noor: the moroccan solar planbeta.csptoday.com/sites/default/files/abderrahim jamrani,...
TRANSCRIPT
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Adapting to the Electrical System Requirements
Valuing the Solar Resource Performant and
Competitive
Quality, Security and Environment Commitment
In-line with tight deadlines
with concrete industrial integration measures
...
PROJECTS FOR THE DEVELOPMENT OF SOLAR PLANTS, ACCORDING TO THE BEST INTERNATIONAL STANDARDS
In accordance with the Urban Landscape Design
Strengthtening of local capacities
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ELECTRICAL DEMAND
2000
2500
3000
3500
4000
4500
5000
01:00 02:00 03:00 04:00 05:00 06:00 07:00 08:00 09:00 10:00 11:00 12:00 13:00 14:00 15:00 16:00 17:00 18:00 19:00 20:00 21:00 22:00 23:00 00:00
Lo
ad
[M
Wel]
Time of day
Typical load curves Morocco (summer and winter) working days and weekend
Wednesday 18-janv 2012
Sunday 22-janv 2012
Wendnesday 11-juil 2012
Sunday 15-juil 2012
Daily evening peak demand Need of storage
Mid-day summer peak demandMaximum solar generation
Winter WEWinter WeekSummer WESummer Week
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HIGH SOLAR RESOURCES AND WATER SCARCITY
Water scarcity
• Mobilized water in 2013 in Morocco 650 m3
per capita (minimum required more than
1000 m3 par capita)
• Lower water availability in potential solar
sites
High solar irradiation all over the Kingdom
• GHI between 1 800 and 2300 kWh/y
• DNI higher than 2 300 kWh/y in dozens of
sites and more than 2 600 kWh/y in some
suitable sites
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SEVERAL CHALLENGES TO THE DEVELOPMENT OF SOLAR ENERGY
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Several challenges during the development of large-scale solar projects across the World :
Sector in transition, for which some technologies have not yet reached their maturity phase
Multidimensional projects involving many stakeholders
Complex projects requiring high-level expertise (Technical, Legal, Financial, Institutional …)
Cost of electricity generated higher than that generated by fossil fuels
Projects requiring significant investment in a very short time period
Performance depending on the availability of land with favorable weather conditions and required
infrastructures
Many challenges requiring a strong mobilization of several actors
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Establishment of a Moroccan Solar Atlas and different studies upstream to select sites with the suitable characteristics for the development of solar projects
MOROCCAN SOLAR ATLAS AND PRELIMINARY STUDIES TO SELECT THE MOST SUITABLE SITES
Studies: – Topography , – Seismicity, – Geotechnical, – Hydrological, – Environmental impact …
Onsite measurements to assess solar resources and meteorological data
Qualification studies2
Implementation of the Moroccan Solar Atlas1
Identification of a suitable site portfolio
Mapping of solar resources
Identification of areas with solar potential using exclusion and selection criteria (High irradiation, adequate land, nearby common infrastructures…)
Identification of sites to be qualified refining the exclusion and selection criteria
Organization of field visits taking into accounts local data
Process to identify and select suitable sites
Selection of sites to be developed
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Different technical and market studies to select appropriate technology/site for the development of prior project
PRELIMINARY STUDIES TO SELECT MOST SUITABLE TECHNOMOGIES
PV technologiesCSP Technologies
Process to identify and select suitable technology / sites (technology comparison for each site)
CSP PV hybrid solutions
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different studies of the power plant parameters to define the optimal solution
DEFINITION OF THE PARAMETERS OF EACH SOLAR POWER PLANT
The Bidders will optimize the solution
Optimal power plantExamples of analyzed power plant characteristics
Define the objective of the plant
Plant capacity
Storage capacity
Cooling system
Auxiliaries consumptions
Synergies between power plants in a complex
PV/CSP ratio
PV tracking
DC/AC ratio
Process to optimize the plant
Selection of the optimal power plant
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0,0%
1 2 3 4 5 6 7 8 9 10 11 12
Sans stockage 1 heure 2 heures 3 heures 4 heures 5 heures
Mois
Perte de productible sec/humide en %
LCOE decrease vs storage capacity increaseCR in Ouarzazate
PT generation dry vs wet cooling in Ouarzazate
different studies of the power plant parameters to define the optimal solution
DEFINITION OF THE PARAMETERS OF EACH SOLAR POWER PLANT
Some examples
LCOE increase vs capacity factor decrease 𝐿𝐶𝑂𝐸PV CSP = 𝐿𝐶𝑂𝐸PV + ( 𝐿𝐶𝑂𝐸CSP − 𝐿𝐶𝑂𝐸PV ) ×ECSPETotal
A PV CSP Hybrid solution LCOE Approximation
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NOORO III
150 MW dry 7 hours storage
NOORO II
NOORO I
NOORO IV
~ 70 MW
R&D Platform
CSP Parabolic Trough
CSP Parabolic Trough
CSP Tower
Photovoltaic
NOOR OUARZAZATE
COMPLEX,
A GRADUAL
DEPLOYMENT OF
580 MW
200 MW dry 7 hours storage
160MW wet 3 hours storage