Concentrated Solar Power Market by Technology (Dish Stirling, Fresnel Reflector, Parabolic Trough), Capacity (50 To 100 MW, Above 100 MW, Below 50 MW), Application - Global Forecast 2025-2032
Description
The Concentrated Solar Power Market was valued at USD 7.89 billion in 2024 and is projected to grow to USD 9.14 billion in 2025, with a CAGR of 15.57%, reaching USD 25.14 billion by 2032.
A thorough opening perspective that outlines concentrated solar power fundamentals, technological evolution, and strategic implications for grid-scale decarbonization
Concentrated solar power remains a distinct pillar within the broader renewable energy transition, combining high-temperature thermal conversion with the capacity to deliver dispatchable power and industrial heat. Across varied topographies and grid architectures, CSP technologies convert direct normal irradiance into focused thermal energy, enabling thermal storage, hybridization with conventional fuels, and integration with industrial processes that require steady high-temperature input. As policymakers and utilities pursue decarbonization at scale, CSP’s ability to provide predictable, long-duration thermal energy positions it as a strategic complement to variable renewables.
Since its commercial emergence, CSP has evolved through incremental improvements in optics, thermal receivers, and storage media. Recent development cycles emphasize cost competitiveness through modular manufacturing, enhanced thermal storage materials such as molten salts and solid particle media, and improved plant operations enabled by advanced control systems. Transitioning from proof-of-concept facilities to utility-scale deployments necessitates careful alignment of site selection, grid interconnection, and heat integration strategies. Thus, project developers and investors must weigh technical maturity, operational risk, and policy incentives to optimize project design and commercial outcomes.
How rapid technological advances, policy incentives, and hybrid business models are reshaping the concentrated solar power ecosystem and commercial pathways
The landscape for concentrated solar power is transforming as technological refinements, policy shifts, and changing finance dynamics converge. Innovations in receiver materials and heat-transfer fluids improve thermal conversion efficiency and expand the viable temperature envelope for industrial heat applications, while advances in thermal storage chemistry extend discharge duration and reduce parasitic losses. Concurrently, digitalization-through asset performance monitoring, predictive maintenance, and model-based control-enables higher capacity factors and lower operational expenditures, making CSP more attractive to utility and industrial buyers.
Policy incentives and procurement trends are catalyzing new business models that value dispatchability and firming capacity. Procurement instruments that recognize capacity value and enable long-duration storage revenue streams enhance CSP’s commercial appeal. Supply chain evolution toward localized manufacturing and modular assembly is reducing project lead times and enabling more competitive tender responses. In parallel, hybrid configurations that combine CSP with photovoltaic arrays, battery storage, or thermal-to-hydrogen conversion facilities broaden the application set and create new revenue stacking opportunities. Taken together, these shifts are transitioning CSP from niche large-scale demonstrations to pragmatic options for utilities and industrial energy users focused on reliable, low-carbon thermal and electrical output.
The cumulative ripple effects of evolving United States tariff policy through 2025 on procurement strategies, supply chain localization, and project risk allocation
The imposition and evolution of United States tariffs through 2025 have had a pronounced influence on CSP project economics, supply chain design, and procurement strategies. Tariff measures increase the relative cost of imported components, which in turn prompts developers to re-evaluate sourcing strategies for receivers, mirrors, tracking systems, and storage equipment. As a consequence, project timelines adjust to account for alternative suppliers, potential qualification testing, and logistics reconfiguration. Financial models now routinely incorporate higher procurement risk premiums and longer lead-time assumptions when imported content is material to project scope.
In response to tariff-induced cost pressures, stakeholders pursue several adaptive strategies. Some equipment manufacturers accelerate domestic capacity expansion to better align with regulatory preferences and to mitigate duties. Others pursue tariff engineering through component redesign or componentization that shifts manufacturing steps across jurisdictions. Additionally, project teams increasingly prioritize supply chain due diligence and strategic inventory planning to avoid schedule slippage. Policy responses that couple tariff regimes with domestic incentive programs can create a rebalanced competitive landscape where local manufacturing receives targeted support, but these dynamics also introduce near-term uncertainty around procurement cost baselines and contractual escalation clauses. Consequently, sponsors and EPC firms must build flexible sourcing roadmaps and scenario-conditioned financing structures to sustain project bankability in a shifting trade environment.
Segment-driven analysis explaining how technology choice, project scale, and application use cases jointly determine optimal design and investment approaches for CSP
Analytical segmentation reveals differentiated value drivers across technology pathways, capacity tiers, and application use cases, which in turn inform project design and investor appetite. Based on technology, the market is studied across Dish Stirling, Fresnel Reflector, Parabolic Trough, and Solar Power Tower, each offering distinct trade-offs between thermal efficiency, construction complexity, and operability. Dish Stirling systems excel where high concentration ratios and modular deployment are prioritized; Fresnel reflectors reduce capital intensity with simpler optics; parabolic troughs balance maturity and operational experience; and solar power towers enable the highest operating temperatures suitable for industrial process heat and advanced storage solutions.
Based on capacity, the market is studied across 50 To 100 MW, Above 100 MW, and Below 50 MW, reflecting how economies of scale, grid connection requirements, and financing structures shift across project sizes. Projects below 50 MW benefit from modularity and faster permitting cycles, mid-sized 50–100 MW plants often target utility procurements with favorable capacity attributes, and larger-than-100 MW facilities pursue scale efficiencies and integrated storage to provide multi-hour firming. Based on application, the market is studied across Desalination, Electricity Generation, and Industrial Process Heat, pointing to distinct design priorities: desalination requires reliable thermal supply and siting near water resources; electricity generation emphasizes storage duration and grid services; and industrial process heat demands specific temperature profiles and integration with existing thermal systems. Understanding these segmentation layers enables tailored technology selection, optimized contract structures, and more accurate operational performance expectations.
Regional strategic nuances that determine deployment models, local manufacturing incentives, and integration pathways for concentrated solar power across global markets
Regional dynamics materially influence deployment strategies, regulatory incentives, and supply chain configurations for concentrated solar power. In the Americas, regulatory frameworks increasingly reward dispatchable low-carbon energy, and utilities focus on integrating long-duration storage to meet evening and winter peak demands. Developers here favor hybridization paths that combine CSP with existing variable renewables and storage to create firm capacity solutions that align with interconnection constraints and regional resource profiles.
In Europe, Middle East & Africa, policy priorities differ across jurisdictions but commonly emphasize industrial decarbonization and water-energy nexus challenges. Southern Europe and parts of the Middle East prioritize high-temperature applications and desalination integration, while select African markets evaluate CSP as a means to provide reliable baseload power in grids with limited storage capacity. Regional procurement patterns and finance mechanisms shape the pace and structure of project pipelines.
Across Asia-Pacific, rapid industrialization and strong solar insolation in many corridors drive interest in CSP for both electricity and process heat. National industrial policies and local content requirements influence supply chain localization and joint-venture models, while technological experimentation-such as integrating CSP with hydrogen production or heavy industry heat loads-gains traction. Taken together, these regional differences necessitate market-entry strategies that adapt to policy, resource, and commercial realities specific to each geography.
How strategic behaviors of equipment makers, EPC firms, financiers, and operations specialists are creating competitive differentiation in the concentrated solar power value chain
Leading participants across the CSP value chain demonstrate convergent strategic behaviors that reveal industry maturation and competitive differentiation. Equipment manufacturers increasingly emphasize modular production techniques and standardized components to shorten lead times and reduce commissioning risk. Engineering, procurement, and construction partners focus on integrated delivery models that bundle optical assembly, receiver installation, and thermal storage commissioning under single accountability frameworks to simplify performance guarantees and align incentives with long-term plant reliability.
Financiers and utilities are elevating technical due diligence to include thermal storage degradation patterns, operations staffing models, and revenue stacking opportunities from grid services and industrial off-take contracts. Strategic alliances between technology developers, industrial offtakers, and storage specialists are becoming more common, forming consortiums that de-risk first-of-a-kind integrations such as CSP-to-hydrogen and CSP-driven desalination. Meanwhile, operations firms are investing in advanced analytics and remote diagnostics to extend component life and optimize dispatch, thereby reducing levelized operational costs and improving availability metrics across diverse climatic conditions.
Practical, prioritized actions industry leaders can take to strengthen resilience, secure offtake, and accelerate deployment of concentrated solar power projects
Industry leaders can take concrete steps to capitalize on the momentum in concentrated solar power while managing policy and supply chain uncertainty. First, prioritize supply chain resilience by qualifying multiple suppliers across geographies and by developing options for domestic assembly or licensed manufacturing to mitigate tariff exposure. Second, invest early in thermal storage engineering and receiver validation to ensure that plant performance aligns with long-duration dispatch requirements and industrial temperature profiles. These investments reduce operational risk and improve the attractiveness of projects to conservative lenders.
Third, pursue commercial structures that maximize revenue stacking, including capacity contracts, merchant energy sales with structured hedging, and integrated offtake arrangements for desalination or process heat. Fourth, pursue strategic partnerships with industrial offtakers and utilities to co-develop projects that internalize fuel-switching benefits and reduce market entry friction. Fifth, integrate robust digital operations and predictive maintenance regimes to increase availability and lower lifecycle costs. Finally, engage proactively with policymakers to shape procurement frameworks that recognize the unique value of dispatchable solar thermal generation and to secure incentives that support local manufacturing and grid integration.
A transparent, mixed-methods research approach that integrates field interviews, operational data, and scenario modelling to support pragmatic decision-making in CSP initiatives
The research underpinning this analysis synthesizes multiple data streams and empirical case studies to produce practical, decision-ready intelligence. Primary inputs include structured interviews with plant operators, EPC contractors, technology providers, and utility procurement officers, complemented by technical performance data from operating CSP installations and commissioning reports. Secondary sources incorporate government energy agency datasets, patent filings, peer-reviewed journals on thermal storage materials, and academic studies on solar resource assessment and high-temperature receivers.
Analytical methods combine qualitative scenario analysis with quantitative performance modelling calibrated to real-world operational datasets. Sensitivity testing evaluates the impact of procurement cost changes, storage efficiency improvements, and tariff permutations on project constructability and dispatch characteristics. Case studies illustrate technology-specific integration challenges and successful contractual constructs. The methodology emphasizes transparency in assumptions and provides scenario appendices that allow clients to re-run key analyses under alternate operational and policy conditions.
A conclusive perspective on how coordinated technological, policy, and financial measures can transition concentrated solar power from niche projects to a mainstream decarbonization solution
Concentrated solar power stands at a pivotal juncture where technological readiness, policy incentives, and strategic finance mechanisms can combine to unlock broader commercial adoption. The technology’s core strength-its ability to provide high-temperature thermal energy and long-duration dispatch-is increasingly relevant to utilities seeking firming capacity and to industrial sectors requiring decarbonized process heat. To realize this potential, stakeholders must navigate evolving trade policies, align procurement frameworks to recognize capacity attributes, and invest in manufacturing and operations practices that lower risk and shorten project timelines.
Looking ahead, CSP’s trajectory hinges on pragmatic collaborations between technology providers, industrial offtakers, financiers, and policymakers. When these stakeholders align incentives around proven performance metrics and credible revenue streams, CSP can move from selective deployments to a more mainstream role within integrated clean energy systems. Continued focus on storage innovation, supply chain localization, and hybrid system design will determine the speed and scale at which CSP contributes to broader decarbonization goals.
Please Note: PDF & Excel + Online Access - 1 Year
A thorough opening perspective that outlines concentrated solar power fundamentals, technological evolution, and strategic implications for grid-scale decarbonization
Concentrated solar power remains a distinct pillar within the broader renewable energy transition, combining high-temperature thermal conversion with the capacity to deliver dispatchable power and industrial heat. Across varied topographies and grid architectures, CSP technologies convert direct normal irradiance into focused thermal energy, enabling thermal storage, hybridization with conventional fuels, and integration with industrial processes that require steady high-temperature input. As policymakers and utilities pursue decarbonization at scale, CSP’s ability to provide predictable, long-duration thermal energy positions it as a strategic complement to variable renewables.
Since its commercial emergence, CSP has evolved through incremental improvements in optics, thermal receivers, and storage media. Recent development cycles emphasize cost competitiveness through modular manufacturing, enhanced thermal storage materials such as molten salts and solid particle media, and improved plant operations enabled by advanced control systems. Transitioning from proof-of-concept facilities to utility-scale deployments necessitates careful alignment of site selection, grid interconnection, and heat integration strategies. Thus, project developers and investors must weigh technical maturity, operational risk, and policy incentives to optimize project design and commercial outcomes.
How rapid technological advances, policy incentives, and hybrid business models are reshaping the concentrated solar power ecosystem and commercial pathways
The landscape for concentrated solar power is transforming as technological refinements, policy shifts, and changing finance dynamics converge. Innovations in receiver materials and heat-transfer fluids improve thermal conversion efficiency and expand the viable temperature envelope for industrial heat applications, while advances in thermal storage chemistry extend discharge duration and reduce parasitic losses. Concurrently, digitalization-through asset performance monitoring, predictive maintenance, and model-based control-enables higher capacity factors and lower operational expenditures, making CSP more attractive to utility and industrial buyers.
Policy incentives and procurement trends are catalyzing new business models that value dispatchability and firming capacity. Procurement instruments that recognize capacity value and enable long-duration storage revenue streams enhance CSP’s commercial appeal. Supply chain evolution toward localized manufacturing and modular assembly is reducing project lead times and enabling more competitive tender responses. In parallel, hybrid configurations that combine CSP with photovoltaic arrays, battery storage, or thermal-to-hydrogen conversion facilities broaden the application set and create new revenue stacking opportunities. Taken together, these shifts are transitioning CSP from niche large-scale demonstrations to pragmatic options for utilities and industrial energy users focused on reliable, low-carbon thermal and electrical output.
The cumulative ripple effects of evolving United States tariff policy through 2025 on procurement strategies, supply chain localization, and project risk allocation
The imposition and evolution of United States tariffs through 2025 have had a pronounced influence on CSP project economics, supply chain design, and procurement strategies. Tariff measures increase the relative cost of imported components, which in turn prompts developers to re-evaluate sourcing strategies for receivers, mirrors, tracking systems, and storage equipment. As a consequence, project timelines adjust to account for alternative suppliers, potential qualification testing, and logistics reconfiguration. Financial models now routinely incorporate higher procurement risk premiums and longer lead-time assumptions when imported content is material to project scope.
In response to tariff-induced cost pressures, stakeholders pursue several adaptive strategies. Some equipment manufacturers accelerate domestic capacity expansion to better align with regulatory preferences and to mitigate duties. Others pursue tariff engineering through component redesign or componentization that shifts manufacturing steps across jurisdictions. Additionally, project teams increasingly prioritize supply chain due diligence and strategic inventory planning to avoid schedule slippage. Policy responses that couple tariff regimes with domestic incentive programs can create a rebalanced competitive landscape where local manufacturing receives targeted support, but these dynamics also introduce near-term uncertainty around procurement cost baselines and contractual escalation clauses. Consequently, sponsors and EPC firms must build flexible sourcing roadmaps and scenario-conditioned financing structures to sustain project bankability in a shifting trade environment.
Segment-driven analysis explaining how technology choice, project scale, and application use cases jointly determine optimal design and investment approaches for CSP
Analytical segmentation reveals differentiated value drivers across technology pathways, capacity tiers, and application use cases, which in turn inform project design and investor appetite. Based on technology, the market is studied across Dish Stirling, Fresnel Reflector, Parabolic Trough, and Solar Power Tower, each offering distinct trade-offs between thermal efficiency, construction complexity, and operability. Dish Stirling systems excel where high concentration ratios and modular deployment are prioritized; Fresnel reflectors reduce capital intensity with simpler optics; parabolic troughs balance maturity and operational experience; and solar power towers enable the highest operating temperatures suitable for industrial process heat and advanced storage solutions.
Based on capacity, the market is studied across 50 To 100 MW, Above 100 MW, and Below 50 MW, reflecting how economies of scale, grid connection requirements, and financing structures shift across project sizes. Projects below 50 MW benefit from modularity and faster permitting cycles, mid-sized 50–100 MW plants often target utility procurements with favorable capacity attributes, and larger-than-100 MW facilities pursue scale efficiencies and integrated storage to provide multi-hour firming. Based on application, the market is studied across Desalination, Electricity Generation, and Industrial Process Heat, pointing to distinct design priorities: desalination requires reliable thermal supply and siting near water resources; electricity generation emphasizes storage duration and grid services; and industrial process heat demands specific temperature profiles and integration with existing thermal systems. Understanding these segmentation layers enables tailored technology selection, optimized contract structures, and more accurate operational performance expectations.
Regional strategic nuances that determine deployment models, local manufacturing incentives, and integration pathways for concentrated solar power across global markets
Regional dynamics materially influence deployment strategies, regulatory incentives, and supply chain configurations for concentrated solar power. In the Americas, regulatory frameworks increasingly reward dispatchable low-carbon energy, and utilities focus on integrating long-duration storage to meet evening and winter peak demands. Developers here favor hybridization paths that combine CSP with existing variable renewables and storage to create firm capacity solutions that align with interconnection constraints and regional resource profiles.
In Europe, Middle East & Africa, policy priorities differ across jurisdictions but commonly emphasize industrial decarbonization and water-energy nexus challenges. Southern Europe and parts of the Middle East prioritize high-temperature applications and desalination integration, while select African markets evaluate CSP as a means to provide reliable baseload power in grids with limited storage capacity. Regional procurement patterns and finance mechanisms shape the pace and structure of project pipelines.
Across Asia-Pacific, rapid industrialization and strong solar insolation in many corridors drive interest in CSP for both electricity and process heat. National industrial policies and local content requirements influence supply chain localization and joint-venture models, while technological experimentation-such as integrating CSP with hydrogen production or heavy industry heat loads-gains traction. Taken together, these regional differences necessitate market-entry strategies that adapt to policy, resource, and commercial realities specific to each geography.
How strategic behaviors of equipment makers, EPC firms, financiers, and operations specialists are creating competitive differentiation in the concentrated solar power value chain
Leading participants across the CSP value chain demonstrate convergent strategic behaviors that reveal industry maturation and competitive differentiation. Equipment manufacturers increasingly emphasize modular production techniques and standardized components to shorten lead times and reduce commissioning risk. Engineering, procurement, and construction partners focus on integrated delivery models that bundle optical assembly, receiver installation, and thermal storage commissioning under single accountability frameworks to simplify performance guarantees and align incentives with long-term plant reliability.
Financiers and utilities are elevating technical due diligence to include thermal storage degradation patterns, operations staffing models, and revenue stacking opportunities from grid services and industrial off-take contracts. Strategic alliances between technology developers, industrial offtakers, and storage specialists are becoming more common, forming consortiums that de-risk first-of-a-kind integrations such as CSP-to-hydrogen and CSP-driven desalination. Meanwhile, operations firms are investing in advanced analytics and remote diagnostics to extend component life and optimize dispatch, thereby reducing levelized operational costs and improving availability metrics across diverse climatic conditions.
Practical, prioritized actions industry leaders can take to strengthen resilience, secure offtake, and accelerate deployment of concentrated solar power projects
Industry leaders can take concrete steps to capitalize on the momentum in concentrated solar power while managing policy and supply chain uncertainty. First, prioritize supply chain resilience by qualifying multiple suppliers across geographies and by developing options for domestic assembly or licensed manufacturing to mitigate tariff exposure. Second, invest early in thermal storage engineering and receiver validation to ensure that plant performance aligns with long-duration dispatch requirements and industrial temperature profiles. These investments reduce operational risk and improve the attractiveness of projects to conservative lenders.
Third, pursue commercial structures that maximize revenue stacking, including capacity contracts, merchant energy sales with structured hedging, and integrated offtake arrangements for desalination or process heat. Fourth, pursue strategic partnerships with industrial offtakers and utilities to co-develop projects that internalize fuel-switching benefits and reduce market entry friction. Fifth, integrate robust digital operations and predictive maintenance regimes to increase availability and lower lifecycle costs. Finally, engage proactively with policymakers to shape procurement frameworks that recognize the unique value of dispatchable solar thermal generation and to secure incentives that support local manufacturing and grid integration.
A transparent, mixed-methods research approach that integrates field interviews, operational data, and scenario modelling to support pragmatic decision-making in CSP initiatives
The research underpinning this analysis synthesizes multiple data streams and empirical case studies to produce practical, decision-ready intelligence. Primary inputs include structured interviews with plant operators, EPC contractors, technology providers, and utility procurement officers, complemented by technical performance data from operating CSP installations and commissioning reports. Secondary sources incorporate government energy agency datasets, patent filings, peer-reviewed journals on thermal storage materials, and academic studies on solar resource assessment and high-temperature receivers.
Analytical methods combine qualitative scenario analysis with quantitative performance modelling calibrated to real-world operational datasets. Sensitivity testing evaluates the impact of procurement cost changes, storage efficiency improvements, and tariff permutations on project constructability and dispatch characteristics. Case studies illustrate technology-specific integration challenges and successful contractual constructs. The methodology emphasizes transparency in assumptions and provides scenario appendices that allow clients to re-run key analyses under alternate operational and policy conditions.
A conclusive perspective on how coordinated technological, policy, and financial measures can transition concentrated solar power from niche projects to a mainstream decarbonization solution
Concentrated solar power stands at a pivotal juncture where technological readiness, policy incentives, and strategic finance mechanisms can combine to unlock broader commercial adoption. The technology’s core strength-its ability to provide high-temperature thermal energy and long-duration dispatch-is increasingly relevant to utilities seeking firming capacity and to industrial sectors requiring decarbonized process heat. To realize this potential, stakeholders must navigate evolving trade policies, align procurement frameworks to recognize capacity attributes, and invest in manufacturing and operations practices that lower risk and shorten project timelines.
Looking ahead, CSP’s trajectory hinges on pragmatic collaborations between technology providers, industrial offtakers, financiers, and policymakers. When these stakeholders align incentives around proven performance metrics and credible revenue streams, CSP can move from selective deployments to a more mainstream role within integrated clean energy systems. Continued focus on storage innovation, supply chain localization, and hybrid system design will determine the speed and scale at which CSP contributes to broader decarbonization goals.
Please Note: PDF & Excel + Online Access - 1 Year
Table of Contents
183 Pages
- 1. Preface
- 1.1. Objectives of the Study
- 1.2. Market Segmentation & Coverage
- 1.3. Years Considered for the Study
- 1.4. Currency
- 1.5. Language
- 1.6. Stakeholders
- 2. Research Methodology
- 3. Executive Summary
- 4. Market Overview
- 5. Market Insights
- 5.1. Advanced molten salt thermal storage integration strategies for large scale tower CSP plants
- 5.2. Deployment of modular micro-CSP units for distributed industrial process heat generation
- 5.3. Development of high-temperature ceramic receiver coatings to enhance CSP plant efficiency
- 5.4. Integration of concentrated solar power with green hydrogen production facilities
- 5.5. Application of digital twin and AI-driven predictive maintenance in CSP operations
- 5.6. Financing innovations and power purchase agreement structures for emerging CSP projects
- 5.7. Advances in heliostat mirror manufacturing and automated cleaning systems for CSP fields
- 5.8. Hybridization of CSP with photovoltaic and wind power in utility-scale renewable parks
- 5.9. Deployment of water-efficient dry-cooling technologies for CSP plants in arid regions
- 5.10. Policy frameworks and incentives driving CSP deployment in emerging Asian markets
- 6. Cumulative Impact of United States Tariffs 2025
- 7. Cumulative Impact of Artificial Intelligence 2025
- 8. Concentrated Solar Power Market, by Technology
- 8.1. Dish Stirling
- 8.2. Fresnel Reflector
- 8.3. Parabolic Trough
- 8.4. Solar Power Tower
- 9. Concentrated Solar Power Market, by Capacity
- 9.1. 50 To 100 MW
- 9.2. Above 100 MW
- 9.3. Below 50 MW
- 10. Concentrated Solar Power Market, by Application
- 10.1. Desalination
- 10.2. Electricity Generation
- 10.3. Industrial Process Heat
- 11. Concentrated Solar Power Market, by Region
- 11.1. Americas
- 11.1.1. North America
- 11.1.2. Latin America
- 11.2. Europe, Middle East & Africa
- 11.2.1. Europe
- 11.2.2. Middle East
- 11.2.3. Africa
- 11.3. Asia-Pacific
- 12. Concentrated Solar Power Market, by Group
- 12.1. ASEAN
- 12.2. GCC
- 12.3. European Union
- 12.4. BRICS
- 12.5. G7
- 12.6. NATO
- 13. Concentrated Solar Power Market, by Country
- 13.1. United States
- 13.2. Canada
- 13.3. Mexico
- 13.4. Brazil
- 13.5. United Kingdom
- 13.6. Germany
- 13.7. France
- 13.8. Russia
- 13.9. Italy
- 13.10. Spain
- 13.11. China
- 13.12. India
- 13.13. Japan
- 13.14. Australia
- 13.15. South Korea
- 14. Competitive Landscape
- 14.1. Market Share Analysis, 2024
- 14.2. FPNV Positioning Matrix, 2024
- 14.3. Competitive Analysis
- 14.3.1. Abengoa S.A.
- 14.3.2. Acciona S.A.
- 14.3.3. BrightSource Energy Inc.
- 14.3.4. ACWA Power
- 14.3.5. Torresol Energy Investments S.A.
- 14.3.6. Cobra Instalaciones y Servicios S.A.
- 14.3.7. Sener Grupo de Ingeniería S.A.
- 14.3.8. TSK Flagsol Engineering GmbH
- 14.3.9. Rioglass Solar S.A.
- 14.3.10. Siemens Energy AG
- 14.3.11. General Electric Company
- 14.3.12. Atlantica Sustainable Infrastructure plc
- 14.3.13. Aalborg CSP A/S
- 14.3.14. Brenmiller Energy Ltd.
- 14.3.15. Heliogen Inc.
- 14.3.16. SunCNG LLC
- 14.3.17. SUPCON SOLAR
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