Safiya & suad & ghadeer the energy conservation measures in government & pr...
Kiomars dabbagh use of photovoltaic modules in desert climates
1. Use of Photovoltaic modules in desert climates. Existing cases and potential for new applications. The 2 nd Kuwait Electricity Conference & Exhibition Kiomars Dabbagh, Managing Director, SCHOTT Middle East FZE, Dubai
6. Solar power has the biggest potential in renewable energy Changes in the worldwide energy mix through 2100, global primary consumption Source: Solarwirtschaft.de, WBGU 2003 Prognosis of the German advisory council on global environmental change Annual energy consumption [EJ/a] Other renewables Solarthermal (only thermal) Solar electricity (PV and solarthermal power stations) Wind Biomass Hydro Nuclear Gas Coal Oil
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12. Product portfolio Crystalline and thin film standard modules SCHOTT InDaX ® 225 Target uses Industry, agriculture, large systems, off-grid Private consumers, agriculture, industry Industry, agriculture, large systems, off-grid Standard Premium Industrial Building integrated Private consumers Name SCHOTT MONO ® 180 SCHOTT ASI ® 100 SCHOTT POLY ® 230 SCHOTT POLY ® 300 SCHOTT Solar double glass modules: 30 years performance warranty => electrity production costs approx. only 3 €Cent/kWh after the financing period - at least 10 years.
13. SCHOTT PTR ® 70 Receiver The next generation with new absorber coating Product Features of the SCHOTT PTR ® 70 Receiver Vacuum insulation minimizes heat conduction losses Durable glass-to-metal seal material combination with matching coefficients of thermal expansion Anti-reflective coating of the glass tube ensures high transmittance and high abrasion resistance New absorber coating achieves emittance ≤ 10% and absorptance ≥ 95% Improved design of bellows increases the aperture length to more than 96%
15. Business model of SCHOTT Solar – Supply chain of solar power generation Module Crystalline Cell Wafer Ingot Silicon Module Glass Steel Receiver Concentrator mirror Trough Installation Distribution System- integration BOS Collector Plant Solar field Electricity Generation Glass Concentrated Solar Power Photovoltaic a-Si Cell
18. Battery Charge Controller Solar Generator 48V DC 48V DC AC 230 V 50 Hz Telecom Station Battery Block Inverter / Distribution Panels Other Loads AC 230 V 50Hz Aircon Unit Air-conditioned zone A Typical set-up .... By SCHOTT By Partners and Solar System Integrators
19. General System Structure allowing remote operation management of the telecom sites: Telecommunication network ... via Intranet, DSL, GPRS/UMTS or VPN via analog, ISDN, GSM and Modem Internet 1.- site management 2.- user management 3.- alarm management 4.- security 5.- reporting 6.- online access Access via Internet Browser Database Notifications Data Visualisation BTS BTS BTS
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21. High Weather Resistance and h igh mechanical stability is the basis for a long time durability The most important product features of SCHOTT Solar modules 1. Structures front glass: Less reflection, higher efficiency, lower output degradation 7. Non-extruded, torsion resistant aluminum profile frame: Water cannot freeze, while the design offers max structural integrity 6. High-performance adhesion used to permanently apply the laminate to the frame: continous mechanical stability 8. Thermally hardened glass: high mechanical stability 2. Frame profile flattened towards the glass: increased ability for self-cleaning and drainage 9. Cer-doped glass: increased UV resistance 3. Weather-resistant junction box 5. Optimized distance between frame and cell: low shading 4. Optimized cell distances: to protect against stress breakage and for long term stability
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26. Major advantage of a PVDH system for electricity generation in the GCC region: Solar Electricity is available when consumption is at its peak: When A/Cs are in use.
27. Kits PVDH in suitable power regions (product portfolio UNDER CONSIDERATION) Assumptions: Irradiation 1.890 W/m² (Oman Al Khuwaima) Diesel fuel price: 1 €/liter Dgen cost (only machine): 0.3 €/VA (1 €/VA total) Installation: 0.31 €/Wp Demand kWh per day DGen size Size PV Solar coverage System cost € /Wp (1.80 €/Wp for module) € /kwh pure DGen (no PV) € /kWh this system 19,200 kWh 1.000 MVA 1,900 kWp 47 % 3.10 0.31 0.24 7,800 kWh 0.365 MVA 690 kWp 47 % 3.10 0.33 0.26 1,920 kWh 0.100 MVA 190 kWp 49 % 3.10 0.4 0.33 920 kWh 0.050 MVA 99 kWp 49 % 3.10 0.5 0.42 576 kWh 0.030 MVA 61 kWp 50 % 3.10 0.62 0.55
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30. An example of Solar Market Overview in Saudi Arabia E.g. Locations of DGen‘s Source: Electr. & Co-Gen. Regulation Authority (ECRA) , Dr. A.M. Al-Ibrahim
31. There is a lack of regulation in place to assist with the development of a RE/Solar market in the GCC region. The growing demand for electricity and the lack of a grid system or shortages in many areas = solar opportunities. We can wait for regulators to create the environment needed for growth .... or seize opportunities that surround us by adopting a creative approach. The choice is ours!
Mit weniger als 4% der Fläche der Sahara könnte der heutige Strombedarf der Welt gedeckt werden Das Deutsche Luft und Raumfahrtzentrum (DLR) macht an einem Bild recht eindrucksvoll deutlich, welches Potential in der Sonnenenergie steckt. In weniger als einer Stunde strahlt die Sonne mehr Energie auf die Erde, als weltweit in einem Jahr verbraucht wird. Solarenergie hat einen geringen spezifischen Flächenverbrauch im Vergleich zu anderen EE Die roten Quadrate geben einen Eindruck vom Flächenbedarf zur Energieversorgung durch Solarkraftwerke Nicht nur eine Option für Europa
Solar power has the biggest „Cost„ potential in renewable Energy. Chance of the world wide energy mix until 2010 (global primery energy consumption) Prognosis of the German a dvisory c ouncil on g lobal environmental c hange
50 Jahre Erfahrung in der solaren Energieerzeugung 1958 Entwicklungsbeginn von PV-Solarzellen Raumfahrt (AEG), Heilbronn 1964 Silicium Solarzellen für Terrestrische Anwendungen AEG, Heilbronn 1973 Entwicklung der EFG Technologie bei Mobil Tyco, USA 1980 Entwicklung a-Si Dünnschicht Solarzelle bei MBB, München 1983 Erste SCHOTT Gläser für Solarkraftwerke in Mojave Wüste USA 1992 Serienfertigung der MIS Zelle NUKEM, Alzenau 1998 Inline-Fertigung für Solarzellen ASE, Alzenau 2002 Joint-Venture RWE SCHOTT Solar 2005 SCHOTT Solar wird 100 % SCHOTT 2006 Start Receiverproduktion in Mitterteich 2007 WSS, Dünnschicht Jena, Spatenstich Receiverproduktion Sevilla 2008 Neue Standorte: Albuquerque, Sevilla; TF GmbH, Forschungskoop ersol
hochwertige Komponenten für Solarkraftwerke und Photovoltaik Anwendungen Um diese Bandbreite abzudecken vereint Schott Solar drei unterschiedliche Technologien der solaren Stromerzeugung unter einem Dach Receiverrohre für Solarkraftwerke (CSP) Kristalline PV Module PV Dünnschichtmodule
Large systems/plants
Business model from SCHOTT Solar is to be the present in all steps of the solar value chain in pv technolgy and in the core part of thermal power generation (receiver).