|
Forecast Period
|
2027-2031
|
|
Market Size (2025)
|
USD 302 Million
|
|
Market Size (2031)
|
USD 436 Million
|
|
CAGR (2026-2031)
|
6.19%
|
|
Fastest Growing Segment
|
Commercial
|
|
Largest Market
|
South India
|
Market Overview
India Concentrated
Photovoltaic Market was valued at USD 302 Million in 2025 and is expected to reach USD 436 Million by 2031 with a
CAGR of 6.19% during the forecast period.
Concentrated Photovoltaic (CPV) technology refers to a
solar power system that uses lenses or mirrors to focus sunlight onto
high-efficiency solar cells. Unlike traditional flat-panel photovoltaic
systems, CPV concentrates sunlight by several times—often hundreds or even
thousands of times—onto a smaller, highly efficient cell area. This
concentration allows the use of less photovoltaic material, reducing costs
while increasing power output. CPV systems typically incorporate multi-junction
solar cells designed to capture a broader spectrum of sunlight, improving
overall efficiency. These systems require precise tracking mechanisms to follow
the sun’s movement, ensuring maximum light concentration throughout the day.
CPV is especially effective in regions with strong direct sunlight and clear
skies. By combining optical concentration with advanced solar cell technology,
CPV offers a promising solution for large-scale, high-efficiency solar power
generation, contributing to the advancement of renewable energy technologies.
Key Market Drivers
Abundant Solar
Resource Availability in India
India is blessed with abundant solar radiation, making
it one of the most promising markets for concentrated photovoltaic (CPV)
technology. The country receives an average of 5 to 7 kWh/m²/day of solar
insolation, especially in its western and southern regions such as Rajasthan,
Gujarat, and Tamil Nadu. This high intensity of direct sunlight is critical for
CPV systems because they rely on concentrating direct normal irradiance (DNI)
to generate electricity efficiently. Unlike traditional photovoltaic panels
that can also utilize diffuse sunlight, CPV systems need direct sunlight to
focus via lenses or mirrors onto small, highly efficient solar cells.
The geographical advantage offers a compelling case
for deploying CPV, which can generate more power per unit area than
conventional PV systems due to its ability to concentrate sunlight multiple
times over. This efficient use of land is particularly important in India,
where land acquisition can be challenging and costly. CPV's high energy yield
per square meter is therefore a strategic fit for Indian conditions. Moreover,
India’s solar potential aligns with the government’s ambition to rapidly scale
renewable energy capacity. The combination of natural solar advantages with the
rising demand for clean energy makes CPV technology attractive for developers
aiming to maximize energy output while optimizing land and capital expenditure.
The plentiful solar resource not only ensures consistent power generation but
also improves the economic viability and return on investment of CPV projects.
India receives an average solar
insolation of about 5 to 7 kWh/m²/day across most regions, which is ideal for
solar power generation.
Government
Policies and Incentives Supporting Solar Energy
The Indian government plays a pivotal role in
accelerating the adoption of concentrated photovoltaic (CPV) technology through
its proactive renewable energy policies and financial incentives. Over the last
decade, India has set ambitious targets for solar capacity under its National
Solar Mission, part of the National Action Plan on Climate Change, aiming for
100 GW of solar power by 2025. This creates a conducive environment for
emerging solar technologies, including CPV, to gain traction.
The government offers several fiscal incentives, such
as accelerated depreciation benefits, viability gap funding, and subsidies for
solar power developers, reducing the initial capital burden. These financial
supports improve project economics, encouraging investment in advanced solar
technologies that may have higher upfront costs but superior long-term returns
due to efficiency gains.
Various states have introduced their own solar
policies, providing further incentives like exemptions from electricity duty,
concessional land leasing rates, and easier grid connectivity. The Ministry of
New and Renewable Energy (MNRE) actively promotes research and development,
enabling technology providers to refine CPV systems for Indian climatic
conditions and reduce costs.
Public sector utilities and large-scale solar park
initiatives also offer platforms for CPV deployment. By integrating CPV into
competitive bidding processes for solar tenders, the government fosters a
technology-neutral environment that encourages innovation and the use of
high-efficiency systems. Furthermore, India’s commitment to international
climate goals and its participation in global renewable energy partnerships
strengthen the policy framework, enhancing investor confidence. The overall
policy ecosystem helps mitigate risks related to project financing, permitting,
and long-term operations, which are crucial for novel technologies like CPV to
scale. India
aims to achieve 100 GW of solar power capacity by 2025 under the National Solar
Mission, significantly boosting demand for solar technologies including CPV.
Growing Demand for Efficient and Cost-Effective Solar
Solutions
India’s rapid economic growth and rising energy demand
have created a pressing need for efficient, scalable, and cost-effective solar
power solutions. Concentrated photovoltaic (CPV) technology addresses this
demand by delivering higher efficiency compared to conventional solar panels,
thereby generating more electricity from the same land area and solar input.
CPV uses multi-junction solar cells capable of
converting a broader range of sunlight wavelengths into electricity, achieving
efficiencies often exceeding 30%, which is significantly higher than typical
silicon-based photovoltaic modules. This efficiency translates into greater
power output, making CPV attractive for utilities and private investors seeking
to maximize returns in competitive energy markets.
As land availability becomes a constraint in populous
regions, CPV’s ability to generate more power per square meter becomes a key
advantage. This efficiency reduces the spatial footprint of solar
installations, allowing developers to optimize land use and minimize associated
costs such as site acquisition, preparation, and grid interconnection. Additionally,
the reduction in balance-of-system costs, such as cabling and mounting
structures due to smaller module sizes, further improves the economic feasibility
of CPV projects. The technology’s modular nature also supports flexible
deployment, from small commercial installations to large utility-scale power
plants.
India’s increasing focus on lowering the levelized
cost of electricity (LCOE) from renewable sources pushes developers to explore
advanced technologies like CPV. As competition in solar markets intensifies,
technologies offering higher efficiency at competitive costs stand to benefit. Moreover,
CPV’s compatibility with tracking systems allows it to maintain high
performance throughout the day, enhancing capacity utilization factors compared
to fixed-tilt systems. This leads to more reliable and predictable power
generation, which is valuable for grid stability and integration.
Therefore, the growing demand for more efficient,
cost-effective, and space-saving solar solutions in India acts as a strong
driver for the adoption of CPV technology, meeting the country’s energy needs
sustainably while optimizing investment returns. The government aims to achieve 500 GW of
renewable energy capacity by 2030, with solar expected to contribute a
significant portion, highlighting the demand for efficient solar technologies.

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Key Market Challenges
High Initial Capital Costs and Financial Barriers
One of the major challenges
confronting the growth of the concentrated photovoltaic (CPV) market in India
is the relatively high upfront capital investment required. CPV technology
involves sophisticated components such as multi-junction solar cells, precision
optics like Fresnel lenses or mirrors, and advanced dual-axis tracking systems.
These specialized materials and mechanisms are more expensive to manufacture
and install compared to conventional silicon photovoltaic panels.
This higher capital cost can
be a significant barrier for many project developers and investors, especially
in a price-sensitive market like India where initial project costs often weigh
heavily in decision-making. Although CPV offers higher efficiencies and
improved power output per unit area, the cost savings realized over the
system’s lifespan may not be immediately apparent or sufficient to justify the
initial expenditure without strong financial incentives or subsidies. Furthermore,
limited familiarity with CPV technology among local financiers and banks can
create hurdles in securing affordable financing. Many lenders prefer
well-established photovoltaic technologies with proven track records,
perceiving newer technologies like CPV as higher risk. This perception can lead
to higher interest rates, more stringent lending conditions, or outright
reluctance to fund CPV projects, restricting market growth.
The need for precise
installation and ongoing maintenance also adds to project complexity,
potentially increasing operational costs. Tracking systems require regular
calibration and servicing, while the optics must be kept clean and aligned to
ensure optimal performance. In remote or harsh environments common in India,
these operational challenges can escalate costs and reduce system reliability.
To overcome these financial
and technical barriers, increased awareness among investors about the long-term
economic benefits of CPV is essential. Supportive policy measures, including
subsidies, low-interest loans, and risk guarantees, could play a critical role
in lowering investment hurdles. Additionally, developing local manufacturing
capabilities and supply chains can help reduce equipment costs and enhance the
affordability of CPV systems.
Dependence on High Direct Normal Irradiance and
Climatic Limitations
A significant challenge for
concentrated photovoltaic (CPV) deployment in India stems from the technology’s
dependence on high levels of direct normal irradiance (DNI). CPV systems rely
on concentrating sunlight onto small, highly efficient solar cells, and this
process requires direct, unobstructed sunlight. Unlike conventional solar
panels that can generate power from both direct and diffuse sunlight, CPV
performs optimally only under clear sky conditions where sunlight is intense
and direct.
India’s climate varies
widely across regions, with many areas experiencing seasonal monsoons, frequent
cloud cover, dust storms, and high levels of atmospheric pollution. During the
monsoon season, which lasts several months in many parts of the country, solar
insolation is significantly reduced due to cloud cover and rainfall. This
reduction in DNI adversely impacts CPV system efficiency and power output,
limiting the technology’s effectiveness during these periods.
Dust accumulation on the
optical surfaces of CPV systems is another challenge, especially in arid and
semi-arid regions where dust storms are common. Dust can reduce the
transparency of lenses or mirrors, diminishing the amount of sunlight
concentrated on the solar cells and thus lowering energy generation. Frequent
cleaning is required to maintain system performance, which increases
maintenance costs and operational complexity. Additionally, CPV’s reliance on
precise solar tracking to maintain alignment with the sun further complicates
its performance in variable weather conditions. Cloudy or partially overcast
skies disrupt direct sunlight, causing fluctuations in power output and
reducing the system’s capacity factor.
While India’s western and
southern regions receive high DNI, many populous and industrial regions in the
north and east experience lower direct solar radiation, limiting the
geographical scope where CPV is economically viable.
Key Market Trends
Increasing Adoption of Multi-Junction Solar Cells for
Enhanced Efficiency
A significant trend in the India CPV market is the
growing adoption of multi-junction solar cells. These advanced cells are
engineered by stacking multiple semiconductor layers, each designed to capture
different segments of the solar spectrum. This technology enables CPV systems
to achieve efficiencies far beyond traditional silicon solar panels, often
exceeding 30%.
Indian solar developers and researchers are
increasingly focusing on multi-junction cells because they offer a pathway to
maximize power generation in limited land spaces. With land scarcity and rising
real estate costs in India, especially near urban centers, maximizing energy
output per square meter is critical. Multi-junction cells allow CPV plants to
generate more electricity using smaller footprints, aligning with land use
priorities. Moreover, these cells are particularly suitable for India’s strong
direct sunlight conditions, especially in states like Rajasthan, Gujarat, and
Maharashtra. Their superior performance in high solar irradiance environments
makes them attractive for utility-scale installations where efficiency gains
translate directly into financial benefits.
The integration of multi-junction cells also supports
India’s goal to produce cleaner energy more effectively, helping to reduce
dependency on fossil fuels. Although these cells remain costlier than
conventional panels, ongoing technological improvements and economies of scale
are gradually lowering costs, making them more accessible to Indian developers.
Another important aspect of this trend is that Indian
research institutions and startups are increasingly participating in the
development and localization of multi-junction cell technologies. This
strengthens the domestic supply chain, reduces reliance on imports, and helps
tailor these technologies to India’s specific climatic and operational
conditions.
Integration of Dual-Axis Tracking Systems to Maximize
Energy Harvest
A prominent market trend in the India CPV sector is
the widespread adoption of dual-axis solar tracking systems. These tracking
systems enable CPV modules to follow the sun’s movement both horizontally and
vertically, ensuring that the concentrated sunlight remains aligned with the
solar cells throughout the day.
In India, where direct sunlight varies with the
seasons and day length, tracking systems are essential to maintaining high
performance in CPV installations. By continuously adjusting module orientation,
dual-axis trackers maximize direct normal irradiance capture, which is crucial
for CPV since the technology depends on focused sunlight.
The inclusion of trackers significantly boosts the
capacity utilization factor (CUF) of CPV plants, improving energy output by 25%
to 40% compared to fixed-tilt systems. This is especially important in the
Indian market, where maximizing return on investment is critical due to cost
sensitivities. Moreover, advancements in tracking technology have made these
systems more reliable and cost-effective. Modern trackers consume less power
for operation, require lower maintenance, and are built to withstand India’s
diverse weather conditions, from hot deserts to humid coastal areas.
Indian developers are increasingly integrating
tracking systems into CPV projects to meet competitive bidding requirements and
optimize LCOE (levelized cost of electricity). This trend also aligns with
government and utility preferences for higher-performing renewable
installations.
Tracking systems do add mechanical complexity and
require skilled maintenance, which is gradually being addressed through
training and local technical capacity building. Overall, dual-axis tracking
represents a vital trend that enhances CPV competitiveness and viability across
India’s solar market landscape.
Segmental Insights
Product Insights
The Refractors held the largest market share in 2025. Refractors dominated the India Concentrated
Photovoltaic (CPV) market primarily due to their superior optical efficiency,
cost-effectiveness, and practical advantages in the country’s solar
environment. Refractive optics, most commonly in the form of Fresnel lenses,
are widely preferred because they focus sunlight by bending (refracting) it
through a transparent medium, concentrating solar energy onto small, highly
efficient multi-junction solar cells.
One key reason for refractors’ dominance is their
ability to achieve high concentration ratios with minimal optical losses.
Fresnel lenses are designed to be lightweight and compact, which simplifies
installation and reduces structural support requirements. This translates to
lower balance-of-system costs—a critical factor in the cost-sensitive Indian
renewable energy market. In contrast, reflective systems that use mirrors tend
to be heavier, bulkier, and often require more robust mounting frameworks and regular
maintenance to maintain mirror alignment and cleanliness.
India’s climate further favors refractors. The country
experiences high levels of direct normal irradiance (DNI) in many regions,
especially in western and southern states, providing ideal conditions for
refractive CPV systems. Fresnel lenses maintain high optical clarity and
focusing precision under intense sunlight and are less susceptible to dust and
dirt accumulation compared to large mirror arrays, which is important given
India’s dusty and sometimes harsh environmental conditions. Additionally,
manufacturing and supply chains for Fresnel lenses are becoming more
established in India and globally, helping to reduce costs and improve
availability. This supports local production and scalability, aligning with
government initiatives aimed at promoting indigenous manufacturing and reducing
dependence on imports.
Concentration Insights
The High Concentration Photovoltaic held
the largest market share in 2025. High Concentration
Photovoltaic (HCPV) technology dominates the India Concentrated Photovoltaic
(CPV) market primarily due to its ability to deliver superior efficiency and
optimized land use, which align well with India’s solar energy goals and
geographic conditions. HCPV systems concentrate sunlight hundreds to thousands
of times onto small, highly efficient multi-junction solar cells, enabling
significantly higher energy conversion efficiencies compared to traditional
photovoltaic panels. This enhanced efficiency is particularly valuable in
India, where rapid urbanization and industrial growth create intense
competition for land, making space optimization critical.
India benefits from abundant direct normal irradiance
(DNI), especially in regions such as Rajasthan, Gujarat, and Maharashtra, where
clear skies and strong sunlight prevail. HCPV systems are specifically designed
to harness high DNI, maximizing electricity generation during peak sunlight
hours. The ability to generate more power per unit area reduces the land
footprint, addressing one of the key challenges in India’s solar expansion. Moreover,
HCPV technology integrates advanced dual-axis tracking systems to continuously
align with the sun’s position, further boosting energy yield throughout the
day. This feature enhances the capacity utilization factor (CUF) of solar
installations, making HCPV projects more economically viable over their
lifetime.
From a cost perspective, although HCPV systems have
higher initial capital costs due to complex optics and tracking mechanisms,
their superior performance and reduced balance-of-system costs can result in
competitive levelized cost of electricity (LCOE) in the long term.
Additionally, ongoing technological advancements and localized manufacturing
efforts in India are gradually lowering these upfront expenses, improving
market accessibility.

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Regional Insights
South India held the largest market
share in 2025. South India dominated the Concentrated Photovoltaic (CPV) market in
India due to several favorable geographic, climatic, and infrastructural
factors. The region receives consistently high levels of direct normal
irradiance (DNI), which is critical for CPV technology to perform efficiently.
States like Tamil Nadu, Karnataka, Andhra Pradesh, and Telangana benefit from
clear skies and abundant sunlight for most of the year, providing ideal
conditions for CPV systems that rely heavily on direct sunlight to concentrate
solar energy.
The climatic stability in South India, with fewer
prolonged cloudy or rainy days compared to northern and northeastern regions,
ensures that CPV installations can operate at optimal capacity throughout the
year. This leads to higher energy yields and improved economic viability,
making the region attractive for developers and investors focused on maximizing
return on investment.
South India also boasts relatively better-developed
infrastructure, including grid connectivity, transportation networks, and
industrial zones, which facilitates the deployment and maintenance of CPV
projects. The presence of several renewable energy research centers and
manufacturing hubs in the south further supports technological innovation and
localization of CPV components, enhancing market growth. Moreover, state
governments in South India have been proactive in promoting renewable energy
through favorable policies, subsidies, and incentives that encourage investment
in solar power, including advanced technologies like CPV. These policy
frameworks reduce project risks and improve financial feasibility, accelerating
market adoption.
The high electricity demand from rapidly urbanizing
and industrializing areas in South India creates strong local markets for
efficient solar solutions. The combination of natural solar advantages,
supportive policies, infrastructure readiness, and robust energy demand makes
South India a natural leader in India’s CPV market. This regional dominance is
likely to continue as CPV technology matures and expands across the country.
Recent Developments
- On 22nd May, Longi has
introduced a range of new products tailored for both residential and
utility-scale solar segments. These innovations aim to enhance efficiency and
reliability, catering to the growing demand for sustainable energy solutions.
By expanding their product portfolio, Longi seeks to provide advanced solar
technologies that meet diverse customer needs, from individual homeowners to
large-scale utility projects. This launch underscores Longi’s commitment to
driving clean energy adoption and supporting India’s renewable energy goals
with cutting-edge, high-performance solar solutions.
- In February 2025, Solex Energy has
inaugurated a new solar module production line with an 800 MW capacity, marking
a significant expansion in its manufacturing capabilities. This development
aims to support the increasing demand for high-quality solar modules in India’s
rapidly growing renewable energy market. The advanced production facility will
enhance Solex Energy’s ability to supply efficient and reliable solar products
for various applications, from residential to large-scale utility projects.
This initiative reinforces the company’s commitment to accelerating clean
energy adoption across the country.
- In February 2024, Grew Energy
recently unveiled its latest cutting-edge solar PV modules at Intersolar 2024,
showcasing advanced technology designed to boost solar energy efficiency and
performance. These innovative modules aim to meet the growing demand for
reliable and sustainable solar solutions in both residential and commercial
sectors. The launch highlights Grew Energy’s commitment to driving progress in
renewable energy by offering high-quality products that support cleaner power
generation and contribute to global sustainability goals. For more details,
visit energetica-india.net.
Key Market Players
- Tata
Power Solar Systems Limited
- Adani
Solar Energy Limited
- Reliance
Solar Energy Private Limited
- Vikram
Solar Limited
- Waaree
Energies Ltd
- RenewSys
India Pvt. Ltd.
- Hero
Future Energies Pvt. Ltd.
- Azure
Power India Pvt. Ltd.
|
By Product
|
By Concentration
|
By End Use
|
By Region
|
|
|
- High Concentration Photovoltaic
- Low Concentration Photovoltaic
|
- Commercial
- Utilities
- Others
|
- South India
- North India
- West India
- East India
|
Report Scope:
In this report, the India Concentrated
Photovoltaic Market has been
segmented into the following categories, in addition to the industry trends
which have also been detailed below:
- India
Concentrated
Photovoltaic Market, By Product:
o Reflectors
o Refractors
- India
Concentrated
Photovoltaic Market, By Concentration:
o High Concentration Photovoltaic
o Low Concentration Photovoltaic
- India
Concentrated Photovoltaic Market, By End Use:
o Commercial
o Utilities
o Others
- India
Concentrated Photovoltaic Market, By Region:
o South India
o North India
o West India
o East India
Competitive Landscape
Company Profiles: Detailed analysis of the major companies
present in the India Concentrated Photovoltaic Market.
Available Customizations:
India Concentrated Photovoltaic Market report
with the given market data, TechSci Research offers customizations according
to a company's specific needs. The following customization options are
available for the report:
Company Information
- Detailed analysis and
profiling of additional market players (up to five).
India Concentrated Photovoltaic Market is an upcoming
report to be released soon. If you wish an early delivery of this report or
want to confirm the date of release, please contact us at [email protected]