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Concentración Solar para Producción Térmica y Eléctrica – Desarrollos y Avances Tecnológicos Eckhard Lüpfert, Dr.-Ing. DLR German Aerospace Center Seminario CORFO, GIZ Santiago, Chile 7 Sept 2016 DLR.de/SF > Chart 2 > >Institute of Solar Research 2016 > E Luepfert, DLR > Seminario CORFO and GIZ 7 Sept 2016 Concentrating Solar Power Plant (CSP) Solar Thermal Power Plant Solar Heat into Conventional Power Cycle DLR.de/SF > Chart 3 > >Institute of Solar Research 2016 > E Luepfert, DLR > Seminario CORFO and GIZ 7 Sept 2016 Concentrating Solar Power – Technology Variants Parabolic Trough – Linear Fresnel – Solar Tower – Dish-Stirling Dish-Stirling Solar Tower DLR.de/SF > Chart 4 > >Institute of Solar Research 2016 > E Luepfert, DLR > Seminario CORFO and GIZ 7 Sept 2016 Concentrating Solar Power with Parabolic Troughs and Linear Fresnel Fields in Solar Thermal Power Plants Solar heat for Rankine cycles saturated / overheated steam solar only and hybrid Solar-to-electric peak efficiency up to around ≈30% also process heat applications performance modeling is state of the art DLR.de/SF > Chart 5 > >Institute of Solar Research 2016 > E Luepfert, DLR > Seminario CORFO and GIZ 7 Sept 2016 Parabolic Trough Plant Scheme www.solarpaces.org Solar Field parabolic trough collector field 200’000 - 2’200’000 m2 Heat Transfer & Buffer 2-10 hours capacity Power Block steam cycle turbine, condenser 20-280 MW DLR.de/SF > Chart 6 > >Institute of Solar Research 2016 > E Luepfert, DLR > Seminario CORFO and GIZ 7 Sept 2016 CSP with storage – energy shift from day to night DLR.de/SF > Chart 7 > >Institute of Solar Research 2016 > E Luepfert, DLR > Seminario CORFO and GIZ 7 Sept 2016 Andasol 1, 2, 3 Parabolic Trough Plants – Guadix, Spain 3x 50 MW, 3700 full-load hours Solar Field Powerblock, Storage, Transmission DLR.de/SF > Chart 8 > >Institute of Solar Research 2016 > E Luepfert, DLR > Seminario CORFO and GIZ 7 Sept 2016 Current developments in CSP • parabolic trough commercial plant size 150-280 MW • 30% larger aperture size of trough collectors, bigger receiver tubes • molten salt as heat transfer medium for troughs and linear Fresnel • higher temperature (550°C) • double storage capacity • 5% better power block efficiency • direct steam generation at commercial scale, but without storage • new silicone fluid as heat transfer medium • process heat applications in food and mining industry • solar tower commercial plant size 120-150 MW • molten salt as heat transfer medium, also in combination with steam • pressurized air or atmospheric air as heat transfer medium • long term: solar fuels and hydrogen DLR.de/SF > Chart 9 > >Institute of Solar Research 2016 > E Luepfert, DLR > Seminario CORFO and GIZ 7 Sept 2016 Technology Trends: Direct Steam Generation in Solar Field • 5 MW Reference Power Plant in Kanchanamburi (Thailand) (Superheated steam 330ºC) • 30 MW Linear Fresnel System in Murcia (Spain) (saturated steam 270ºC) DLR.de/SF > Chart 10 > >Institute of Solar Research 2016 > E Luepfert, DLR > Seminario CORFO and GIZ 7 Sept 2016 Technology Trends: Molten Salt in Parabolic Troughs Silicone Fluid in Parabolic Troughs • 5 MW Demo Unit in Sicily, Italy integrated into a combined cycle power plant • 500ºC superheated steam • integrated storage DLR.de/SF > Chart 11 > >Institute of Solar Research 2016 > E Luepfert, DLR > Seminario CORFO and GIZ 7 Sept 2016 Solar Tower Sanlucar PS 10+20 MW Abengoa Khi Southafrica 50 MW Atacama-1, Noor-3, Redstone DLR.de/SF > Chart 12 > >Institute of Solar Research 2016 > E Luepfert, DLR > Seminario CORFO and GIZ 7 Sept 2016 Solar Tower, molten salt – Gemasolar 20 MW Spain, 150 MW Morocco 565 o C Hot Salt Storage Tank Cold Salt Storage Tank Steam Generator Conventional EPGS 290 o C DLR.de/SF > Chart 13 > >Institute of Solar Research 2016 > E Luepfert, DLR > Seminario CORFO and GIZ 7 Sept 2016 Tonopah, Crescent Dunes, USA: 110 MW Solar Tower, molten salt DLR.de/SF > Chart 14 > >Institute of Solar Research 2016 > E Luepfert, DLR > Seminario CORFO and GIZ 7 Sept 2016 Solar Tower – Steam, Molten Salt Ivanpah-CA 3x123 MW Brightsource Tonopah-NV 110 MW SolarReserve Lancaster-CA 5 MW eSolar DLR.de/SF > Chart 15 > >Institute of Solar Research 2016 > E Luepfert, DLR > Seminario CORFO and GIZ 7 Sept 2016 Solar Tower Jülich – Solair/HitRec – Air as Heat Transfer Fluid 1.5 MW DLR / KA München Receiver Hot Air 730º Steam Generator Storage ~ Heliostats Cold Air 110º Super heated Steam DLR.de/SF > Chart 16 > >Institute of Solar Research 2016 > E Luepfert, DLR > Seminario CORFO and GIZ 7 Sept 2016 Dish-Stirling Systems • • System size 3-25 kW Very high concentration ratio • • Power package with Stirling Engine High conversion efficiency • • • Remote operation Backup heating of power package with fuel Series production in preparation EuroDish systems at PSA, Spain 10 kW per unit Cleanergy 10 kW DLR.de/SF > Chart 17 > >Institute of Solar Research 2016 > E Luepfert, DLR > Seminario CORFO and GIZ 7 Sept 2016 Application fields for solar thermal process heat, e.g. steam Food and beverage industry: • Dairies and bakeries - Drying, cleaning, cooking, deep frying, baking, pasteurization • Slaughter houses – Rendering process, steam cooking, cooling and refrigeration • Wineries, breweries, distilleries – Steam juicing, sterilization, distillation Product industry: • Mining and oil industry – Ore leaching, galvanic processes, oil recovery, cleaning • Textile and leather industry - Dying, shaping, ironing, tanning • Cement and ceramic industry – Drying, burning, calcination • Paper industry – Bleaching, thermo-mechanical pulping, drying • Pharmaceutical and chemical industry - Process specific applications, distillation • Plastics and rubber industry - Heating, cooling, vulcanization Hotel and tourism industry - Laundry, heating, cooling, water treatment and desalination DLR.de/SF > Chart 18 > >Institute of Solar Research 2016 > E Luepfert, DLR > Seminario CORFO and GIZ 7 Sept 2016 Example solar process heat (www.protarget-ag.com) DLR.de/SF > Chart 19 > >Institute of Solar Research 2016 > E Luepfert, DLR > Seminario CORFO and GIZ 7 Sept 2016 Application examples solar process heat in Chile • Process heat supply for mining camp • hot water for showers, replace diesel fuel • Process heat supply for copper mine • hot water for electro-winning, replace diesel fuel • Process steam for copper smelter • 100% solar during daytime • Hot water supply for mining process • heap leaching, reduce fuel consumption by 30% DLR.de/SF > Chart 20 > >Institute of Solar Research 2016 > E Luepfert, DLR > Seminario CORFO and GIZ 7 Sept 2016 CSP with thermal storage enables a safe and CO2-free electricity supply CSP: flexible, dispatchable, complementary to PV und Wind CSP + Storage Heat Storage PV Wind Heat Electricity Turbine Co-firing Solar Field Heat DLR.de/SF > Chart 21 > >Institute of Solar Research 2016 > E Luepfert, DLR > Seminario CORFO and GIZ 7 Sept 2016 Outlook CSP Market until 2025 Estimated installed CSP capacity until 2025: 10 - 20 GW Accumulated, additional CSP investment until 2025: 25 – 75 billion US$ Annual CSP O&M market volume in 2025: 1 - 2 billion US$ /a Additional capacity in the field of industrial process heat DLR.de/SF > Chart 22 > >Institute of Solar Research 2016 > E Luepfert, DLR > Seminario CORFO and GIZ 7 Sept 2016 Solar Fuels: Fuels from water, CO2 and sunlight Carbon dioxide (CO2) Water (H2O) In 20 years commercial ? Synthesis Gas (H2 + CO) Solar Tower, Jülich artist‘s view Synthetic Fuels… e.g. Fischer-Tropsch-Plant DLR.de/SF > Chart 23 > >Institute of Solar Research 2016 > E Luepfert, DLR > Seminario CORFO and GIZ 7 Sept 2016 Solar Irradiation and Project Locations • Extraterrestrial irradiance: 1367 W/m² • Attenuation due to atmospheric absorption and scattering Irradiance on earth 1000 W/m² Annual Sum of Direct Normal Irradiance DLR.de/SF > Chart 24 > >Institute of Solar Research 2016 > E Luepfert, DLR > Seminario CORFO and GIZ 7 Sept 2016 How DLR Solar Research works with industry: Industry DLR.de/SF > Chart 25 > >Institute of Solar Research 2016 > E Luepfert, DLR > Seminario CORFO and GIZ 7 Sept 2016 Cost development PV vs. CSP Energy cost PV Module cost PV 2007 2014 Energy cost CSP 2014 DLR.de/SF > Chart 26 > >Institute of Solar Research 2016 > E Luepfert, DLR > Seminario CORFO and GIZ 7 Sept 2016 Institute of Solar Research Concentrating Solar Systems for Power, Heat and Fuel generation • Germany’s largest research entity in the field of concentrating solar systems for the generation of heat, electricity and fuel • Research Areas: Line Focus SystemsPoint Focus SystemsQualification Solar Energy MeteorologyNew MaterialsSolar Chemical Engineering • Services and consulting for industry clients • Annual income in 2015: 19,0 €Mio • Staff: approx. 160 people at the four sites Cologne, Jülich, Stuttgart, Almería (Spain) • Spin-off companies: CSP Services GmbH, Sowarla GmbH, Heliokon GmbH DLR.de/SF > Chart 27 > >Institute of Solar Research 2016 > E Luepfert, DLR > Seminario CORFO and GIZ 7 Sept 2016 Institute of Solar Research Services Qualification Services Resource Assessment & Forecasting Solar Water Treatment For Components and Plants: • Determination of quality characteristics and performance parameters • Aging Tests • Solar radiation, soiling and aerosol measurements • Sensor calibration and characterization • Nowcasting of irradiance • Technology • Consulting Software Tools for CSP Plants Technology Assessment/F&E-Support • Greenius: yield calculation for renewable energies • STRAL: calculation of radiation flux density (ray tracing) • HFLCAL: heliostat field layout and optimization • Measuring equipment • Test installations • Provision of highly concentrated light, UV/IR resources for radiance tests • Design reviews • Feasibility studies DLR.de/SF > Chart 28 > >Institute of Solar Research 2016 > E Luepfert, DLR > Seminario CORFO and GIZ 7 Sept 2016 Highlights • DLR developed optical measurement devices, that allow industry to build a much more precise solar collector • DLR solves fundamental challenges to use air or steam as heat transfer fluids in solar collectors and receivers • DLR's innovative QUARZ® Lab becomes „Quasi-Standard“ to asses collector components • DLR demonstrates together with industry several new CSP technology systems in the MW-scale and signs license agreements with industrial clients • DLR develops and implements together with University partners a CSP capacity building program for the MENA region • DLR spun-off 3 companies in this field in the last 10 years from the Institute of Solar Research Heliokon DLR.de/SF > Chart 29 > >Institute of Solar Research 2016 > E Luepfert, DLR > Seminario CORFO and GIZ 7 Sept 2016 Summary • CSP applications increasing in project size • higher fluid temperature in parabolic troughs and towers • storage capacity is the among the most relevant advantages of CSP • dispatchable power supply, base load, evening peak load • market development in South Africa, Middle East, India, China Chile • relevant process heat applications in food industry, in mining industry • DLR is partner in technical development, in quality control and expertise • DLR and German industry partners interested in joining projects in Chile DLR.de/SF > Chart 30 > www.DLR.de • Chart 30 concentrating solar technology – … precise, efficient, sustainable DLR.de/SF > Chart 31 > >Institute of Solar Research 2016 > E Luepfert, DLR > Seminario CORFO and GIZ 7 Sept 2016 Useful links CSP Market • • • • • www.solarpaces.org http://www.nrel.gov/csp/solarpaces/ www.dlr.de/sf http://www.sbc.slb.com/SBCInstitute/Publications/SolarPower.aspx www.helioscsp.com Contact • [email protected]