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Building Integrated Photovoltaic Market

The market for Building Integrated Photovoltaic was estimated at $14.4 billion in 2025; it is anticipated to increase to $31.5 billion by 2030, with projections indicating growth to around $68.7 billion by 2035.

Report ID:DS2406002
Author:Chandra Mohan - Sr. Industry Consultant
Published Date:
Datatree
Energy & Power
Renewable Energy
Building Integrated Photovoltaic
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Report Summary
Market Data
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Table of Contents

Global Building Integrated Photovoltaic Market Outlook

Revenue, 2025

$14.4B

Forecast, 2035

$68.7B

CAGR, 2026 - 2035

16.9%

The Building Integrated Photovoltaic (BIPV) industry revenue is expected to be around $14.4 billion in 2026 and expected to showcase growth with 16.9% CAGR between 2026 and 2035. This favorable trajectory underscores the rising strategic importance of Building Integrated Photovoltaic solutions in modern construction, as developers, policymakers, and corporate owners prioritize on-site clean energy generation, lifecycle cost savings, and compliance with tightening carbon-reduction targets. The current BIPV market is being propelled by supportive building energy codes, green building certifications, and incentives that reward solar architecture and high-performance building envelopes. At the same time, declining photovoltaic module costs, advancements in system integration, and improved aesthetics are making BIPV systems more competitive with conventional roofing and cladding materials. Together, these factors are reinforcing the ongoing relevance of Building Integrated Photovoltaic technologies as a preferred pathway for sustainable construction and net-zero energy buildings.

Building Integrated Photovoltaic solutions replace traditional building components with photovoltaic materials that perform dual functions as both the building envelope and on-site power generators, offering optimized design flexibility, durability, and energy efficiency. Roofing and facades are the key applications in the BIPV market, together holding 91.3% of demand as BIPV roofing and solar façades become standard features in green building projects. Crystalline Silicon Technology currently dominates BIPV deployments, with $9.77 billion in sales in 2025, reflecting its high conversion efficiency, mature supply chain, and strong suitability for diverse architectural formats. Beyond core roofing and façade systems, BIPV modules are increasingly integrated into glazing, skylights, and shading devices, supporting broader renewable energy integration at the building scale. Recent trends such as prefabricated BIPV facades, smart building energy management, and stricter sustainability targets are further accelerating adoption and cementing the role of BIPV technologies in next-generation solar architecture.

Building Integrated Photovoltaic market outlook with forecast trends, drivers, opportunities, supply chain, and competition 2025-2035
Building Integrated Photovoltaic Market Outlook

Market Key Insights

  • The Building Integrated Photovoltaic market is projected to grow from $14.4 billion in 2025 to $68.7 billion in 2035. This represents a CAGR of 16.9%, reflecting rising demand across Roofing, Facades, and Externally Integrated Systems.

  • LONGi Green Energy Technology, JinkoSolar, and Onyx Solar are among the leading players in this market, shaping its competitive landscape.

  • U.S. and Germany are the top markets within the Building Integrated Photovoltaic market and are expected to observe the growth CAGR of 16.2% to 23.7% between 2025 and 2030.

  • Emerging markets including Brazil, India and South Korea are expected to observe highest growth with CAGR ranging between 12.7% to 17.6%.

  • Transition like Adoption of Transparent Photovoltaic Glass is expected to add $4 billion to the Building Integrated Photovoltaic market growth by 2030.

  • The Building Integrated Photovoltaic market is set to add $54.3 billion between 2025 and 2035, with manufacturer targeting Facades & Externally Integrated Systems Application projected to gain a larger market share.

  • With

    increasing focus on energy-efficient buildings, and

    Advancements in Photovoltaic Technology, Building Integrated Photovoltaic market to expand 377% between 2025 and 2035.

building integrated photovoltaic market size with pie charts of major and emerging country share, CAGR, trends for 2025 and 2032
Building Integrated Photovoltaic - Country Share Analysis

Opportunities in the Building Integrated Photovoltaic

Rapid expansion of logistics hubs and e-commerce distribution centers is also opening a high-potential niche for Building Integrated Photovoltaic roofing membranes on large industrial warehouses. Lightweight thin film BIPV is ideal for low-load metal roofs, delivering on-site power generation without major structural reinforcement. Corporate decarbonization targets and rising peak electricity prices favor this application, with thin film technology projected to grow from around $3.23 billion in 2025 to $7.14 billion by 2030, a strong 17.2% global CAGR.

Growth Opportunities in Europe and Asia-Pacific

In Europe, Building Integrated Photovoltaic solutions are increasingly driven by stringent green building codes, deep renovation programs, and the rapid shift toward net-zero energy buildings, making BIPV facades the most strategically relevant application for high-density urban cores and premium commercial assets, while BIPV roofing remains a strong complementary segment in residential and public buildings. Competition is intensifying among façade engineering specialists, architectural photovoltaics providers, and established glass and construction material manufacturers, pushing differentiation around aesthetic solar glass, integrated mounting systems, and long-term performance guarantees. Top opportunities centre on premium façade-integrated BIPV systems for office towers and institutional buildings, architect-specified solar building materials for design-led projects, and standardized façade kits tailored to regional climate and regulatory requirements. Key regional drivers include aggressive decarbonisation targets, support for distributed generation at the building level, and investor preference for energy-efficient façades that enhance asset value and environmental ratings. Targeted strategies should prioritize partnerships with leading architects and façade contractors, certification to local performance and fire standards, and localized design support to accelerate specification of Building Integrated Photovoltaic solutions in major metropolitan development pipelines.
In Asia-Pacific, Building Integrated Photovoltaic deployment is primarily propelled by rapid urbanisation, rising electricity demand, and government-backed smart cities initiatives, with BIPV roofing emerging as the most relevant application across large-scale residential, industrial, and commercial projects, while externally integrated systems such as solar canopies and shading structures gain prominence in transport hubs and campuses. Competitive dynamics are shaped by local EPC firms, regional solar module manufacturers, and construction conglomerates that bundle BIPV roofing with conventional rooftop solutions, leading to price-sensitive yet high-volume adoption, particularly in new-build developments. Top opportunities include cost-optimised BIPV roofing products for industrial sheds and logistics facilities, modular externally integrated systems for transit-oriented developments, and climate-resilient solutions adapted to high temperature, humidity, and typhoon-prone markets. Core drivers encompass energy security concerns, incentives for on-site generation, and growing demand for energy-efficient façades and roofing in commercial real estate and public infrastructure. Strategic focus should be placed on building localized manufacturing or assembly for BIPV components, forming joint ventures with regional developers and roofing OEMs, and tailoring Building Integrated Photovoltaic portfolios to national standards, grid interconnection rules, and financing frameworks to scale adoption across diverse Asia-Pacific sub-markets.

Market Dynamics and Supply Chain

01

Driver: Rising Demand For Sustainable Construction And Government Incentives Supporting Renewable Energy Adoption

The building integrated photovoltaic market is also propelled by increasing demand for sustainable and energy-efficient construction alongside strong government incentives and regulatory support. Developers and architects are also integrating BIPV into residential, commercial, and industrial buildings to reduce carbon footprints, achieve net-zero energy targets, and meet green building certifications like LEED and BREEAM. Simultaneously, subsidies, tax credits, and feed-in tariffs in regions such as Europe, North America, and Asia encourage adoption by lowering upfront costs. Advanced thin-film modules, glass-glass panels, and aesthetically customizable solutions allow seamless integration into roofing, facades, and exterior structures, providing functional energy generation while maintaining design appeal. Together, these factors accelerate deployment of BIPV systems across diverse building types.
Advancements in high-efficiency photovoltaic cells and flexible BIPV modules are also a key market driver. Modern monocrystalline and thin-film technologies provide improved energy conversion rates, lightweight designs, and customizable shapes that integrate seamlessly into building envelopes. Innovations such as semi-transparent modules for facades and solar roof tiles enhance aesthetics while maximizing electricity output. These improvements reduce installation complexity, increase system reliability, and make BIPV suitable for retrofits and new constructions alike. As a result, developers and building owners can also adopt renewable energy solutions without compromising architectural integrity or functional requirements, driving broader market acceptance.
02

Restraint: High Initial Costs And Complex Installation Requirements Hinder BIPV Adoption Rates

Building integrated photovoltaic systems often have higher initial costs and require specialized design and installation expertise, which restricts widespread adoption. Custom modules, structural integration with facades or roofs, and coordination with architects and builders increase upfront investment compared to conventional PV or standard building materials. For example, a commercial developer may choose traditional solar panels over BIPV to reduce construction complexity and costs, delaying revenue from energy generation. These higher expenses can deter small developers and homeowners, slowing demand growth in some regions despite long‑term energy savings and sustainability benefits.
03

Opportunity: Transparent BIPV Facades for Commercial Skyscrapers in Asia-Pacific Cities and Crystalline Silicon BIPV Retrofits in European Residential Apartment Buildings

The commercial real estate boom and dense skylines in Asia-Pacific are creating a prime opportunity for Building Integrated Photovoltaic facade systems that replace conventional curtain walls. Transparent BIPV glass enables energy-efficient architecture without sacrificing daylighting or aesthetics, aligning with net-zero building codes and smart city infrastructure plans. This segment will be driven by the transparent technology category, forecast to rise from about $1.41 billion in 2025 to $4.06 billion by 2030, the fastest 23.54% CAGR globally.
Stricter energy performance standards and renovation incentives across Europe are accelerating demand for BIPV upgrades on aging multifamily housing stock. Crystalline silicon BIPV modules integrated into balconies, façades, and pitched roofs can transform legacy apartments into near net-zero assets, supporting sustainable urbanization and lower tenant energy bills. This opportunity aligns with the dominant crystalline silicon segment, expected to expand from roughly $9.77 billion in 2025 to $20.26 billion by 2030, delivering a resilient 15.7% global CAGR.
04

Challenge: Regulatory Hurdles And Limited Standardization Slow Market Growth Globally

Regulatory barriers and a lack of industry standards are key restraints for the building integrated photovoltaic market. BIPV projects often face complex permitting processes, varying building codes, and unclear compliance guidelines across jurisdictions. Without consistent standards for safety, grid interconnection, and fire resistance, developers may delay or avoid BIPV integration to mitigate legal and financial risks. For instance, mixed requirements between cities can stall facade PV installations on high‑rise buildings, reducing overall market momentum and limiting investment in new technologies due to uncertainty in approval timelines and costs.

Supply Chain Landscape

1

Photovoltaic Materials

LONGi Green Energy TechnologyCanadian SolarJinkoSolar
2

BIPV Module Manufacturing

JinkoSolarCanadian SolarAGC Inc
3

Building Integrated Photovoltaic

Onyx SolarAGC Inc.Canadian Solar
4

BIPV Applications

Commercial Building FacadesResidential rooftop SolarIndustrial Building Envelopes
Building Integrated Photovoltaic - Supply Chain

Use Cases of Building Integrated Photovoltaic in Roofing & Facades

Roofing : Building integrated photovoltaic systems are increasingly used in roofing applications to generate electricity while serving as a structural element. Solar roof tiles and thin-film BIPV modules are the most common types for residential and commercial buildings, replacing conventional roofing materials. These systems provide dual functionality, reducing construction material costs while producing renewable energy. Homeowners and developers benefit from lower electricity bills, enhanced aesthetic appeal, and compliance with green building standards. In addition, solar roofing solutions contribute to sustainability goals, making them an attractive choice for energy-conscious property developers and environmentally aware end-users.
Facades : BIPV systems integrated into building facades offer an innovative approach to harnessing solar energy while enhancing architectural design. Glass-glass solar panels, semi-transparent modules, and curtain wall-integrated systems are commonly used in high-rise commercial buildings, offices, and modern residential complexes. These systems provide natural daylighting, reduce heating and cooling loads, and generate electricity, improving overall building energy efficiency. Facade-integrated BIPV enables architects to create visually striking, energy-positive structures while supporting sustainability goals. This integration also helps property owners achieve certifications such as LEED and BREEAM, enhancing the building’s market value.
Externally Integrated Systems : Externally integrated BIPV systems are used on canopies, pergolas, sunshades, and awnings, providing shade and producing clean energy simultaneously. Flexible thin-film modules and lightweight crystalline panels are ideal for commercial complexes, public infrastructure, and industrial facilities. These systems are easy to install on existing structures and reduce reliance on conventional electricity. Additionally, they offer environmental benefits by lowering carbon footprints and supporting net-zero energy goals. Externally integrated BIPV solutions enhance urban energy resilience, provide functional design elements, and allow businesses and municipalities to adopt renewable energy without significant modifications to existing building structures.

Recent Developments

Recent developments in building integrated photovoltaic emphasize high‑efficiency modules, flexible solar materials, and smart facade integration to meet growing demand for sustainable construction. Manufacturers are enhancing thin‑film and semi‑transparent PV technologies that blend seamlessly into roofing and facade systems, expanding architectural applications. A key market trend is the rise of energy‑generating building envelopes in urban projects, driven by net‑zero energy goals and government green building incentives, supporting both aesthetics and on‑site renewable power generation.

May 2025 : LONGi Green Energy Technology Co. Ltd. signed a 100 MW photovoltaic module supply agreement with Rinergy Europe SARL at Intersolar Europe 2025. This deal involves delivery of high‑efficiency Hi‑MO X10 and Hi‑MO 7 solar modules to support Rinergy’s expanding installations across European distributed generation and commercial projects, enhancing deployment of integrated solar solutions.
July  2024 : LONGi Green Energy Technology and Kingspan Group plc announced a strategic partnership to integrate solar technology into advanced building materials and promote sustainable construction, including building integrated photovoltaic systems, supporting joint innovation and future joint manufacturing opportunities.
December 2024 : LONGi Solar extended its partnership with NOFAR Energy in Europe to supply over 1 GW of advanced Trina Hi‑MO modules, supporting expanded adoption of solar solutions that include PV integration on roofs and buildings as part of broader renewable infrastructure.

Impact of Industry Transitions on the Building Integrated Photovoltaic Market

As a core segment of the Renewable Energy industry, the Building Integrated Photovoltaic market develops in line with broader industry shifts. Over recent years, transitions such as Adoption of Transparent Photovoltaic Glass and Increasing Use of Flexible BIPV Materials have redefined priorities across the Renewable Energy sector, influencing how the Building Integrated Photovoltaic market evolves in terms of demand, applications and competitive dynamics. These transitions highlight the structural changes shaping long-term growth opportunities.
01

Adoption of Transparent Photovoltaic Glass

The rapid adoption of transparent photovoltaic glass is emerging as a pivotal growth catalyst for the BIPV market, transforming façades and windows into active power-generating assets without compromising aesthetics or daylight access. By enabling see-through solar panels and advanced solar windows to replace conventional glazing in commercial towers and premium residential projects, this transition unlocks substantial untapped surface area for on-site renewable energy generation. Strategically, transparent photovoltaic glass strengthens the business case for building-integrated solar by aligning energy efficiency, architectural design, and sustainability certifications. As a result, this transition alone is expected to contribute approximately $4 billion to BIPV market growth by 2030, accelerating adoption of façade-integrated photovoltaics, reducing lifecycle energy costs, and positioning transparent solar glazing as a core specification in next-generation green building envelopes.
02

Increasing Use of Flexible BIPV Materials

The building integrated photovoltaic market is witnessing a significant transition with the increasing use of flexible BIPV materials. These lightweight and adaptable materials can be integrated seamlessly into curved roofs, complex facades, and modern architectural designs, enabling buildings to generate renewable energy without compromising aesthetics. Flexible thin-film modules and semi-transparent panels are particularly favored in high-rise commercial buildings, luxury residences, and cultural or public structures where traditional rigid panels are difficult to install. For example, contemporary office complexes incorporating flexible BIPV facades achieve energy efficiency while maintaining innovative design. This transition broadens BIPV applications, enhances architectural freedom, and supports sustainability goals, positioning flexible solar materials as a critical driver in modern building energy solutions.