Case Study: Masen NOOR Ouarzazate Solar Complex

Similar documents
NOOR : THE MOROCCAN SOLAR PLAN

LCOE reduction potential of parabolic trough and solar tower CSP technology until 2025

Noor-Midelt Phase 1 Concentrated Solar Power Project

Overview on use of a Molten Salt HTF in a Trough Solar Field

Draft for an Appendix O Cost Structures

CSP TECHNOLOGY IN THE MARKET

Prof Wikus van Niekerk Director of CRSES Prof Frank Dinter Eskom Chair in CSP Stellenbosch University

The Bokpoort: CSP Continuous Operator Success Story. Nandu D Bhula Chief Executive Officer Acwa Power Solafrica Bokpoort CSP South Africa

Bokpoort CSP and the Future of Solar in South Africa. Nandu Bhula Deputy Managing Director (Southern Africa) CEO Redstone CSP (designate)

Morocco s experience in CSP projects

CSP Market Status. Solar Thermal Energy Research Group. Alberto Cuellar. Senior Renewable Energy Engineer Mott MacDonald

NREL CSP WORKSHOP. Bright Source Energy Inc. Oakland, CA

The Future of CSP: Dispatchable Solar Power

Solar Energy: The Sustainable Energy Mix Cornerstone for Saudi Arabia

ABENGOA SOLAR Solar Power for a Sustainable World

Engineering Evaluation of a Molten Salt HTF in a Parabolic Trough Solar Field

Modular Trough Power Plants

Funded by. EU GCC CLEAN ENERGY NETWORK II Join us: Contact us:

Concentrating Solar Power: Current Cost and Future Directions

Solar Energy ;; A pillar of The Sustainable Energy Kingdom

The Status and Prospects of CSP Technologies

June, 2017 RENEWABLE PROJECTS. Enhancing The Local Supply Chain

Building the Renewable Energy Sector in Saudi Arabia

SOCIO-ECONOMIC BENEFITS OF NOOR OUARZAZATE SOLAR COMPLEX

Solar Tower Receivers. The Power to Change the World

The Value of Thermal Storage in STE Plants The Issue of Integrating Intermittent Renewable Generation into Power System Operation

Advanced Thermal Energy Storing with the most efficient use of the ressources. Peter Badstue Jensen Vice President - Partner

Siemens Solar Energy. Buenos Aires, November 2011 By Rolf Schumacher R2 Siemens AG All rights reserved

CSP PLANT OPERATIONS & MAINTENANCE

CMR Journal of Engineering and Technology Vol.2 Issue.2 April, 2018

MENA New Energy 2017 Rioglass Solar Jeroen van Schijndel

Solar Boiler Concept for Concentrating Solar Power Plants. Ulrich Hueck, Dr.-Ing. Co-Founder

The standards would cover all of the current different types of systems in the STE field, as follows:

Professor George Stavrakakis ( Dr Apostolos Apostolou(

ABENGOA SOLAR Solar Power for a Sustainable World

Application of an Integrally Geared Compander to an sco 2 Recompression Brayton Cycle

ACWA Power Business-driven Value Development. May 31, 2016

Techno-economic Optimization of CSP Plants

Renewable Energies Unlimited resources. Turning Ideas into Reality.

CSP Parabolic Trough Technology for Brazil A comprehensive documentation on the current state of the art of parabolic trough collector technology

Solar boilers Evolving issues with an evolving technology

Overview CSP Technologies, Markets, Challenges

OVERVIEW OF SOLAR THERMAL TECHNOLOGIES

Optimizing the Supercritical CO2 Brayton Cycle for Concentrating Solar Power Application

Novatec Solar s direct molten salt technology, dispatchable power to perfectly match energy demand in Northern Chile 27 th May 2014 T.

Concentrating Solar Thermal Technology and Solar Process Heat Projects: A focus on the MENA Region German Aerospace Center (DLR)

CONCENTRATING SOLAR POWER, THE PANACEA TO NIGERIA S POWER SUPPLY

Renewable Energy & Energy Efficiency in Egypt

CSP Solar Tower Report 2014: Cost, Performance and Thermal Storage

HPS2 High Performance Solar 2. Évora Molten Salts Platform. Dipl.-Ing. Klaus Hennecke Dr. Michael Wittmann

A LEADER IN UTILITY SOLAR POWER TOWER WITH STORAGE

Operation Experience of a 50 MW Solar Thermal Parabolic Trough Plant in Spain

The Operator s Perspective: Lessons from CSP Projects in MENA, Spain, South Africa, and the U.S.

Outlook on Concentrating Solar Power

Grid Integration of Concentrating Solar Power Plant and Cost Analysis

Comparative Analysis of Different CSP Plant Configurations in Saudi Arabia

Task I Update/Highlights

RENEWABLES & MINING SUMMIT AND EXHIBITION:

A Review On Power Generation Methods Using Concentrating Solar Power.

Welcome! Webinar #7: MODELLING SOLAR THERMAL SYSTEMS 27 JULY 2017

Moroccan Agency for Sustainable Energy

Prospects of Solar CSP Integration in the Oil & Gas Industry of the Middle East for Process Heating

IntertechPira s Concentrating Solar Thermal Power Implementation of Thermal Storage A Case Study: Gemasolar (24/7)

20-CSP Technologies. ECEGR 452 Renewable Energy Systems

Solar Thermal Power Plant Technology. Workshop for Investors. New and Renewable Energy Authoriy (NREA)

CRESCENT DUNES PROJECT OVERVIEW

CRESCENT DUNES PROJECT OVERVIEW

Status and Perspectives of CSP Technology. Robert Pitz-Paal

ABENGOA SOLAR Solar Power for a Sustainable World

Renewable Energy in Egypt Ehab Ismail Amin New and Renewable Energy Authority

Promoting the CSP Industry in Southern Africa

FICHTNER SOLAR GmbH a company of the Fichtner group

With Intelligent Optimisation Strategies and Higher Temperatures to Better Performance and Lower Cost

Andasol 1 - Experience and Tests Miroslav Dolejsi, Georg Brakmann SolEngCo GmbH

Project Update Crescent Dunes Solar Energy Project

+ Head of STERG. Stellenbosch University

Future Concepts in Solar Thermal Electricity Technology. Marc Röger. World Renewable Energy Congress XIV Bucharest, Romania, June 08-12, 2015

ABENGOA SOLAR Solar Power for a Sustainable World

Beyond LCOE: The Value of CSP with Thermal Energy Storage

Innovative technology solutions for sustainability ABENGOA. Hybrid Solar Power Plants

Operational Aspects and Environmental Profile of Solar Thermal Technologies

Electric Power Systems An Overview. Y. Baghzouz Professor of Electrical Engineering University of Nevada, Las Vegas

Introduction to Solar Energy Technology. Introduction to Solar Energy Technology. Introduction to Solar Energy Technology

Waste Heat Recovery using Organic Rankine Cycle turbines

Concentrating Solar Power

Electric Power Systems An Overview

Concentrating Solar Thermal Power Stations Sustainable Green Energy Infrastructure for Peak, Mid-Merit & Base Load Electricity Supply

Available online at ScienceDirect. Energy Procedia 49 (2014 ) SolarPACES 2013

Overview on Thermal Storage Systems

Parabolic Trough Technology State of the Art and New Developments. Dipl.-Ing. Klaus Hennecke DLR Institute of Solar Research

FLATE Hillsborough Community College - Brandon (813)

CONCENTRATED SOLAR POWER

Cost-benefit analysis for the installation of cogeneration CSP technology in Cyprus

Concentrating Solar Power. Dr. Ashvini Kumar Ministry of New and Renewable Energy New Delhi

Concentrated Solar Power (CSP)

Employment promotion via sustainable energy

Solar Power Overview. REROC Off the Grid - 14 November 2013 Edwin Foong GM Business Development, SOLEIR

Rankine (steam) Cycle Cooling Options

CSP and Natural Gas Hybrids

Introduction to Renewable Energy

Transcription:

Case Study: Masen NOOR Ouarzazate Solar Complex 25/07/2017

NOOR OUARZAZATE CSP POWER PLANTS

NOOR OUARZAZATE COMPLEX Ouarzazate NOORo III Under construction 150 MW NOOR OUARZAZATE COMPLEX, A GRADUAL DEPLOYMENT OF 580 MW CSP Tower NOORo II Under construction 200 MW CSP Parabolic Trough NOOR I in operation R&D Platform NOOR IV 70 MW 160 MW Photovoltaic CSP Parabolic Trough

NOOR O I SOLAR PLANT MAIN TECHNICAL CHARACTERISTICS (1/3) Techno. Concentrated Solar Power using parabolic troughs and molten salt Thermal Energy Storage Capacity 160 MWe Gross Capacity Storage 3 hours Thermal Energy Storage Cooling Wet cooling Developer Price Data EPC Price per kwh* 0,189 $ * evaluated peak hour tariff 4

NOOR O I SOLAR PLANT MAIN TECHNICAL CHARACTERISTICS (2/3)

NOOR O I SOLAR PLANT MAIN TECHNICAL CHARACTERISTICS (3/3) Reflective Area: 1 308 000 m 2 1 hot Tank & 1 cold Tank ST Gross Capacity: 160 MW Number of loops: 400/STN0 HTF: Dowtherm A Thermal Capacity: 1269MWth (equivalent to 3 hours of storage) Water consumption: 1 700 000 m 3 /yr HCE tubes: Schott PTR 70 Tank Dimension: Ø: 46,5 m / H: 14 m Project Area: 458ha

NOOR O II SOLAR PLANT MAIN TECHNICAL CHARACTERISTICS (1/3) Techno. Concentrated Solar Power using parabolic trough Capacity 200 MW Gross Capacity Storage > 7 hours Cooling Dry Tariff* 0,14 $ / kwh Developer Financial Institutions EPC * evaluated peak hour tariff

NOOR O II SOLAR PLANT MAIN TECHNICAL CHARACTERISTICS (2/3)

NOOR O II SOLAR PLANT MAIN TECHNICAL CHARACTERISTICS (3/3) Reflective Area: 1 779 900 m² 2 hot Tank & 2 cold Tank ST Gross Capacity: 200MW Number of loops: 425/STN2 Solar field Inlet/outlet: 295 C/ 393 C 1 Loop = 4 SCAs 1 SCA = 12 SCEs Thermal Capacity: 3125MWth (equivalent to 7.3 hours of storage) Tank Dimension: Ø: 44.1 m / H: 16.6 m Water consumption: 280 000 m 3 /yr Project Area: ~ 600ha

NOOR O III SOLAR PLANT MAIN TECHNICAL CHARACTERISTICS (1/3) Techno. Concentrated Solar Power using tower Capacity 150 MW Gross capacity Storage > 7 hours Cooling Dry Tariff* 0,15 $ / kwh Developer Financial Institutions EPC * evaluated peak hour tariff 10

NOOR O III SOLAR PLANT MAIN TECHNICAL CHARACTERISTICS (2/3)

NOOR O III SOLAR PLANT MAIN TECHNICAL CHARACTERISTICS (3/3) Reflective Area: 1 321 197 m² Number of heliostat: 7400 (178m2/Heliostat, 54 facet 1 hot Tank & 1 cold Tank Thermal Capacity: 2770MWth Tower Height: 247m ST Gross Capacity: 150MW HTF: Molten Salt (NaNO3 (60%)/ KNO3 (40%) Receiver: 660 MWth Tank Dimension: Ø: 41.3 m / H: 14 m Cold: 290 C (to receiver) Hot: 565 C (receiver outlet) Water consumption: 155 000 m 3 /yr Project Area: ~ 600ha

NOOR OUARZAZATE POWER PLANTS NOORo I NOORo II NOORo III NOORo IV Technology CSP Parabolic trough CSP Parabolic trough CSP Tower Photovoltaic Capacity 160 MW 200 MW 150 MW 70 MW Cooling Wet Dry Dry - Thermal Storage 3h 7h to 8h 7h to 8h - Annual Production 520 GWh 699 GWh 515 GWh 125 GWh Surface 485 ha 600 ha 580 ha 137 ha - NOORo I in operation since beginning of 2016 - NOORo II and NOORo III under construction - Start of construction of NOORo IV in 2017

CONSTRUCTION & START-UP

POWER PLANTS CONSTRUCTION & START-UP ONEE PPA 1 Technical Advisor Owner Engineer Masen PPA 2 Project Company Independent Engineer EPC Contract O&M Contract

POWER PLANTS MASEN ORGANIZATION TEAM Contract Management Technical Management Project Management Quality Management HSE Management - Establishment of a responsibility assignment matrix at the beginning of each project

POWER PLANTS SCOPE OF INTERVENTION Services Awarding Request for Proposals preparation Independent Engineer Services Evaluation of Technical and Financial Proposals Certification of Initial and Final Tests Request for Proposals preparation Technical Advisor Services Evaluation of Technical and Financial Proposals Support for Design Review Specific missions for construction activities inspections HSE Specific Audits and inspections Quality Assurance Specific activities Funds disbursement Payment Milestones approval Ensure the milestones are reached in order to request for funds Ensure the appropriate documents are provided Manage the mission of Lender Technical Advisor

POWER PLANTS SCOPE OF INTERVENTION Engineering Ensure compliance with the contractual documents Design Review Interfaces with Masen common infrastructures Review of design plans and drawings including the specification of equipment Review of O&M Manuals Selection of drawings for ONEE s approval Interfaces with ONEE (Grid operator) Telecommunication system with the dispatching center Approval of the Plant s electrical protection settings List of prerequisites before first energization List of prerequisites before first synchronization Logistics and Procurement Approval of agreed manufacturers Factory Acceptance Tests Factory inspections Support for the delivery of permits and authorizations

POWER PLANTS SCOPE OF INTERVENTION Construction & Commissioning Construction Management Quality Assurance HSE Management Commissioning Management Ensure compliance with the contractual documents Follow-up of construction progress Analysis of Project scheduling Integration of the Plant with Masen Infrastructures Follow-up of Industrial Integration Follow-up of employment statistics Commissioning procedures analysis Follow-up of commissioning progress Analysis of Project scheduling Certification by the Independent Engineer Acceptance Tests Initial Performance Tests Final Performance Tests Performance Tests procedures analysis Witness and Approval of Performance Tests results Certification by the Independent Engineer

LESSONS LEARNED

NOORo I DUST IMPACT ON PRODUCTION Mirrors cleanliness impact directly the performance of the plant 2 additional cleaning trucks have been procured in beginning of 2017 Mirrors cleanness factor is expected to be higher after the completion of NOORo II & NOORo III construction

NOORo I - ACTUAL PRODUCTION VS EXPECTED PRODUCTION S2 2016 ACTUAL PRODUCTION VS EXPECTED PRODUCTION 47,539 41,916 37,440 35,049 32,672 31,040 28,945 24,291 24,65826,924 28,293 25,697 July August September Octobre November December Actual generation (MWh) Expected generation* (MWh) *Expected generation is calculated using the Performance Model with reference data and the weather data musured on site Overall the production during this semester was good. However it was impacted by following: the cleanliness factor affected by ongoing works in the complex and weather conditions Learning curve of the Operator (NOMAC) especially during cloudy days

NOORo I RATIO PEAK GENERATION S2 2016 41 916 MWh 33,685 32 672 MWh 31 040 MWh 24 291 MWh 24 658 MWh 25 697 MWh 27,912 24,516 19,484 16,316 16,191 Peak generation Off-Peak generation 2 nd semester 2016 (MWh) 42 170 138 105 Ratio Peak 23,5% 8,231 4,760 6,524 8,342 9,506 4,807 July August September October November December Peak Hours generation (MWh) Off-Peak Hours generation (MWh) Ratio Peak generation 20% 21% 20% 15% 34% 37% July August September October November December Very good production during peak hours thanks to the progress made by the O&M team 23

NOORo I PLANTS CONSUMPTION (JANUARY APRIL 2017)

COOLING SYSTEM DESIGN Wet Cooling System Dry Cooling System NOORo I: 160 MW Annual water consumption: 1 750 000 m3 NOORo II: 200 MW Annual water consumption: 288 000 m3 NOORo III: 150 MW Annual water consumption: 155 000 m3

HEAVY EQUIPMENT TRANSPORTATION DIFFICULTIES IN THE DELIVERY OF HEAVY EQUIPMENT Main heavy equipment requiring transport authorization: o HTF / SALT Heat exchangers: 6 x 362 T o Generator : 237 T o HP turbine: 134 T o Pre-heaters 2x92 T o Evaporators 2x146 T o Reheaters 2x92 T o Main Transformer 130 T o Condenser 140 T o HTF heaters: 2 x 90 T SELECTED ROUTING FOR TRANSPORTATION Assessment to be conducted at the beginning of the project: Selection of the routing during the bidding process Coordination with the involved authorities in order to define any necessary reinforcement works

NOORo I - INDUSTRIAL INTEGRATION % industrial integration 0% 30% 34,7% EPC Committed expenses Committed % industrial integration over the period 34,7% EPC expenses % total industrial integration 34,7 % EPC Committed expenses with local companies / Total EPC budgeted costs for the project EPC expenses with local companies 1 940 Mdh 5 581 Mdh 1 940 Mdh / Total EPC budgeted costs for the project 5 581 Mdh Committed expenses split by main EPC works (committed by local companies) Solar field collectors (mirrors supports) 27% 33% 22% 10% 8% Salts and water tanks and reservoirs Piping and cables Piling and civil works Mechanical and electrical erection Expenses split by main EPC works (paid to local companies) 26% 34% 23% 10% 7% Solar field collectors (mirrors supports) Salts and water tanks and reservoirs Piping and cables Piling and civil works Mechanical and electrical erection 27