Assessing the Renewable Energy Independent Power Producer
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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) .................................................................................................................... -
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 -
The Developing Energy Landscape in South Africa: Technical Report
The developing energy landscape in South Africa: Technical Report RESEARCH REPORT SERIES RESEARCH REPORT The developing energy landscape in South Africa: Technical Report OCTOBER 2017 Energy Research Centre, CSIR, and IFPRI The developing energy landscape in South Africa: Technical Report Suggested citation for this report: ERC, CSIR and IFPRI. 2017. The developing energy landscape in South Africa: Technical Report. Energy Research Centre, University of Cape Town October 2017. Authors: ERC: Gregory Ireland, Faaiqa Hartley, Bruno Merven, Jesse Burton, Fadiel Ahjum, Bryce McCall and Tara Caetano. CSIR: Jarrad Wright IFPRI: Channing Arndt Energy Research Centre University of Cape Town Private Bag X3 Rondebosch 7701 South Africa Tel: +27 (0)21 650 2521 Fax: +27 (0)21 650 2830 Email: [email protected] Website: www.erc.uct.ac.za Energy Research Centre, CSIR, and IFPRI The developing energy landscape in South Africa: Technical Report Contents Executive summary ............................................................................................................ 4 1. Introduction ................................................................................................................. 6 2. Global renewable technology trends ......................................................................... 9 2.1 The implications for climate change mitigation .................................................................... 12 3. South African Energy Context ............................................................................... -
The Case of Bokpoort CSP Plant in South Africa
Dispatchable Solar Energy 24/7 – The Case of Bokpoort CSP plant in South Africa Nandu Bhula Deputy Managing Director (Southern Africa) At A Glance We develop power and desalination water plants In over a decade we have become the second largest power & water developer in the GCC region, and a name to contend with internationally. We have achieved this by developing, investing in and operating a world-class 2004 portfolio... Saudi Arabia 58 37.7+ 5.8 Assets* GW Power* Mm3 per day Desalinated Water* 2008 – 2010 Oman 12 $59+ bn 21.5% Jordan Countries USD of Assets Portfolio in Renewable Under Energy based on Management** Share of project cost 2012 – 2014 3,500+ 30+ ~60% Morocco Employees Nationalities Local South Africa Employment Turkey in projects * Figures inclusive of advanced development projects ** There is another $10.5 bn of projects in advanced development DEVELOP INVEST OPERATE 2015 – UAE We win bids as lead developer, While taking significant, We operate and maintain our by partnering with the best and long-term stakes in all our plants plants to the highest global Egypt focusing on cost leadership. standards Vietnam 15/12/2020 CSP – Status across the Globe •CSP technology implemented in 23 countries 30 000 across the globe 25 000 20 000 •Over 6,000MW in operation 15 000 10 000 •Over 3,500MW in construction 5 000 - •Almost 25,000MW planned or in development Planned CSP Under Operational stages Projects Construction Source: https://solargis.com/maps-and-gis-data/overview/ 15/12/2020 ACWA Power CSP’s in MENA Region 150MW 950MW – (3 x 200MW CSP Trough, 1 x - Tower CSP+PV Hybrid 100MW CSP Tower & 250MW PV) 200MW - Trough 160MW - Trough 510MW – CSP Complex 15/12/2020 South African Renewable Energy IPP Program (REIPPP) • Started in 2011, the REIPPP is widely recognized as one of the most successful renewable energy procurement models in the world. -
Renewable Energy Choices and Their Water Requirements in South Africa
Journal of Energy in Southern Africa 26(4): 80–92 DOI: http://dx.doi.org/10.17159/2413-3051/2014/v25i4a2241 Renewable energy choices and their water requirements in South Africa Debbie Sparks Amos Madhlopa Samantha Keen Mascha Moorlach Anthony Dane Pieter Krog Thuli Dlamini Energy Research Centre, University of Cape Town, Cape Town, South Africa Abstract tive of this study was to investigate and review South Africa is an arid country, where water supply renewable energy choices and water requirements is often obtained from a distant source. There is in South Africa. Data were acquired through a com- increasing pressure on the limited water resources bination of a desktop study and expert interviews. due to economic and population growth, with a Water withdrawal and consumption levels at a given concomitant increase in the energy requirement for stage of energy production were investigated. Most water production. This problem will be exacerbated of the data was collected from secondary sources. by the onset of climate change. Recently, there have Results show that there is limited data on all aspects been concerns about negative impacts arising from of water usage in the production chain of energy, the exploitation of energy resources. In particular, accounting in part for the significant variations in the burning of fossil fuels is significantly contributing the values of water intensity that are reported in the to climate change through the emission of carbon literature. It is vital to take into account all aspects of dioxide, a major greenhouse gas. In addition, fossil the energy life cycle to enable isolation of stages fuels are being depleted, and contributing to where significant amounts of water are used. -
China's Involvement in South Africa's Wind and Solar PV Industries
WORKING PAPER NO. 15 NOV 2017 China's involvement in South Africa's wind and solar PV industries Lucy Baker and Wei Shen sais-cari.org WORKING PAPER SERIES NO. 15 | NOVEMBER 2017: “China's involvement in South Africa's wind and solar PV industries” by Lucy Baker and Wei Shen TO CITE THIS PAPER: Baker, Lucy and Wei Shen. 2017. China's Involvement in South Africa's Wind and Solar PV Industries. Working Paper No. 2017/15. China-Africa Research Initiative, School of Advanced International Studies, Johns Hopkins University, Washington, DC. Retrieved from http://www.sais-cari.org/publications. CORRESPONDING AUTHOR: Lucy Baker Email: [email protected] ACKNOWLEDGMENTS: We gratefully acknowledge funding from the China Africa Research Initiative at Johns Hopkins University’s School of Advanced International Studies (SAIS- CARI), which enabled us to undertake the field research for this report. Further support for this research was provided by the Engineering and Physical Sciences Research Council for the Centre for Innovation and Energy Demand, Science Policy Research Unit, University of Sussex (grant number: EP/K011790/1), and Green Transformation Cluster, Institute of Development Studies. Thank you to all the research participants in China and South Africa who are not cited by name for reasons of confidentiality. Finally, thank you to colleagues at the Energy Research Centre, University of Cape Town for all help and advice. NOTE: The papers in this Working Paper series have undergone only limited review and may be updated, corrected or withdrawn. Please contact the corresponding author directly with comments or questions about this paper. -
South African Country Case Study
Energy provision for the urban poor: South African country case study NOMAWETHU QASE WITH WENDY ANNECKE DRAFT FINAL REPORT January 1999 ENERGY & DEVELOPMENT RESEARCH CENTRE University of Cape Town . Energy provision for the urban poor country case study: South Africa i ABBREVIATIONS DBSA – Development Bank of Southern Africa DFID – Department of International Development, UK FINESSE – Financing Energy Services for Small-Scale Energy Users IT – Intermediate Technology LNG – Lwandle Negotiating Group LPG – liquefied petroleum gas NER – National Electricity Regulator RDP – Reconstruction and Development Programme SADC – Southern African Development Community SALDRU – Southern African Labour and Development Research Unit SANCO – South African National Civics Organisation SWH – solar water heater SWH – solar water heater UNDP – United Nations Development Programme USAID – United States Agency for International Development VAT – value-added tax ENERGY & DEVELOPMENT RESEARCH CENTRE. Energy provision for the urban poor country case study: South Africa ii EXECUTIVE SUMMARY Urban poverty is a severe and growing problem in South Africa. The rate of urbanisation is increasing and the new democratic government and local authorities are struggling with a lack of capacity and inadequate funds to address the historic backlog of housing and services, health and education for the 50% of the population who are poor and currently without these facilities. The liberalisation of the economy and opening up of the previously closed and protected markets has seen the number of unemployed increasing while the population continues to grow. South Africa has a relatively strong industrial base and has Eskom, the world’s fifth largest electricity utility. Eskom generates electricity largely from the country’s substantial coal reserves. -
Impofu East Wind Farm Red Cap Impofu East (Pty) Ltd
Impofu East Wind Farm Red Cap Impofu East (Pty) Ltd Avifaunal scoping study September 2018 REPORT REVIEW & TRACKING Document title Impofu East Wind Farm- Avifaunal Scoping study Client name Kim White Aurecon Status Draft report-for client Issue date September 2018 Lead author Jon Smallie – SACNASP 400020/06 Internal review Luke Strugnell – SACNASP 400181/09 WildSkies Ecological Services (Pty) Ltd 36 Utrecht Avenue, East London, 5241 Jon Smallie E: [email protected] C: 082 444 8919 F: 086 615 5654 2 EXECUTIVE SUMMARY Red Cap Energy (Pty) Ltd successfully developed the 80 MW Kouga Wind Farm and the 111 MW Gibson Bay Wind Farm in the Kouga Local Municipality, Eastern Cape, South Africa. This area lies on a section of coastal plain in close proximity to the ocean on either side which results in excellent wind conditions and low levels of turbulence, making it ideal for wind farm development. Red Cap has now signed option agreements on approximately 15 500 ha of new undeveloped private farmland, known as the “Impofu Wind Farms” Project. The 3 wind farms will ultimately consist of up to a maximum total of 120 turbines and associated infrastructure and will connect to the grid close to Port Elizabeth. The Impofu East Wind Farm, the subject of this report, consists of up to 41 turbines. We have conducted an initial assessment of the site, a screening assessment and a full (four seasons) pre-construction bird monitoring programme on site. The most important of our findings are as follows: We make the following conclusions regarding the avifaunal community and potential impacts of the Impofu East Wind Farm: » We classified nine species as top most priority for this assessment: Denham’s Bustard, White- bellied Korhaan, Blue Crane, Black Harrier, African Marsh-Harrier, Martial Eagle, African Fish- Eagle, Jackal Buzzard and White Stork. -
Energy Storage in Grids with High Penetration of Variable Generation
Energy Storage in Grids with High Penetration of Variable Generation Grid-level energy storage is likely to dominate the conversation in the power industry in the coming years, just like renewable energy did in the past 2 decades. This report targets investors, developers, utility planners, power sector policy makers, and readers who wish to understand the role energy storage is likely to play in the smart grid of the future. For developing countries, the report provides an introduction to the necessary technical background on energy storage, the role it is likely to play as penetration of renewable energy increases in the grid, and the policy prescriptions to realize the wide range of benefits of energy storage. About the Asian Development Bank ADB’s vision is an Asia and Pacific region free of poverty. Its mission is to help its developing member countries reduce poverty and improve the quality of life of their people. Despite the region’s many successes, it remains home to a large share of the world’s poor. ADB is committed to reducing poverty through inclusive economic growth, environmentally sustainable growth, and regional integration. Based in Manila, ADB is owned by 67 members, including 48 from the region. Its main instruments for helping its developing member countries are policy dialogue, loans, equity investments, guarantees, grants, and technical assistance. ENERGY STORAGE IN GRIDS WITH HIGH PENETRATION OF VARIABLE GENERATION ASIAN DEVELOPMENT BANK 6 ADB Avenue, Mandaluyong City 1550 Metro Manila. Philippines ASIAN DEVELOPMENT BANK www.adb.org ENERGY STORAGE IN GRIDS WITH HIGH PENETRATION OF VARIABLE GENERATION FEBRUARY 2017 Pramod Jain ASIAN DEVELOPMENT BANK Creative Commons Attribution 3.0 IGO license (CC BY 3.0 IGO) © 2017 Asian Development Bank 6 ADB Avenue, Mandaluyong City, 1550 Metro Manila, Philippines Tel +63 2 632 4444; Fax +63 2 636 2444 www.adb.org Some rights reserved. -
Climate Change Impacts on Southern African Wind Energy Resources
Projected potential for wind energy generation in South Africa under conditions of climate change by Lynette Herbst Submitted in partial fulfilment of the requirements for the degree MASTER OF SCIENCE in the Faculty of Natural and Agricultural Sciences University of Pretoria Pretoria August 2015 i DECLARATION I, Lynette Herbst, declare that the dissertation, which I hereby submit for the degree Master of Science at the University of Pretoria, is my own work and has not previously been submitted by me for a degree at this or any other tertiary institution. ___________________ _________________ SIGNATURE DATE ii Projected potential for wind energy generation in South Africa under conditions of climate change Lynette Herbst Promoter: Prof. Hannes Rautenbach Department: Geography, Geoinformatics and Meteorology Faculty: Natural and Agricultural Sciences University: University of Pretoria Degree: Master of Science in Environmental Management SUMMARY The South African wind energy sector is developing rapidly with numerous wind energy facilities currently being commissioned. According to the Intergovernmental Panel on Climate Change (IPCC), some risks and opportunities for wind power generation as a result of climate change could be anticipated in future. The objectives of this study were therefore to: a. determine whether seasonal near-surface winds over South Africa, as generated by a Regional Climate Model (RCM) using boundary conditions supplied from coupled Global Circulation Models (GCMs), during a reference period of 1981 to 2005, are realistically represented; b. establish whether differences exist between seasonal near-surface winds calculated for the reference period (1981-2005) versus a projected period of 2051 to 2075, incorporating two future Representative Concentration Pathways (RCP4.5 and RCP8.5); c. -
South African Energy Sector Report 2019
THE SOUTH AFRICAN ENERGY SECTOR REPORT 2019 THE SOUTH AFRICAN ENERGY SECTOR REPORT DIRECTORATE: ENERGY DATA COLLECTION, MANAGEMENT AND ANALYSIS i THE SOUTH AFRICAN ENERGY SECTOR REPORT 2019 DISCLAIMER WHEREAS THE GREATEST CARE HAS BEEN TAKEN IN THE COMPILATION OF THIS PUBLICATION, THE DEPARTMENT OF ENERGY RELIES ON DATA PROVIDED BY VARIOUS SOURCES AND DOES NOT HOLD ITSELF RESPONSIBLE FOR ANY ERRORS OR OMISSIONS EMANATING AS A CONSEQUENCE OF PROVISION OF INACCURATE, INCORRECT OR INCOMPLETE DATA FROM SUCH SOURCES. ii THE SOUTH AFRICAN ENERGY SECTOR REPORT 2019 THE SOUTH AFRICAN ENERGY SECTOR REPORT DIRECTORATE: ENERGY DATA COLLECTION, MANAGEMENT AND ANALYSIS Compiled by: Ms Keneilwe Ratshomo Email: [email protected] and Mr Ramaano Nembahe Email: [email protected] Published by: Department of Energy Private Bag X96 Pretoria 0001 Tel: (012) 406 7540 192 Visagie Street, Cnr. Paul Kruger & Visagie Street, Pretoria, 0001 Website: http://www.energy.gov.za iii THE SOUTH AFRICAN ENERGY SECTOR REPORT 2019 DEPARTMENT OF ENERGY Director-General Mr. T. Zulu ENERGY POLICY AND PLANNING BRANCH Deputy Director-General Mr. O. Aphane ENERGY PLANNING CHIEF DIRECTORATE Chief Director: Mr. T. Audat ENERGY DATA COLLECTION, MANAGEMENT AND ANALYSIS DIRECTORATE Director Ms. V. Olifant PUBLISHED IN 2019 ISBN: 978-1-920435-17-2 COPYRIGHT RESERVED iv THE SOUTH AFRICAN ENERGY SECTOR REPORT 2019 Contents Pages Foreword 1 Introduction 2 List of Abbreviations 3 Key Energy Policies and Legislations 4 1. ENERGY SUPPLY 8 1.1 Crude oil and Petroleum Products 8 1.2 Natural gas 14 1.3 Electricity 15 1.4 Coal 18 1.5 Renewables 19 1.6 Nuclear 22 2. -
South Africa
Language: English Original: English Ref No: P-ZA-F000-002 ESKOM RENEWABLE ENERGY INVESTMENT PROJECT South Africa ENVIRONMENTAL AND SOCIAL IMPACT ASSESSMENT SUMMARY Energy, Environment and Climate Change Department July 2010 1 TABLE OF CONTENTS 1. INTRDUCTION ...................................................................................................................... 3 2. PROJECT DESCRPTION AND JUSTFICATION................................................................... 4 2.2 PROJECT COMPONENTS ............................................................................................. 4 3. POLICY LEGAL AND ADMINISTRATIVE FRAMEWORK ................................................ 6 3.2 NATIONAL LAWS INCLUDE: ......................................................................................... 6 4. DESCRIPTION OF THE PROJECT ENVIRONMENT ........................................................... 8 4.4.5 Social Environment .............................................................................................................. 13 5.1 No Project Alternative .................................................................................................... 13 5.2 Technology alternatives .................................................................................................... 14 6. POTENTIAL IMPACTS AND MITIGATION/ENHANCEMENT MEASURES .................. 15 7. ENVIRONMENTAL HAZARD MANAGEMENT ................................................................ 21 8. ENVIRONMENTAL AND SOCIAL MANAGEMENT PLAN (ESMP)