The solar photovoltaic (PV) Market is estimated to be valued at USD 339.7 billion in 2025 and is projected to reach USD 753.9 billion by 2035, registering a compound annual growth rate (CAGR) of 8.3% over the forecast period.
The sequence advances from USD 339.7 to 367.9 to 398.4 to 431.5 to 467.3 to 506.1 billion by 2030, a lift of USD 166.4 billion in the first five years. Year on year increments expand from USD 28.2 billion early in the period to USD 38.8 billion by 2030, indicating steady acceleration consistent with an 8.3 percent CAGR for the full horizon. This shape is supported by multi region utility scale projects, stronger commercial and industrial rooftops, and repeat procurement by experienced EPC contractors. Balance of system leverage, reliable inverter supply, and bankable power purchase agreements are expected to keep levelized costs competitive, while module efficiency gains and single axis tracker penetration are being used to raise capacity factors and throughput.
Solar Photovoltaic (PV) Market expansion steepens in the second half as values rise from USD 506.1 billion in 2030 to USD 753.9 billion in 2035, adding USD 247.8 billion and delivering just under 60 percent of the total ten year increase of USD 414.2 billion. Annual additions widen from USD 42.0 to USD 57.7 billion through the late stage, confirming a maturing yet compounding adoption curve. Pipeline conversion in large tenders, hybridization with storage, and improved grid interconnection timelines are expected to drive higher completion rates. Vendor positions are likely to be strengthened by scale manufacturing, disciplined balance of system engineering, and standardized O and M programs that reduce downtime and raise yield. Corporate PPAs, selective merchant exposure, and refinancing of operational portfolios are expected to support capital formation across utility, commercial, and residential deployment channels.
Metric | Value |
---|---|
Solar Photovoltaic (PV) Market Estimated Value in (2025 E) | USD 339.7 billion |
Solar Photovoltaic (PV) Market Forecast Value in (2035 F) | USD 753.9 billion |
Forecast CAGR (2025 to 2035) | 8.3% |
The solar photovoltaic (PV) market represents a substantial and fast-expanding share across multiple parent markets, with its presence strongest in renewable-focused categories. Within the renewable energy market, solar PV holds about 40%, making it the largest single contributor ahead of wind, hydro, and biomass. In the power generation market, its share is close to 10%, reflecting its steady growth against conventional sources such as coal, natural gas, and nuclear. Within the electricity and utilities market, solar PV contributes nearly 8%, supported by utility-scale solar farms feeding national and regional grids. In the clean energy technology market, solar PV accounts for around 35%, underscoring its pivotal role in advancing low-emission energy transitions compared to alternatives such as green hydrogen and geothermal.
Finally, in the energy infrastructure development market, solar PV represents approximately 12%, driven by large-scale deployment of solar parks, distributed rooftop systems, and integration with storage and grid modernization. Taken together, these percentages highlight that solar PV is most dominant in renewable and clean energy-specific contexts, where it serves as the leading growth driver, while maintaining a smaller but growing share in broader energy and utility markets. This distribution reflects both its maturity in the renewables sector and its rising competitiveness in global power generation, reinforcing its role as one of the primary engines of the energy transition.
The solar photovoltaic (PV) market is witnessing robust expansion due to favorable government incentives, rapid technological advancements, and growing environmental awareness among consumers and industries. Increasing global emphasis on decarbonization and energy independence is encouraging widespread deployment of PV systems.
Falling module costs and improved efficiency are further propelling adoption across utility-scale and distributed installations.
Moreover, supportive policies such as feed-in tariffs, net metering, and carbon credit frameworks continue to enhance the commercial viability of PV technologies in developed and emerging economies alike.
The solar photovoltaic (PV) market is segmented by connectivity, mounting, end use, and geographic regions. By connectivity, solar photovoltaic (PV) market is divided into on grid and off grid. In terms of mounting, solar photovoltaic (PV) market is classified into ground mounted and roof top. Based on end use, solar photovoltaic (PV) market is segmented into utility, residential, and commercial & industrial. Regionally, the solar photovoltaic (PV) industry is classified into North America, Latin America, Western Europe, Eastern Europe, Balkan & Baltic Countries, Russia & Belarus, Central Asia, East Asia, South Asia & Pacific, and the Middle East & Africa.
On grid systems are projected to capture 71.3% of the market share by 2025, making them the dominant connectivity type. This dominance is driven by the scalability, cost-efficiency, and ease of integration with existing power infrastructure. Utilities and commercial establishments increasingly prefer grid-tied solutions for their ability to sell surplus power and reduce peak demand charges. Furthermore, policies such as net metering and solar renewable energy credits (SRECs) incentivize grid connectivity, making it the default choice for large-scale and urban installations. The availability of advanced smart inverters and real-time monitoring solutions also enhances the appeal of on-grid PV systems.
Ground mounted systems are forecast to account for 64.80% of the solar PV market by 2025, solidifying their position as the leading mounting type. These systems offer superior scalability and orientation flexibility, making them ideal for utility-scale projects and solar farms. They require less structural reinforcement compared to rooftop setups, leading to lower installation and maintenance costs per watt. Their ease of access simplifies upkeep and upgrades, further boosting operational efficiency. Additionally, large tracts of underutilized land, such as brownfields and deserts, are increasingly being repurposed for ground-mounted solar infrastructure to meet growing energy demands.
The utility sector is anticipated to command 53.60% of the market share in 2025, positioning it as the leading end-use segment. This leadership is underpinned by the surge in government-backed solar tenders, large-scale power purchase agreements (PPAs), and ambitious national renewable energy targets. Utilities are increasingly deploying PV systems to diversify their energy portfolios, hedge against fossil fuel volatility, and meet clean energy mandates. The cost-per-kilowatt-hour for utility-scale solar has become highly competitive with traditional energy sources, making it a financially sound investment. Integration of battery storage is also enhancing the reliability of utility-scale PV, accelerating its adoption further.
The solar photovoltaic market is expanding as utility, commercial, and residential buyers adopt PV to lower energy costs and hedge tariffs. Opportunities are rising in rooftop portfolios, floating and agrivoltaic sites, storage coupled hybrids, and repowering of legacy assets. Design trends favor TOPCon or HJT modules, high current inverters, trackers, and digital build workflows that compress schedules and improve LCOE. Key hurdles remain in module pricing swings, land and permit risk, interconnection queues, and grid curtailment. In my opinion, integrated developers with secure sourcing, standardized EPC, and disciplined O&M will hold the advantage.
Demand for superconducting quantum chips has been accelerated by their central role in building scalable quantum computers. These chips leverage superconducting circuits to achieve qubits with longer coherence times and faster gate operations compared to competing platforms. Research institutions, cloud service providers, and technology giants are driving adoption for complex simulations, cryptography, and optimization problems. In my opinion, demand will continue to rise as governments and private investors fund quantum initiatives, recognizing superconducting chips as a leading contender for realizing practical quantum computing breakthroughs.
Opportunities have opened in captive industrial rooftops, data center campuses, and special formats such as floating PV, agrivoltaics, and carport canopies where land constraints prevail. Hybrid configurations that pair PV with lithium ion storage, flow batteries, or diesel displacement in microgrids have created bankable revenue stacking through energy shifting and frequency services. Brownfield repowering of early PV sites with high efficiency TOPCon or HJT modules has been enabled, lifting capacity within existing interconnection limits. Export potential for engineering, procurement, and construction services has grown as emerging markets scale auctions. I believe developers who combine merchant exposure management, structured PPAs, and standardized EPC templates will capture these opportunities while equipment vendors expand with skid based inverters, MV stations, and prefabricated wiring harness kits.
Trends indicate migration from PERC to TOPCon and HJT cell architectures, adoption of large wafer formats such as M10 and G12, and wider use of bifacial modules with optimized row spacing. Central and string inverter portfolios have been redesigned for higher current, 1500 Vdc architectures, and improved thermal management. Prefabricated skids, drone based surveying, and digital twins for construction sequencing have shortened schedules and reduced rework. Tracker fleets are moving to smart controls for wind stow and backtracking, lifting net specific yield. Grid code compliance, ride through, and advanced reactive power support are being embedded at design stage. In my opinion, these trends favor integrated design playbooks where module selection, inverter topology, and civil layout are co engineered to deliver superior LCOE.
Challenges have centered on module price volatility tied to polysilicon swings, foreign exchange risk, and evolving trade remedies that influence sourcing. Interconnection queues, limited transmission capacity, and curtailment risk have constrained buildout in several regions. Land acquisition, environmental clearances, and right of way create lead time uncertainty. Working capital is stressed by milestone heavy payment terms, while skilled labor availability and quality assurance across large workfronts pressure EPC margins. End of life management for modules and inverters requires clear take back pathways. In my assessment, winners will de risk supply, secure firm grid access early, and standardize designs to compress soft costs while maintaining strict QA and performance ratio targets through the full O&M period.
Country | CAGR |
---|---|
China | 11.2% |
India | 10.4% |
Germany | 9.5% |
France | 8.7% |
UK | 7.9% |
USA | 7.1% |
Brazil | 6.2% |
The global solar photovoltaic (PV) market is projected to grow at a CAGR of 8.3% from 2025 to 2035. China leads with a growth rate of 11.2%, followed by India at 10.4% and France at 8.7%. The United Kingdom records a growth rate of 7.9%, while the United States shows 7.1%. Expansion is driven by decarbonization targets, falling module and balance-of-system costs, maturing financing structures, and growing co-location with battery storage. Corporate PPAs, digital O&M, and grid-friendly inverters are further improving project economics and grid integration. Emerging markets scale utility and distributed PV rapidly, while developed markets emphasize repowering, storage hybrids, and grid upgrades. This report includes insights on 40+ countries; the top markets are shown here for reference.
The solar PV market in China is projected to grow at a CAGR of 11.2%. Expansion is propelled by massive utility-scale pipelines, accelerating distributed rooftop programs in industrial parks and residential districts, and strong local manufacturing that compresses costs and timelines. Large bases in high-irradiance regions are increasingly paired with energy storage and ultra-high-voltage transmission to shift midday output to evening peaks. Policy support favors standardized EPC, faster grid connections, and data-driven O&M to lift capacity factors. As repowering of early sites begins and agrivoltaics/industrial rooftop clusters scale, developers prioritize low-degradation modules, high-efficiency inverters, and AI-enabled forecasting to curb curtailment. Supply-chain localization from polysilicon to inverters sustains price competitiveness, while power market reforms open additional revenue through ancillary services and peak-shaving products.
The solar PV market in India is expected to grow at a CAGR of 10.4%. Utility-scale parks dominate capacity additions, but commercial-and-industrial rooftops are expanding on the back of predictable paybacks and open-access frameworks. Government tenders, domestic manufacturing incentives, and green transmission corridors are reducing execution risk and import exposure. Hybrid solar-plus-storage and solar-wind projects improve round-the-clock delivery, supporting DISCOM reliability targets. Developers emphasize high-temperature-tolerant modules, bifacial designs with single-axis tracking, and digital monitoring to maximize outputs in diverse climates. Rooftop programs for MSMEs and residential users, along with agricultural pumpset solarization, broaden demand. As grid codes tighten, smart inverters, reactive power support, and better forecasting are becoming standard to reduce curtailment and integrate rising variable generation.
The solar PV market in France is projected to grow at a CAGR of 8.7%. Growth is shaped by auction programs that favor cost-efficient ground-mounts, building-integrated PV, and agrivoltaics that co-optimize land use. Rising self-consumption and collective self-consumption schemes support distributed generation for SMEs and public buildings. Developers increasingly co-locate storage to meet ramping constraints and participate in flexibility markets. Emphasis on biodiversity, circularity, and recyclability of modules influences project design and procurement. Repowering of early installations with higher-efficiency modules boosts yields without enlarging footprints. Digital twins and condition-based maintenance reduce LCOE, while grid-friendly inverters and voltage support features ease interconnection in constrained regions.
The UK solar PV market is projected to grow at a CAGR of 7.9%. Utility-scale sites paired with battery storage underpin new additions, enabling peak-shifting and participation in balancing services. Corporate PPAs and merchant-plus-hedge models are expanding beyond traditional subsidy schemes, while rooftop PV grows across retail, logistics, and public estates. Developers prioritize biodiversity net gain, visual mitigation, and grid-friendly designs to secure planning approvals. Repowering and retrofit storage at legacy sites lift asset value. As grid queues lengthen, smart inverters, dynamic containment services, and voltage regulation capabilities are differentiators, alongside advanced forecasting and curtailment-minimizing layouts using bifacial modules and trackers where feasible.
The USA solar PV market is projected to grow at a CAGR of 7.1%. Utility-scale buildout leads growth, increasingly co-located with multi-hour storage to capture evening peaks and provide ancillary services. Federal incentives and domestic content bonuses drive manufacturing onshoring and improve project bankability, while state-level policies and capacity markets shape regional trajectories. C&I and community solar offer resilient demand as enterprises decarbonize and seek price certainty. Developers are adopting higher-efficiency bifacial modules, trackers tuned for diffuse light, and advanced SCADA/analytics to optimize yields across diverse climates. Interconnection backlogs and transmission bottlenecks remain constraints, elevating the value of grid-enhancing technologies and flexible operating strategies.
Competition in solar PV has been shaped by tracker specialists, module leaders, and steel integrators working to cut LCOE and lift energy yield. Nextracker and Array Technologies anchor large utility projects with bankable single axis fleets and global service coverage. Arctech, SOLTEC, PVHardware, STI Norland, IDEEMATEC, NCLAVE, MECASOLAR, Arctech, and GameChange Solar compete through terrain tolerance, rapid installation, and resilient stow logic. Trina Solar and SunPower provide module depth and project bankability that pair well with preferred tracker platforms. ArcelorMittal and Gonvarri Solar Steel reinforce supply with high strength galvanised sections and fast logistics. Regional players Powerway, Haosolar, Scorpius Trackers, and SmartTrak target cost sensitive tenders in Asia and the Middle East. All Earth Renewables focuses on distributed and C&I needs. This mix creates a field where software control, structural reliability, and delivery speed decide share.
Strategies are centered on bifacial optimisation, albedo capture, and uptime guarantees. Closed loop tracking with sky models and row to row shading control has been promoted to protect yield in variable weather. Designs with higher torsional rigidity, robust slew drives, and advanced dampers have been positioned to manage wind and hail events. Supply chain localisation, galvanic protection, and preassembled kits shorten erection time and reduce BOS spend. Product brochures highlight tracker stroke, slope accommodation, posts per megawatt, corrosion class, and IEC 62817 testing. Visuals typically present torque tube profiles, foundation options, and SCADA dashboards for performance analytics. Messaging stresses bankability, five to ten year O&M support, and energy gain from bifacial pairings. Clear calls to action point to warranty terms, verified performance in third party tests, and integration with major inverter and module SKUs. A confident narrative is delivered where predictable construction, resilient mechanics, and data driven control are portrayed as the most reliable path to lower cost per kilowatt hour.
Item | Value |
---|---|
Quantitative Units | USD 339.7 billion |
Connectivity | On grid and Off grid |
Mounting | Ground mounted and Roof top |
End Use | Utility, Residential, and Commercial & industrial |
Regions Covered | North America, Europe, Asia-Pacific, Latin America, Middle East & Africa |
Country Covered | United States, Canada, Germany, France, United Kingdom, China, Japan, India, Brazil, South Africa |
Key Companies Profiled | Nextracker Inc., ArcelorMittal, Array Technologies, Inc., Arctech, All Earth Renewables, Convert Italia, DEGERENERGIE GMBH & CO. KG, GameChange Solar, Gonvarri Solar Steel, Haosolar Co. Ltd, IDEEMATEC, MECASOLAR, NCLAVE, Powerway Renewable Energy Co., Ltd, PVHardware, Scorpius Trackers, SmartTrak Solar Systems (Pvt) Ltd., SOLTEC, STI Norland, SunPower Corporation, and Trina Solar |
Additional Attributes | Dollar sales by product type (monocrystalline, polycrystalline, thin film), Dollar sales by application (utility scale, commercial, residential), Trends in LCOE decline and bifacial uptake, Use in grid tied systems with storage pairing, Growth of rooftop adoption and corporate PPAs, Regional installation patterns across Asia Pacific, North America, and Europe. |
The global solar photovoltaic (PV) market is estimated to be valued at USD 339.7 billion in 2025.
The market size for the solar photovoltaic (PV) market is projected to reach USD 753.9 billion by 2035.
The solar photovoltaic (PV) market is expected to grow at a 8.3% CAGR between 2025 and 2035.
The key product types in solar photovoltaic (PV) market are on grid and off grid.
In terms of mounting, ground mounted segment to command 64.8% share in the solar photovoltaic (PV) market in 2025.
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