Concentrating Solar Thermal Technology Status

Total Page:16

File Type:pdf, Size:1020Kb

Concentrating Solar Thermal Technology Status CONCENTRATING SOLAR THERMAL TECHNOLOGY STATUS INFORMING A CSP ROADMAP FOR AUSTRALIA AUGUST 2018 Concentrating Solar Thermal Power Technology Status About ITP The ITP Energised Group, formed in 1981, is a specialist renewable energy, energy efficiency and carbon markets consulting company. The group has offices and projects throughout the world. IT Power (Australia) was established in 2003 and has undertaken a wide range of projects, including designing grid-connected renewable power systems, providing advice for government policy, feasibility studies for large, off-grid power systems, developing micro-finance models for community-owned power systems in developing countries and modelling large-scale power systems for industrial use. ITP Thermal Pty Ltd was established in early 2016 as a new company within the ITP Energised group, with a mandate to lead solar thermal projects globally. In doing so it accesses staff and resources in the other ITP Energised group companies as appropriate. About this report This report is ITP’s input on CSP industry background to a Roadmap study lead by Jeanes Holland and associates working with ITP. Energeia and Flinders University AITA. This report serves as a technical appendix to the roadmap and it can also be read as a stand alone document. ii ITP/T0036 – Informing a CSP Roadmap for Australia August 2018 Concentrating Solar Thermal Power Technology Status Report Control Record Document prepared by: IT P Thermal Pty Limited 19 Moore Street, Turner, ACT, 2612, Australia PO Box 6127, O’Connor, ACT, 2602, Australia Tel. +61 2 6257 3511 Fax. +61 2 6257 3611 E-mail: [email protected] http://www.itpau.com.au Document Control Report title Concentrating Solar Thermal Power Technology Status Client Contract No. 21/12/2017 ITP Project Number T0036 File path G:\Work\0Projects\ Thermal Projects\T0036 CSP Roadmap\ ITP_CSPRoadmap1.0.docx Jeanes Holland and Client Associates / Australian Client Contact D Holland / D Zaal Renewable Energy Agency Rev Date Status Author/s Project Manager Approved K Lovegrove, R Bader, D Fernandez, K 1.0 4/3/2018 Draft K Lovegrove K Lovegrove Urkalan. 2.0 25/4/2018 Draft K Lovegrove, R Bader, D Fernandez, K K Lovegrove K Lovegrove Urkalan. 3.0 17/8/2018 Final K Lovegrove, R Bader, D Fernandez, K K Lovegrove K Lovegrove Urkalan. A person or organisation choosing to use documents prepared by ITP Thermal Pty Ltd accepts the following: a) Conclusions and figures presented in draft documents are subject to change. ITP Thermal Pty Ltd accepts no responsibility for their use outside of the original report. b) The document is only to be used for purposes explicitly agreed to by ITP Thermal Pty Ltd. c) All responsibility and risks associated with the use of this report lie with the person or organisation who chooses to use it. ITP/T0036 – Informing a CSP Roadmap for Australia iii August 2018 Concentrating Solar Thermal Power Technology Status CONTENTS EXECUTIVE SUMMARY ................................................................................................... 9 1. INTRODUCTION ....................................................................................................... 20 2. CSP TECHNOLOGY ................................................................................................. 21 2.1. Concentrator types.............................................................................................. 23 2.2. Electricity Generation .......................................................................................... 31 2.3. Thermal Energy Storage ..................................................................................... 39 3. GLOBAL STATUS .................................................................................................... 43 3.1. Installed Capacity................................................................................................ 43 3.2. System reliability ................................................................................................. 44 3.3. Key commercial players ...................................................................................... 48 3.4. Key countries ...................................................................................................... 52 4. SERVICES AND BENEFITS ..................................................................................... 60 4.1. Firm capacity ...................................................................................................... 60 4.2. Carbon Emission Savings ................................................................................... 62 4.3. Moving energy sales to high demand periods ..................................................... 62 4.4. Ancillary services ................................................................................................ 63 4.5. Whole electrical network avoided cost ................................................................ 63 4.6. Community / society benefits .............................................................................. 64 4.7. Option / hedging value ........................................................................................ 68 4.8. Combining values ............................................................................................... 68 5. CSP ACTIVITY IN AUSTRALIA ............................................................................... 70 5.1. Installed CSP systems ........................................................................................ 70 5.2. ARENA funded R&D ........................................................................................... 78 5.3. Previous studies of CSP potential in Australia .................................................... 80 5.4. ARENA’s CST Request for Information .............................................................. 92 5.5. Summary ............................................................................................................ 94 6. CSP POWER STATION PERFORMANCE AND REQUIREMENTS ........................ 95 6.1. Solar Resource ................................................................................................... 95 6.2. Performance of CSP Technologies ..................................................................... 96 6.3. Environmental considerations ........................................................................... 105 6.4. Water use ......................................................................................................... 106 iv ITP/T0036 – Informing a CSP Roadmap for Australia August 2018 Concentrating Solar Thermal Power Technology Status 6.5. Land area .......................................................................................................... 107 6.6. Staffing levels ................................................................................................... 109 6.7. Construction time .............................................................................................. 111 7. COST OF CSP ENERGY IN AUSTRALIA .............................................................. 112 7.1. Levelised Cost of Energy .................................................................................. 112 7.2. Cost Structure ................................................................................................... 112 7.3. Examination of LCOE sensitivity ....................................................................... 122 7.4. Comparison with other dispatchable renewable generation technologies ........ 126 8. FUTURE TRENDS .................................................................................................. 128 8.1. Growth Trends .................................................................................................. 128 8.2. Cost Reduction Potential .................................................................................. 133 8.3. Technology R&D areas ..................................................................................... 141 9. CONCLUSIONS ...................................................................................................... 147 10. REFERENCES ........................................................................................................ 149 APPENDIX A. LCOE METHODOLOGY ..................................................................... 155 ITP/T0036 – Informing a CSP Roadmap for Australia v August 2018 Concentrating Solar Thermal Power Technology Status LIST OF ABBREVIATIONS AC Alternating current AEMO Australian Energy Market Operator AITI Australian Industrial Transformation Institute (Flinders University) ANU Australian National University APPA Spanish Renewable Energies Association ARENA Australian Renewable Energy Agency ASI Australian Solar Institute ASTRI Australian Solar Thermal Research Institute AU Australian AUD Australian Dollar AZ Arizona BOM Bureau of Meteorology (Australia) BOP Balance of Plant CAGR Compound average growth rate CC Combined cycle CERC Central Electricity Regulatory Commission (India) CHP Combined Heat and Power CLFR Compact linear Fresnel reflector CO2 Carbon dioxide COAG Council of Australian Governments CPV Concentrator Photovoltaics CRC Cooperative Research Centre CSIRO Commonwealth Scientific and Industrial Research Organisation CSP Concentrating Solar Power CST Concentrating Solar Thermal CUF Capacity Utilisation Factor DLR German Aerospace Centre DNI Direct Normal Solar Irradiance DOE Department of Energy DSG Direct Steam Generation EIA U.S. Energy Information
Recommended publications
  • Environmental Impact Assessment
    Environmental Impact Assessment Study for the proposed Concentrated Solar Power Plant (Parabolic Trough) on the farm Sand Draai 391, Northern Cape – Environmental Scoping Report A Report for Solafrica 14/12/16/3/3/3/203 – Parabolic Trough DOCUMENT DESCRIPTION Client: Solafrica Energy (Pty) Ltd Project Name: Environmental Impact Assessment Study for the proposed Concentrated Solar Power Plant (Parabolic Trough) on the farm Sand Draai 391, Northern Cape Royal HaskoningDHV Reference Number: T01.JNB.000565 Authority Reference Number: 14/12/16/3/3/3/203 – Parabolic Trough Compiled by: Johan Blignaut Date: July 2015 Location: Woodmead Review: Prashika Reddy & Malcolm Roods Approval: Malcolm Roods _____________________________ Signature © Royal HaskoningDHV All rights reserved. No part of this publication may be reproduced or transmitted in any form or by any means, electronic or mechanical, without the written permission from Royal HaskoningDHV. Table of Contents 1 INTRODUCTION ........................................................................................................................................... 1 1.1 Background ............................................................................................................................................ 1 1.2 Need and Desirability ............................................................................................................................. 1 1.2.1 Renewable Energy Independent Power Producers Programme (REIPPPP) and Integrated Resource Plan (2010) ....................................................................................................................
    [Show full text]
  • Analysis of New International Interconnectors to the South African Power System
    Analysis of new international interconnectors to the South African power system 08-01-2016 1 2 Table of contents Key findings .......................................................................................................... 4 Introduction .......................................................................................................... 6 The South African power system ........................................................................... 7 Methodology and scenarios ................................................................................... 9 Scenarios .............................................................................................................. 11 Reference scenario ............................................................................................... 11 Hydro import scenarios ........................................................................................ 12 Value of interconnectors ...................................................................................... 13 Main results and conclusions ............................................................................... 15 Economic consequences for the system .............................................................. 17 Value of increasing interconnector capacity internally in South Africa ............... 19 Conclusion ............................................................................................................ 20 Detailed results of the scenario analysis ..............................................................
    [Show full text]
  • CSP Technologies
    CSP Technologies Solar Solar Power Generation Radiation fuel Concentrating the solar radiation in Concentrating Absorbing Storage Generation high magnification and using this thermal energy for power generation Absorbing/ fuel Reaction Features of Each Types of Solar Power PTC Type CRS Type Dish type 1Axis Sun tracking controller 2 Axis Sun tracking controller 2 Axis Sun tracking controller Concentrating rate : 30 ~ 100, ~400 oC Concentrating rate: 500 ~ 1,000, Concentrating rate: 1,000 ~ 10,000 ~1,500 oC Parabolic Trough Concentrator Parabolic Dish Concentrator Central Receiver System CSP Technologies PTC CRS Dish commercialized in large scale various types (from 1 to 20MW ) Stirling type in ~25kW size (more than 50MW ) developing the technology, partially completing the development technology development is already commercialized efficiency ~30% reached proper level, diffusion level efficiency ~16% efficiency ~12% CSP Test Facilities Worldwide Parabolic Trough Concentrator In 1994, the first research on high temperature solar technology started PTC technology for steam generation and solar detoxification Parabolic reflector and solar tracking system were developed <The First PTC System Installed in KIER(left) and Second PTC developed by KIER(right)> Dish Concentrator 1st Prototype: 15 circular mirror facets/ 2.2m focal length/ 11.7㎡ reflection area 2nd Prototype: 8.2m diameter/ 4.8m focal length/ 36㎡ reflection area <The First(left) and Second(right) KIER’s Prototype Dish Concentrator> Dish Concentrator Two demonstration projects for 10kW dish-stirling solar power system Increased reflection area(9m dia. 42㎡) and newly designed mirror facets Running with Solo V161 Stirling engine, 19.2% efficiency (solar to electricity) <KIER’s 10kW Dish-Stirling System in Jinhae City> Dish Concentrator 25 20 15 (%) 10 발전 효율 5 Peak.
    [Show full text]
  • Genesis Solar Energy Project PA/FEIS 4.1-1 August 2010 4
    CHAPTER 4 Environmental Consequences 4.1 Introduction This chapter assesses environmental impacts that would occur due to the implementation of proposed action or the alternatives described in Chapter 2. The baseline affected environment, or existing condition, is described in Chapter 3. 4.1.1 Analytical Assumptions The following impacts analysis was conducted with the following assumptions: 1. The laws, regulations, and policies applicable to BLM authorizing ROW grants for renewable energy development facilities would be applied consistently for all action alternatives. 2. The proposed facility would be constructed, operated, maintained and decommissioned as described in each action alternative. 3. Short-term impacts are those expected to occur during the construction phase and the first five years of the operation and maintenance phase. Long-term impacts are those that would occur after the first five years of operation. 4.1.2 Types of Effects The potential impacts from those actions that would have direct, indirect, and cumulative effects were considered for each resource. Effects and impacts as used in this document are synonymous and could be beneficial or detrimental. Direct effects are caused by the action and occur at the same time and place as the action; indirect effects are caused by the action and occur later in time or further in distance, but are still reasonably foreseeable. 40 CFR 1508.8. Cumulative impacts are those effects resulting from the incremental impacts of an action when combined with other past, present, and reasonably foreseeable future actions (regardless of which agency or person undertakes such actions). 40 CFR 1508.7. Cumulative impacts could result from individually insignificant but collectively significant actions taking place over a period of time.
    [Show full text]
  • Comparative Analysis and Design of a Solar-Based Parabolic Trough–ORC Cogeneration Plant for a Commercial Center
    energies Article Comparative Analysis and Design of a Solar-Based Parabolic Trough–ORC Cogeneration Plant for a Commercial Center Eduardo A. Pina , Luis M. Serra * , Miguel A. Lozano , Adrián Hernández and Ana Lázaro Group of Thermal Engineering and Energy Systems (GITSE) of Aragon Institute of Engineering Research (I3A), Department of Mechanical Engineering, Universidad de Zaragoza, Calle María de Luna sn, 50018 Zaragoza, Spain; [email protected] (E.A.P.); [email protected] (M.A.L.); [email protected] (A.H.); [email protected] (A.L.) * Correspondence: [email protected]; Tel.: +34-976-761913 Received: 24 August 2020; Accepted: 10 September 2020; Published: 14 September 2020 Abstract: This paper performs technical, economic and environmental feasibility analyses of two different solar cogeneration plants, consisting of a solar system (a parabolic trough collector field coupled with thermal energy storage), an Organic Rankine Cycle (ORC), and mechanical chillers, that should cover the electrical and cooling demands of a commercial center located in Zaragoza (Spain). System A is hybridized with an auxiliary biomass boiler that complements the solar system’s thermal production, providing a constant heat supply to the ORC, which operates at full load during the operating hours of the solar system. In contrast, system B is not hybridized with biomass, so the ORC is fully driven by the solar system, operating at partial load according to the solar resource availability. Both systems are connected to the electrical grid, allowing electricity purchases and sales when needed. The design procedure involves the sizing of the equipment as well as the modelling of the hourly behavior of each system throughout the year.
    [Show full text]
  • Overview of Concentrated Solar Energy Technologies
    Online Continuing Education for Professional Engineers Since 2009 Overview of Concentrated Solar Energy Technologies PDH Credits: 6 PDH Course No.: CST101 Publication Source: Original Courseware by Donald W. Parnell, PE Release Date: 2018 DISCLAIMER: All course materials available on this website are not to be construed as a representation or warranty on the part of Online-PDH, or other persons and/or organizations named herein. All course literature is for reference purposes only, and should not be used as a substitute for competent, professional engineering council. Use or application of any information herein, should be done so at the discretion of a licensed professional engineer in that given field of expertise. Any person(s) making use of this information, herein, does so at their own risk and assumes any and all liabilities arising therefrom. Copyright © 2009 Online-PDH - All Rights Reserved 1265 San Juan Dr. - Merritt Island, FL 32952 Phone: 321-501-5601 Primer on Concentrated Solar Energy Credits: 6 PDH Course Description This course discusses several of the more proven concentrating solar power technologies presently on the market. Also discussed will be the basic units commonly found in most types of CSP facilities: solar reflectors (mirrors), solar receivers, and solar tracking devices, along with their ancillary components. Discussed will be the primary application of using solar thermal heat for generating steam for turbine electrical power production. Other applications for concentrated solar are high thermal heat processes
    [Show full text]
  • Australian Rooftop Solar Subsidy 2019 Outlook
    Australian Rooftop Solar Subsidy 2019 Outlook 18 February 2019 © Demand Manager Pty Ltd PO Box Q1251 QVB Post Office NSW 1230 AFSL 474395 www.demandmanager.com.au The material in this report is provided for general information and educative purposes only. The content does not investment advice or recommendations and should not be relied upon as such. Appropriate professional advice should be obtained for any investment decisions. While every care has been taken in the preparation of this material, Demand Manager cannot accept responsibility for any errors, including those caused by negligence, in the material. Demand Manager makes no statements, representations or warranties about the accuracy or completeness of the information and you should not rely on it. You are advised to make your own independent inquiries regarding the accuracy of any information provided in this report. Executive Summary The SRES is one half of the Australian Government’s Renewable Energy Target and offers upfront rebates to consumers installing small-scale solar power systems. This cost is borne by all electricity consumers as a levy charged per kWh of consumption. Solar power installations continue to accelerate, driven by: o Cheaper component costs; o Increasing adoption in the commercial sector; o Policy drivers in Victoria and South Australia and soon NSW In early 2018, Demand Manager forecast the cost of the SRES in 2018 to total $1.3 billion. Actual cost of the SRES in 2018 was in the order of $1.2 billion1. In our LOW case scenario, Demand Manager forecasts the economy-wide cost of the SRES to increase 30% in 2019 to $1.56 billion.
    [Show full text]
  • Network Development Plan 2016 – 2025
    NOVEMBER 2015 NETWORK DEVELOPMENT PLAN 2016 – 2025 A Ten-Year Plan for the Swedish National Grid. SVENSKA KRAFTNÄT Our society is dependent on electricity. Svenska kraftnät is responsible for ensuring that Sweden has a safe, environmentally sound and cost-effective transmission system for electricity – today and in the future. We achieve this in the short term by monitoring the electrical system around the clock, and in the long term by building new power lines to meet tomorrow’s electricity needs. Cover photo Tomas Ärlemo Org. Nr 202100-4284 SVENSKA KRAFTNÄT Box 1200 172 24 Sundbyberg Sweden Sturegatan 1 Tel +46 10-475 80 00 Fax +46 10-475 89 50 www.svk.se/en PREFACE The board of Svenska kraftnät decided in April 2013 on a long-term plan document for the development of the Swedish National Grid. Long-term plan 2025 described the challenges for Svenska kraftnät in the 10 to 15 years term. The purpose was, among other things, to increase the transparency of Svenska kraftnät’s planning and to provide an opportunity for the various stakeholders in the electricity market to influence it. Until then, the national network planning mainly consisted of the three-year investment and financing plans that Svenska kraftnät annually provide to the Government. These plans are, however, primarily a description of how investments already decided are expected to turn out over the next three financial years. They do not give an account of the Administration’s long-term priorities and the grounds for them. A certain network planning is conducted also at Nordic level in order to identify grid reinforcements with specific benefit for the whole of the Nordic electricity market.
    [Show full text]
  • The Economics of Solar Power
    The Economics of Solar Power Solar Roundtable Kansas Corporation Commission March 3, 2009 Peter Lorenz President Quanta Renewable Energy Services SOLAR POWER - BREAKTHROUGH OR NICHE OPPORTUNITY? MW capacity additions per year CAGR +82% 2000-08 Percent 5,600-6,000 40 RoW US 40 +43% Japan 10 +35% 2,826 Spain 55 1,744 1,460 1,086 598 Germany 137 241 372 427 2000 01 02 03 04 05 06 07 2008E Demand driven by attractive economics • Strong regulatory support • Increasing power prices • Decreasing solar system prices • Good availability of capital Source: McKinsey demand model; Solarbuzz 1 WE HAVE SEEN SOME INTERESTING CHANGES IN THE U.S. RECENTLY 2 TODAY’S DISCUSSION • Solar technologies and their evolution • Demand growth outlook • Perspectives on solar following the economic crisis 3 TWO KEY SOLAR TECHNOLOGIES EXIST Photovoltaics (PV) Concentrated Solar Power (CSP) Key • Uses light-absorbing material to • Uses mirrors to generate steam characteristics generate current which powers turbine • High modularity (1 kW - 50 MW) • Low modularity (20 - 300 MW) • Uses direct and indirect sunlight – • Only uses direct sunlight – specific suitable for almost all locations site requirements • Incentives widely available • Incentives limited to few countries • Mainly used as distributed power, • Central power only limited by some incentives encourage large adequate locations and solar farms transmission access ~ 10 Global capacity ~ 0.5 GW, 2007 Source: McKinsey analysis; EPIA; MarketBuzz 4 THESE HAVE SEVERAL SUB-TECHNOLOGIES Key technologies Sub technologiesDescription
    [Show full text]
  • REIPPP Projects
    REIPPP Projects Window 1 Projects Net capacity Technology Project Location Technology Developer Contractor Status MW supplier Klipheuwel – Dassiefontein Group 5, Dassiesklip Wind Energy Facility Caledon, WC Wind 26,2 Sinovel Operational Wind Energy fFcility Iberdrola MetroWind Van Stadens Wind Port Elizabeth, EC Wind 26,2 MetroWind Sinovel Basil Read Operational Farm Hopefield Wind Farm Hopefield, WC Wind 65,4 Umoya Energy Vestas Vestas Operational Noblesfontein Noblesfontein, NC Wind 72,8 Coria (PKF) Investments 28 Vestas Vestas Operational Red Cap Kouga Wind Farm – Port Elizabeth, EC Wind 77,6 Red Cap Kouga Wind Farm Nordex Nordex Operational Oyster Bay Dorper Wind Farm Stormberg, EC Wind 97,0 Dorper Wind Farm Nordex Nordex Operational South Africa Mainstream Jeffreys Bay Jeffereys Bay, EC Wind 133,9 Siemens Siemens Operational Renewable Power Jeffreys Bay African Clean Energy Cookhouse Wind Farm Cookhouse, EC Wind 135,0 Suzlon Suzlon Operational Developments Khi Solar One Upington, NC Solar CSP 50,0 Khi Dolar One Consortium Abengoa Abengoa Construction KaXu Solar One Pofadder, NC Solar CSP 100,0 KaXu Solar One Consortium Abengoa Abengoa Operational SlimSun Swartland Solar Park Swartland, WC Solar PV 5,0 SlimSun BYD Solar Juwi, Hatch Operational RustMo1 Solar Farm Rustenburg, NWP Solar PV 6,8 RustMo1 Solar Farm BYD Solar Juwi Operational Mulilo Renewable Energy Solar De Aar, NC Solar PV 9,7 Gestamp Mulilo Consortium Trina Solar Gestamp, ABB Operational PV De Aar Konkoonsies Solar Pofadder, NC Solar PV 9,7 Limarco 77 BYD Solar Juwi Operational
    [Show full text]
  • Glasspoint Comments LCFS Comment Letter 2-17-15 V1
    Clerk of the Board February 17, 2015 California Air Resources Board 1001 I Street Sacramento, CA 95814 Via electronic submittal to: http://www.arb.ca.gov/lispub/comm/bclist.php Re: Notice of Public Hearing to Consider a Low Carbon Fuel Standard (LCFS) GlassPoint Solar Inc. (GlassPoint) appreciates and supports ARB’s efforts to readopt the Low Carbon Fuel Standard (LCFS) to create a workable regulatory framework. We are pleased to provide these comments on the December 30, 2014 LCFS regulatory adoption package. The proposed regulation is the result of a cooperative rulemaking process that GlassPoint believes has made the regulation better, and specifically the Innovative Crude Provisions. We look forward to the conclusion of the rulemaking in an expeditious manner as possible. GlassPoint is ready to build new low-carbon projects once regulatory standards are set. GlassPoint is a California company that manufactures solar steam generators for thermal enhanced oil recovery (EOR). Our renewable energy technology has proven reliable, safe and economical in field operations in California and the Middle East. We were pleased to be selected by the U.S. State Department as one of nine finalists for the Secretary of State’s prestigious 2014 Award for Corporate Excellence (ACE) for our technology and corporate behavior. Thermal EOR, or steam injection, extends the value and the life of California’s oilfields. Today, thermal EOR accounts for more than 40% of California’s oil production and consumes more than 200 MM MMBTU per year of fuel for steam generation. Solar energy can replace a substantial fraction of that existing fuel use, reducing emissions resulting from upstream production.
    [Show full text]
  • Utilities Join the Party As Solar Power Goes Mainstream
    Release: 5th March 2019 Utilities join the party as solar power goes mainstream The list of the world’s top solar power plant owners released today by Wiki-Solar.org shows that leading energy utilities are building significant solar portfolios. Chinese, US and Indian power companies now have substantial solar capacity in their home markets, while European multinationals are building global portfolios. This marks a major shift – just five years ago there were only six utilities in the top thirty. The top solar generation owners, based on identified cumulative capacity to the end of 2018 were: Plant owners Plants Capacity Rank © wiki-solar.org number MWAC 1 State Power Investment Corporation [CN] 50 2,659 2 NextEra Energy [US] 43 2,627 3 Global Infrastructure Partners [US] 36 2,060 4 ENEL Green Power [IT] 33 2,015 5 Adani [IN] 28 1,957 6 Panda Green Energy [CN] 31 1,832 7 ACME [IN] 32 1,629 8 Southern Power [US] 25 1,494 9 National Thermal Power Corporation [IN] 15 1,391 10 AES Corporation [US] 60 1,301 11 Consolidated Edison Development [US] 25 1,256 12 EDF – Électricité de France [FR] 59 1,182 13 Dominion Energy [US] 42 1,153 14 Lightsource BP [GB] (part owned by BP) 149 1,102 15 Canadian Solar [CA] 28 1,100 16 Enerparc [DE] 141 1,076 17 Cypress Creek Renewables [US] 136 975 18 Sempra Energy [US] 13 941 19 GCL-Poly Energy Holdings [HK] 26 910 Top utility-scale solar generation capacity owners “Leading Chinese and US utilities like SPIC and NextEra have been prominent for some years” says Wiki-Solar founder Philip Wolfe, “while dynamic growth in India has brought utilities like Adani and NTPC into the list.
    [Show full text]