|
Forecast
Period
|
2024-2028
|
|
Market
Size (2022)
|
USD 2.14
billion
|
|
CAGR
(2023-2028)
|
3.85%
|
|
Fastest
Growing Segment
|
Amine
Catalysts
|
|
Largest
Market
|
Asia-Pacific
|
Market Overview
Global Polysilicon Market has valued at
USD 2.14 billion in 2022 and is anticipated to project robust growth in the
forecast period with a CAGR of 3.85% through 2028. The
global polysilicon market is a critical player in the renewable energy
landscape, serving as a fundamental raw material in the production of solar
photovoltaic (PV) cells. As the world transitions towards cleaner and more
sustainable energy sources, the demand for polysilicon has witnessed
unprecedented growth.
The
polysilicon market's dynamics are intricately linked to the solar energy
industry, where polysilicon plays a pivotal role in converting sunlight into
electricity. The global push for renewable energy, driven by concerns over
climate change and the depletion of traditional energy resources, has fueled
the demand for polysilicon. The increasing adoption of solar power as a viable
and sustainable energy source has significantly contributed to the market's
growth.
One
of the primary drivers of the polysilicon market is the rapid expansion of the
solar photovoltaic industry worldwide. Governments and businesses across the
globe are investing heavily in solar energy projects to achieve sustainability
goals and reduce dependence on fossil fuels. This surge in solar installations,
particularly in Asia Pacific, Europe, and North America, has propelled the
demand for polysilicon, creating a robust market ecosystem.
The
global polysilicon market exhibits a geographically diverse landscape, with key
players and production hubs distributed across different regions. China, the
United States, and Europe stand out as major contributors to the polysilicon
market, housing prominent manufacturers and consumers of polysilicon.
China,
in particular, has emerged as a dominant force in the global polysilicon
market. The country's ambitious targets for renewable energy deployment,
coupled with its position as the world's largest producer of solar panels, have
led to a significant increase in polysilicon production capacity. Chinese
polysilicon manufacturers have played a crucial role in meeting the growing
demand for solar PV cells globally.
Europe,
with its strong focus on clean energy initiatives and ambitious renewable
energy targets, has also become a key player in the polysilicon market.
European countries, such as Germany and Spain, have witnessed substantial
investments in solar projects, further driving the demand for polysilicon.
The
primary application of polysilicon lies in the solar photovoltaic industry,
where it serves as a key material to produce solar cells. Polysilicon wafers
act as the substrate for solar cells, capturing sunlight and converting it into
electricity through the photovoltaic effect.
There
are two main types of polysilicon used in solar cell production:
multicrystalline and monocrystalline. Multicrystalline polysilicon is widely
utilized due to its cost-effectiveness, while monocrystalline polysilicon
offers higher efficiency in converting sunlight to electricity. Both types play
a crucial role in meeting the diverse needs of the solar industry, catering to
a range of solar panel technologies.
The
solar photovoltaic industry's growth is further fueled by advancements in solar
cell technologies, such as PERC (Passivated Emitter Rear Cell) and bifacial
solar cells. These technologies enhance the efficiency of solar cells, driving
the demand for high-quality polysilicon with improved purity and crystalline
structure.
Several
key trends and opportunities are shaping the polysilicon market, reflecting the
industry's dynamic nature. Continuous advancements in manufacturing processes
and technologies are enhancing the efficiency of polysilicon production.
Improved methods for refining raw silicon and reducing impurities contribute to
higher-quality polysilicon, aligning with the solar industry's demand for more
efficient solar cells.
The
ongoing trend towards sustainable and circular practices in the polysilicon
industry is noteworthy. Manufacturers are exploring ways to reduce energy
consumption and environmental impact during the production of polysilicon.
Additionally, recycling initiatives for end-of-life solar panels are gaining
traction, presenting opportunities for the development of a closed-loop system
in the polysilicon value chain.
The
increasing popularity of floating solar farms represents another significant
trend in the polysilicon market. Floating solar installations on bodies of
water offer multiple benefits, including reduced land use, enhanced cooling for
solar panels, and increased energy yield. This trend has the potential to drive
additional demand for polysilicon as floating solar projects become more
prevalent globally.
While
the polysilicon market experiences significant growth, it is not without its
challenges. One notable challenge is the volatility of polysilicon prices. The
market's sensitivity to factors such as global economic conditions, trade
tensions, and changes in government policies can lead to price fluctuations,
impacting the profitability of polysilicon manufacturers.
Overcapacity
in the polysilicon market has been a historical challenge, particularly when
supply exceeds demand. This scenario puts pressure on prices and profit
margins, prompting manufacturers to optimize production capacity and explore
new market opportunities.
The
global polysilicon market stands at the forefront of the renewable energy
revolution, playing a vital role in the expansion of the solar photovoltaic
industry. As the world strives to achieve sustainability goals and transition
towards cleaner energy sources, the demand for polysilicon is expected to
remain robust.
The
interconnection with the global Polysilicons market highlights the intricate
relationships within the broader landscape of materials crucial to the
renewable energy sector. The polysilicon market's growth is driven by
technological advancements, government incentives, and the increasing adoption of
solar energy worldwide.
Navigating
challenges such as price volatility and overcapacity requires a strategic
approach from industry stakeholders. Continuous innovation, sustainability
initiatives, and strategic partnerships will be pivotal in ensuring the
polysilicon market's resilience and continued contribution to the global shift
towards a sustainable energy future.
Key Market Drivers
Growing demand for solar
energy is Expected to Drive the Demand for Global Polysilicon Market
The
global polysilicon market is poised for substantial growth, propelled by the
growing demand for solar energy. Polysilicon, a critical raw material used in
the production of solar photovoltaic (PV) cells, is witnessing increased demand
as the world intensifies its focus on renewable energy sources. The solar
energy sector, in particular, has emerged as a key driver for the polysilicon
market, reflecting the global commitment to harnessing clean and sustainable
power.
The
surge in demand for solar energy is underpinned by several factors, including
environmental concerns, government incentives, and advancements in solar
technology. As nations strive to reduce their carbon footprint and transition
towards cleaner energy alternatives, solar power has gained prominence as a
viable and scalable solution. Polysilicon, a high-purity form of silicon, is a
fundamental material in the production of solar cells, playing a central role
in converting sunlight into electricity.
The
solar photovoltaic industry has experienced significant growth in recent years,
driven by falling solar panel costs, increased efficiency, and supportive
government policies promoting renewable energy. Polysilicon, being a key
component in the manufacturing of solar cells, is witnessing heightened demand
to meet the expanding capacity of solar installations globally. The
photovoltaic market's growth is further accelerated by the decreasing cost of
solar power, making it increasingly competitive with traditional energy
sources.
Government
initiatives and incentives, such as feed-in tariffs, tax credits, and
subsidies, have played a pivotal role in fostering the adoption of solar
energy. Many countries are actively promoting the deployment of solar power
projects as part of their renewable energy targets and commitments to combat
climate change. The increased adoption of solar energy systems, both at the
utility and residential levels, drives the demand for polysilicon to produce
the solar cells required for these installations.
Technological
advancements in solar cell manufacturing, particularly in the development of
monocrystalline and multi crystalline silicon solar cells, contribute to the
rising demand for polysilicon. These advancements aim to enhance the efficiency
and performance of solar panels, making them more attractive to consumers and
businesses alike. Polysilicon, as the primary material for these
high-efficiency solar cells, becomes crucial for achieving the desired outcomes
in solar energy generation.
The
global commitment to achieving sustainability goals, as exemplified by the
Paris Agreement and various national initiatives, accelerates the adoption of
renewable energy sources. Solar power, with its potential for decentralized
generation and minimal environmental impact, aligns with these goals.
Polysilicon, as an enabler of solar energy production, is at the forefront of
the renewable energy transition, supporting the global shift towards a more
sustainable and low-carbon energy landscape.
The
demand for polysilicon is not only driven by utility-scale solar projects but
also by the growing interest in distributed solar energy systems, rooftop solar
installations, and off-grid solutions. As the awareness of the benefits of
solar power spreads among businesses and consumers, the demand for polysilicon
extends to a diverse range of applications, contributing to the
decentralization of energy production and reducing dependence on traditional
grid infrastructure.
In
conclusion, the growing demand for solar energy is a key factor propelling the
global polysilicon market's growth. As the world embraces renewable energy
solutions to address environmental concerns and reduce reliance on fossil
fuels, polysilicon plays a critical role in enabling the production of
efficient and cost-effective solar cells. The solar photovoltaic industry's
expansion, supported by government initiatives and technological advancements,
drives the increased adoption of polysilicon, positioning it as a linchpin in
the global effort to transition towards a sustainable and clean energy future.
Continuous Development of the
Semiconductor Industry is Expected to Propel the Demand for Global Polysilicon
Market Growth
The
global polysilicon market is experiencing significant growth, driven by the
continuous development and expansion of the semiconductor industry.
Polysilicon, a high-purity form of silicon, is a crucial raw material in the
manufacturing of semiconductors, which serve as the building blocks for
electronic devices, integrated circuits, and advanced technologies. The
relentless evolution of the semiconductor industry, characterized by
innovations in electronics, artificial intelligence, and communication technologies,
is a key factor propelling the demand for polysilicon on a global scale.
Semiconductors
are fundamental components in a wide range of electronic devices, including
smartphones, computers, automotive electronics, and industrial equipment. The
demand for more powerful, energy-efficient, and compact electronic devices has
led to continuous advancements in semiconductor technology. Polysilicon, as a
primary material in the fabrication of silicon wafers, is essential for the
semiconductor manufacturing process. These wafers serve as the substrate on
which integrated circuits are built, and the quality of polysilicon directly
influences the performance and efficiency of semiconductors.
The
semiconductor industry's growth is fueled by several factors, including the
proliferation of smart devices, the development of 5G technology, the Internet
of Things (IoT), and the increasing digitization of various industries. As
electronic devices become more sophisticated and diverse, there is a
corresponding rise in the demand for high-performance semiconductors, driving
the need for polysilicon. The continuous miniaturization of semiconductor
components, as outlined by Moore's Law, also requires high-quality polysilicon
to meet the exacting standards of semiconductor manufacturers.
Moreover,
the automotive industry's shift towards electric vehicles (EVs) and the
integration of advanced driver-assistance systems (ADAS) contribute to the
demand for semiconductors and, consequently, polysilicon. EVs rely heavily on
semiconductor components for power electronics, battery management, and control
systems. The semiconductor content in vehicles is expected to increase with the
evolution towards autonomous driving and the electrification of transportation,
driving the demand for polysilicon as a critical input in semiconductor
fabrication.
The
continuous development of artificial intelligence (AI) and machine learning
technologies further amplifies the demand for high-performance semiconductors.
Data centers, used for processing and storage in AI applications, are powered
by advanced semiconductor devices. The growing scale and complexity of data
centers necessitate the use of cutting-edge semiconductor technology,
underlining the importance of polysilicon in meeting the industry's stringent
quality requirements.
Additionally,
the global push towards 5G technology is a significant driver for the
polysilicon market. The deployment of 5G networks requires advanced
semiconductor components for base stations, antennas, and network
infrastructure. The increased data speeds, lower latency, and connectivity
improvements brought by 5G technology demand semiconductors with enhanced
capabilities, intensifying the reliance on polysilicon for their production.
The
geopolitical landscape, including trade dynamics and intellectual property
considerations, also plays a role in shaping the polysilicon market. The
semiconductor industry's growth is interconnected with global supply chains,
and polysilicon is a critical link in ensuring a stable supply of
semiconductors. Market dynamics, such as supply shortages or geopolitical
tensions affecting trade, can impact the polysilicon market's trajectory and
influence the semiconductor industry's overall expansion.
In
conclusion, the continuous development of the semiconductor industry is a
driving force behind the robust growth of the global polysilicon market. As the
demand for high-performance semiconductors expands across various sectors,
including consumer electronics, automotive, telecommunications, and industrial
applications, polysilicon emerges as a foundational material enabling the
advancement of semiconductor technology. The interconnectedness of
technological advancements, market demands, and global supply chains
underscores the pivotal role of polysilicon in supporting the continuous
evolution of the semiconductor industry and powering the innovations that
define the digital age.
Increasing Demand for
Energy-Efficient Lighting Propels the Global Polysilicon Market Growth
The
global polysilicon market is witnessing significant growth, driven by the
increasing demand for energy-efficient lighting solutions. Polysilicon, a
high-purity form of silicon, plays a pivotal role in the production of
photovoltaic cells used in solar panels and, importantly, in the manufacturing
of light-emitting diodes (LEDs). As the world transitions towards more
sustainable and energy-efficient lighting options, the demand for polysilicon
is rising to support the growth of the LED industry, contributing to a more
eco-friendly and energy-conscious global lighting landscape.
LEDs
have emerged as a preferred lighting technology due to their numerous
advantages over traditional incandescent and fluorescent lighting. LEDs are
known for their energy efficiency, longer lifespan, and lower environmental
impact. Polysilicon is a critical material in the fabrication of LEDs,
particularly in the production of wafers and substrates that form the basis of
LED chips. The continuous development and adoption of LED technology for
various lighting applications are driving the demand for polysilicon worldwide.
One
of the key drivers for the increasing demand for energy-efficient lighting is
the global focus on sustainability and environmental conservation. Governments,
businesses, and consumers are increasingly recognizing the importance of
reducing energy consumption and minimizing the carbon footprint. LEDs, which
utilize polysilicon in their manufacturing, are highly energy-efficient,
consuming significantly less electricity compared to traditional lighting
technologies. As a result, the widespread adoption of LED lighting contributes
to energy conservation and aligns with global efforts to mitigate climate
change.
The
transition towards energy-efficient lighting is also influenced by regulatory
initiatives and policies aimed at phasing out inefficient lighting
technologies. Many countries have implemented regulations and standards that
encourage the use of energy-efficient lighting solutions, such as LEDs, and
discourage the use of traditional incandescent bulbs. These regulatory measures
create a conducive environment for the growth of the LED industry, thereby
boosting the demand for polysilicon as an essential component in LED
production.
The
commercial and residential sectors are witnessing a rapid shift towards LED
lighting, driven by factors such as cost savings, improved lighting quality,
and the desire for sustainable solutions. Polysilicon's role in the LED market
extends to various applications, including general lighting, automotive
lighting, and specialty lighting. The versatility of LEDs, coupled with the
efficiency enabled by polysilicon, positions them as a versatile and
sustainable lighting solution across diverse sectors.
Furthermore,
technological advancements in LED lighting, such as the development of smart
lighting systems and connected lighting solutions, contribute to the expanding
market for polysilicon. The integration of LEDs with smart technologies allows
for energy-efficient lighting control, remote monitoring, and customization,
enhancing both energy savings and user experience. Polysilicon's contribution
to the semiconductor components within these advanced lighting systems
underscores its importance in shaping the future of lighting technology.
The
adoption of LEDs is not only limited to indoor and outdoor lighting but also
extends to automotive lighting applications. As the automotive industry
embraces LED technology for headlights, taillights, and interior lighting, the
demand for polysilicon in LED manufacturing experiences an upsurge. The
automotive sector's commitment to energy efficiency, safety, and innovative
lighting designs further propels the integration of LEDs, driving the demand
for polysilicon as a key material in this transformative process.
In
conclusion, the increasing demand for energy-efficient lighting, primarily
driven by the widespread adoption of LEDs, is a major factor propelling the
growth of the global polysilicon market. As the world seeks sustainable and
eco-friendly lighting solutions, polysilicon emerges as a crucial component in
the production of energy-efficient LEDs. The convergence of environmental
awareness, regulatory support, technological advancements, and the growing
preference for energy-efficient lighting collectively contributes to the
expanding role of polysilicon in shaping the future of global lighting
solutions.
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Key Market Challenges
Competition from Other
Materials Poses a Significant Obstacle to Market Expansion
Competition
from other materials emerges as a substantial obstacle hindering the global
expansion of the Polysilicon market. As a critical component in the production
of solar cells and semiconductor devices, Polysilicon faces increasing
competition from alternative materials vying for dominance in the renewable
energy and electronics sectors. The relentless pursuit of more cost-effective
and technologically advanced materials challenges the market share
traditionally held by Polysilicon.
Silicon
alternatives and emerging technologies, such as thin-film solar cells and
organic semiconductors, intensify the competitive landscape. To surmount this
obstacle, stakeholders in the Polysilicon market must invest in research and
development, aiming to enhance efficiency, reduce production costs, and explore
innovative applications. By staying at the forefront of technological
advancements and demonstrating the unique advantages of Polysilicon, the
industry can position itself strategically to overcome the challenges posed by
competitive materials and foster sustained global market growth.
Supply Chain Disruption
Supply
chain disruption presents a significant obstacle to the global expansion of the
Polysilicon market, a key component in the production of solar cells and
semiconductors. The intricate supply chain for Polysilicon involves raw
material extraction, purification processes, and global distribution networks.
Disruptions, whether caused by natural disasters, geopolitical tensions, or
unexpected events like the COVID-19 pandemic, can severely impact the
availability and cost of Polysilicon.
These
disruptions ripple through the entire supply chain, affecting production
timelines and escalating costs. To mitigate these challenges, stakeholders in
the Polysilicon market must invest in resilient supply chain management,
diversify sourcing strategies, and establish contingency plans. By enhancing
supply chain flexibility and responsiveness, the industry can navigate
uncertainties, ensuring a stable and consistent supply of Polysilicon.
Proactive measures to address supply chain disruptions are crucial for
sustaining market growth, meeting increasing demand for renewable energy
technologies, and maintaining the Polysilicon market's global competitiveness.
Key Market Trends
Increasing Demand for High Purity
Polysilicon
The
global Polysilicon market is witnessing substantial growth, and a pivotal trend
driving this expansion is the increasing demand for high-purity Polysilicon. As
a critical raw material in the production of solar cells and semiconductors,
high-purity Polysilicon plays a central role in the photovoltaic industry,
which is experiencing unprecedented growth due to the global shift towards
renewable energy. The demand surge is particularly evident in the solar energy
sector, where Polysilicon is a key component in the manufacturing of solar
panels. The push for cleaner and sustainable energy sources has led to
significant investments in solar power projects globally, driving the demand
for high-quality Polysilicon.
For
example, the development and expansion of solar photovoltaic installations in
emerging markets, such as India and China, contribute significantly to the
increased demand for Polysilicon. These countries are experiencing rapid
urbanization and a growing need for sustainable energy solutions, making
high-purity Polysilicon a crucial component in their renewable energy
strategies.
Furthermore,
advancements in technology and manufacturing processes have led to the
production of Polysilicon with even higher purity levels, enhancing its
efficiency in solar cell applications. The semiconductor industry also
contributes to the heightened demand for high-purity Polysilicon as it is
indispensable in the fabrication of integrated circuits and electronic devices.
In
conclusion, the increasing demand for high-purity Polysilicon, driven by the
expanding solar energy market and semiconductor industry, stands out as a key
trend shaping the growth trajectory of the global Polysilicon market. This
trend not only reflects the global commitment to sustainable energy but also
underscores the vital role of Polysilicon in advancing the renewable energy
landscape and semiconductor technology.
Development of New Polysilicon
Production Methods
The
global Polysilicon market is undergoing significant growth, and a key trend
steering this trajectory is the development of new production methods. Advances
in technology and manufacturing processes are reshaping the polysilicon
industry, impacting efficiency, cost-effectiveness, and environmental
sustainability. One noteworthy example is the exploration of innovative methods
for producing Polysilicon, such as the use of fluidized bed reactors and
upgraded metallurgical-grade silicon (UMG-Si) as a feedstock. These emerging
approaches aim to enhance the overall yield, reduce energy consumption, and
lower production costs associated with traditional methods, contributing to the
competitiveness of polysilicon in the market.
For
instance, the fluidized bed reactor technology represents a more
energy-efficient and environmentally friendly alternative to the conventional
Siemens process. This method allows for continuous production, reducing the
energy-intensive nature of batch processes. Additionally, the utilization of
UMG-Si, which is a lower-cost raw material compared to electronic-grade
silicon, is gaining traction. Although traditionally used in the metallurgical
industry, advancements in purification processes enable the conversion of
UMG-Si into high-purity Polysilicon suitable for solar applications.
These
innovative production methods align with the broader industry goals of
sustainability and cost optimization. As the demand for Polysilicon continues
to rise, driven by the growth in solar energy and semiconductor markets, the
development of new production methods becomes a crucial factor in meeting
global needs. Companies investing in and adopting these advancements are poised
to not only improve their competitiveness but also contribute to the ongoing
evolution of the global Polysilicon market.
Segmental Insights
End User Industry Insights
Based on the end user industry, the Solar
PV segment established its dominance in the global market for Polysilicon based
on the application. The dominance of the Solar PV (Photovoltaic) segment in the
global market for polysilicon is clear, and the statistics from 2021 reinforce
its unparalleled position. According to the International Renewable Energy
Agency (IRENA), solar power remains the fastest-growing renewable energy source
worldwide, constituting over half of the 3,064 GW of renewable capacity
installed in 2021. This growth is particularly pronounced in the Solar PV
sector, where the total global solar capacity expanded by an impressive 19%,
resulting in an additional installation of 133 GW.
In 2021, solar and wind power
collectively contributed to over 10% of the total electricity generated
globally for the first time, with solar power alone accounting for
approximately 5% of this share, according to the World Economic Forum. The
overall installed global solar energy capacity reached around 850 GW,
showcasing a substantial increase from the previous year's 770 GW. The
International Energy Agency (IEA) attributes a significant portion of the surge
in renewable power capacity in addition to the commissioning of 290 GW of new
solar PV installations in 2021, representing a 3% increase from 2020. Notably,
Solar PV emerged as the dominant force, accounting for more than half of the
total expansion in renewable power capacity during this period.
These statistics underscore the Solar PV
segment's commanding position in the global polysilicon market. The remarkable
growth in solar capacity installation, coupled with its increasing contribution
to the overall electricity generation mix, solidifies Solar PV as the primary
end-user industry driving the demand for polysilicon. As the world intensifies
its shift towards cleaner and sustainable energy solutions, the Solar PV segment
is poised to maintain and strengthen its dominance in the global polysilicon
market in the foreseeable future.
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Regional Insights
Based on the Region, Asia Pacific region
emerged as the dominant player in the global Polysilicon market in 2022,
holding the largest market share in terms of both value and volume. The
Asia-Pacific region has emerged as a significant consumer of polysilicon,
driven by increasing demand from key nations including China, South Korea, and
India. Notably, China has recently disclosed a total polysilicon production
capacity of 122,000 tons, with substantial plans for new expansions. The
country is anticipated to bring over 1.2 million tons of additional capacity
online by 2023, primarily outside of Xinjiang, although a substantial majority
89% of global polysilicon production is expected to remain within China.
South Korea, ranking as the
ninth-largest global solar installation hub, generates around 4% of its
electricity from solar energy. Notably, the country has committed to carbon
neutrality by 2050, with an interim goal of reducing emissions by 40% by 2030,
according to the International Trade Organization. Despite importing more than
90% of its energy resources, South Korea displayed a notable increase in
renewable energy, contributing to an 18% rise in electricity generation from
renewable sources in 2021.
In 2021, Tata Power Solar secured
substantial orders valued at USD 65.77 million from Energy Efficiency Services
Ltd (EESL) in India. These orders are earmarked for the development of multiple
distributed ground-mounted solar projects with a cumulative capacity of
approximately 100MW.
India and China host some of the world's
largest solar power facilities, with the Bhadla solar farm in Rajasthan, India,
boasting a remarkable total production capacity of 2,245 megawatts as of June
2021. Given these trends and the burgeoning end-user base, the demand for
polysilicon in the Asia-Pacific region is expected to witness a substantial
boost during the forecast period.
Recent Developments
- In
August 2022, REC Silicon ASA and Mississippi Silicon entered into a
collaborative initiative aimed at establishing a comprehensive solar supply
chain within the United States. The strategic plan involves the development of
the supply chain, encompassing the entire process from raw silicon production
to the manufacturing of fully assembled solar modules. This partnership
underscores a commitment to advancing domestic capabilities in the solar
industry.
- In
April 2022, OCI Company Ltd executed a binding Memorandum of Understanding
(MoU) with Hanwha Solutions, a South Korean-based solar manufacturer and a
subsidiary of Hanwha. The MoU, valued at approximately USD 1.2 billion,
solidified an agreement for the supply of polysilicon. This collaboration has
proven instrumental in augmenting OCI Company Ltd's profit margins, marking a
significant achievement in their business endeavors.
Key Market Players
- Wacker
Chemie AG
- Asia Silicon (Qinghai) Co. Ltd
- Daqo New Energy Co. Ltd
- Hemlock Semiconductor Operations
LLC And Hemlock Semiconductor LLC
- Mitsubishi Polycrystalline
Silicon America Corporation
- OCI Company Ltd
- Qatar Solar Technologies
- REC Silicon ASA
- Sichuan Yongxiang Co. Ltd
(Tongwei)
- Tokuyama Corporation
|
By End User Industry
|
By Region
|
|
|
- North America
- Europe
- Asia Pacific
- South America
- Middle East & Africa
|
Report Scope:
In this report, the Global Polysilicon Market has
been segmented into the following categories, in addition to the industry
trends which have also been detailed below:
- Polysilicon Market, By End User Industry:
o Solar PV
§ Monocrystalline Solar Panel
§ Multi crystalline Solar Panel
o Electronics
§ Semiconductor
- Polysilicon Market, By Region:
o North America
§ United States
§ Canada
§ Mexico
o Europe
§ France
§ United Kingdom
§ Italy
§ Germany
§ Spain
o Asia-Pacific
§ China
§ India
§ Japan
§ Australia
§ South Korea
o South America
§ Brazil
§ Argentina
§ Colombia
o Middle East & Africa
§ South Africa
§ Saudi Arabia
§ UAE
§ Kuwait
§ Turkey
§ Egypt
Competitive Landscape
Company Profiles: Detailed analysis of the major companies present in the Global Polysilicon
Market.
Available Customizations:
Global Polysilicon 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).
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