandra Rajasthan the KVK Energy
Solar Project adopts the parabolic trough system type of technology. It covers large tracks of
land and started generating electricity in March 2013. The tariff rate of the project is 11.2 Rs per
kWh and is a project of a commercial scale. KVK Energy Ventures Ltd is the developer as well
as the owner of the plant that is being constructed by Lanco Solar. The gross and net capacity of
the turbines is 100 MW, manufactured by Siemens. Steam Rankine is the output type of the plant
which using wet cooling method in cooling of its engines. The SCA manufacturer model of the
plant is SENERtrough (SNT0) while the HCE manufacture is Siemens (UVAC 2010). Synthetic
Oil is the heat-transfer fluid type used in KVK Energy Solar Project (Lovegrove, 2018, p.158).
The scope of work for this project is composed of a concentrating solar power plant that operates
on parabolic trough type of technology. It is a 100 MW project located in Askandra, Rajasthan.
Among the specifications of the field in the project include
 290 loops
 Synthetic Oil as the heat transfer fluid type
 SENER trough (SNTO) model of the SCA Manufacturer
 The following specifications define the power block of the project
 Gross turbine capacity of 100 MW
 Net turbine capacity of 100 MW
 SST 700 turbine description
 Wet cooling as the cooling method adopted for the engines
The following specifications define the thermal storage in the project

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 1010 MWh of Molten salt thermal storage description
 Indirect storage types of 2 tanks
 A storage capacity of 4 hours
Dadri ISCC Plant
This is a project that is still under construction. Located in Uttar Pradesh, Dadri the Dadri ISCC
Plant adopts the linear Fresnel reflector type of technology and has an electricity generation
capacity of 14000 MW per year. It covers 33000 m2 of solar field aperture area and started
generating electricity in 2017. The tariff rate of the project is 12.24 Rs per kWh and is a project
of a commercial scale. Frenell is the developer of the plant that is owned by NTCP and being
constructed by Thermax (Kohl, 2010, p.225). The gross capacity of the turbine is 14 MW,
manufactured by Siemens. Steam Rankine is the output type of the plant which using wet cooling
method in cooling of its engines.
Abhijeet Solar Project
This is a project that is still under construction. Located in Rajasthan, Phalodi the Abhijeet Solar
Project adopts the parabolic trough system type of technology. It covers 388 acres of land and
started generating electricity in 2015. The tariff rate of the project is 12.24 Rs per kWh and is a
project of a commercial scale. Corporate Ispat Alloys Ltd is the developer as well as the owner
of the plant that is being constructed by Shriram EPC Ltd Chennai (Heller, 2017, p.205). The
gross and net capacity of the turbine is 50 MW, manufactured by Siemens. Steam Rankine is the
output type of the plant which using wet cooling method in cooling of its engines. The
manufacturer mode of the plant is Enter-t International Ltd, while the HCE manufacture is the

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Siemens (UVAC 2010). Therminol VP-1 is the heat-transfer fluid type used in Abhijeet Solar
Project.
Impacts of Concentrating Solar Power on Energy Systems in India
Concentrating Solar Power energy in India is one of the renewable and clean sources of energy
in the country. Through its development, the country does not only add on top of its generation
capacity and thus meeting the demands of the electricity of her citizens but also tend towards
achieving zero carbon emission energy. If properly harnessed Concentrating Solar Power energy
has the capability to meet a significant fraction of the electricity needs of Australia.
Concentrating Solar Power energy offers a source of energy to India that can easily be predicted
and maximized. This forms one of the greatest advantages of Concentrating Solar Power energy
against numerous other alternative sources of energy and hence can be used in estimating the
amount of energy it can generate. The consistency of the Concentrating Solar Power energy
following the numerous sunshine days in India throughout the year has made it a better source of
energy as compared to the other sources which depend on wind and exposure to the sun. In this
light, a more reliable source of energy thus gets its ways into the energy system and
supplementing the already existing sources that are perceived to be reliable as well (Dixit, 2017,
p.230). Most of the strongly perceived reliable sources of energy are fossils which emit carbon
dioxide. By introducing Concentrating Solar Power energy, the fear and anxiety of having a less
reliable and consistent source of energy are eliminated. This then makes it easy to adopt
renewable energy sources and the overall impact on the energy system would be a significant
reduction in the levels of emissions of greenhouse gases.

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Concentrating Solar Power energy also adds to the energy system a source of energy that is in
abundance and widespread availability (Lovegrove, 2018, p.188). This is attributed to the
numerous sunshine days in India throughout the year. There are about 300 days of clear sky and
sunshine in India making harnessing the sun rays very easy using the technologies which turn
relative to the position of the sun. As a result of population growth and rapid migration of people
into the cities, the cities tend to have a high population and these numerous people can have
access to and use electricity generates from the waves using wave energy plants. This reduces
costs that are involved with transportation of electricity from the point of generation to the point
of consumption. Also reduced are the power losses that are normally associated with
transmission of electricity over long distances (Blanco, 2016, p.162).
Concentrating Solar Power energy can be harnessed in using various types of technologies hence
not limiting the harvesters to a single technology line. Currently, Concentrating Solar Power
energy can be harnessed by using methods that range from Stirling Engine System, Parabolic
Trough System to Power Tower Systems. These massive structures are positioned in such a way
that they maximized collection of solar radiation. This means that harvesting of w Concentrating
Solar Power energy is not purely dependent on one technology and hence the failure of a
technology does not lead to total collapse of the generation of electricity through Concentrating
Solar Power energy (Bhaskar, 2013, p.203). This adds more sense to the concept of the reliability
of wave energy as long as the country puts in place an avalanche of technologies aimed at
improving harnessing of the resource.
Still, just like any other renewable sources of energy, Concentrating Solar Power energy adds to
the energy system environmental friendly sources of energy. The energy generated from
Concentrating Solar Power energy is used in the generation of electricity that can serve

Sustainable Energy 18
numerous homes. Coming across a clean energy source in the energy-powered world of today is
a bit of a challenge following the numerous barriers to adoption of clean energy.
Barriers and Opportunities to Concentrating Solar Power Energy in India
Among the opportunities include
India has huge potential for solar power for the generation of solar electricity per watt that is
built. This is attributed to its solar radiation that ranges between 1700 and 1900kW per kilowatt
peak. The potential is also attributed to the numerous clear sky days in the year which is about
300 days (Kulichenko, 2012, p.147).
India has more than enough land that can be used in the implementation of concentrating solar
power technologies. The land areas are not only in abundance but also ideal for direct normal
radiation levels which are important in making Concentrating Solar Power an integral contributor
to the energy mix of India.
On the other hand, the barriers to implementation of CSP in India are among them:
Numerous barriers have been pointed out to be derailing the process of transition to sustainable
energy specifically concentrating solar power in India. Among the barriers include:
Unavailability of solar energy: The availability and reliability of solar radiation are determined
by the weather conditions of a place at a particular time. It is rarely possible to categorically
predict and state that solar will be available at a particular time (Philibert, 2011, p.256).
Unavailability of land: Land remains one of the secret reserves in India. Installation of
concentrating solar power calls for very large areas of land which may at the time not be feasible.

Sustainable Energy 19
Currently, 1 km2 of the area is required for solar power plants of utility-scale for every 20-60
MW production. Still on this point is the low availability of per capita income.
Storage is yet another serious problem experienced in the implementation of Concentrating Solar
Power in India. In cases where the demand for electricity does not go very high, there will be a
need for storage capacities to keep the supply for meeting future demands. This leads to an
increase in the overall cost of the project (Kulichenko, 2012, p.274).
India is aiming at generating 100 GW of solar. This would translate to approximately 10.5% of
the total amount of power generated in India. Attaining such a large share of intermittent sources
calls for very heavy investments by the country in the infrastructure of the power grid in order to
achieve smart supply transmission and management of demand.
Achievement of the projected 60 GW utility-scale projects by 2022, an approximate of $40
billion is needed (Blanco, 2016, p.177). The government of India at the moment relies on
international sources to acquire a large share of this money. The international funding of solar
power in India is relatively low and hence raising this lump sum of money through such channels
appears farfetched.
Conclusion and View
Concentrating Solar Power, CSP, is one of the most promising in India for the days to come.
Through adopting the various types of techniques of Concentrating Solar Power, India is
gravitating towards achieving the sustainable, reliable and affordable energy goals set by the
various national and international agencies. There has been an upsurge in the amount of
electricity produced by concentrated solar power in India every year. This illustrates the
commitment of the country towards attaining sustainable, reliable and affordable energy for its

Sustainable Energy 20
citizens. India has huge potential for solar power for the generation of solar electricity per watt
that is built as attributed to its solar radiation that ranges between 1700 and 1900kW per kilowatt
peak. The potential is also attributed to the numerous clear sky days in the year which is about
300 days.
Cooperation with other countries is one of the surest ways that India can follow in order to
achieve an enhanced rate of sustainable energy development. This cooperation may be in the
form of joint missions in sustainable energy achievements, organizing workshops and events
aimed at imparting knowledge and understanding on the various sustainable energy needs. Still,
through donor funding, the financial burden that comes with these projects can significantly be
reduced making them attractive to investors.

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References
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Heller, P., 2017. The Performance of Concentrated Solar Power (CSP) Systems: Analysis,
Measurement, and Assessment. 5th ed. London: Elsevier Science.
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