SCU450 / SCU800 / SCU1200 / SCU1500 Silicon Crystallization Units

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ALD Vacuum Technologies High Tech is our Business SCU450 / SCU800 / SCU200 / SCU500 Silicon Crystallization Units Benchmark for Gen5 to Gen8 Multi- and Mono-Crystalline Silicon Ingot Production

Silicon Crystallization Units (SCU) Benchmark for Solar-Grade Silicon Ingot Production ALD s silicon crystallization units are automated furnaces for high-throughput melting and crystallizing solar-grade silicon into ingots for processing into wafers for solar cells. They produce one high-quality multi- or mono-crystalline silicon ingot per cycle. t Cross section of ALD s Silicon Crystallization Units u SCU Type Furnace Sizes and Configurations SCU Model Series Exclusive Design Features SCU furnace models are available for the Gen5 to Gen8 crucible generation. The SCU450 and SCU800 systems are configured and optimized for Gen5 and Gen6 silicon ingot production with a capacity range of 400-950 kg silicon per cycle corresponding to an annual solar power output of approx. 0-5 MWp. The Next Generation SCU furnace models, SCU200 and SCU500, enable substantially lower ingot manufacturing costs and will meet your long term production requirements. SCU200 and SCU500 furnaces are configured and optimized for Gen7 and Gen8 ingot production with a capacity range of 00-800 kg silicon per cycle corresponding to an annual solar power output of approx. 20-27 MWp. Top, Bottom and Side Heaters Independently controllable graphite resistance heaters provide high melt rates, flat temperature profiles and strictly vertical heat flux. The Top, Bottom and Side Heater arrangement permits for excellent electromagnetic melt stirring to minimize silicon carbide and nitride inclusions and eliminates seed melting in advanced crystallization processes. Heat Extraction System Unique Triple Heat Gate system in combination with an Active Heat Exchanger enables excellent silicon ingot crystallization and precise control of all important

High-Throughput, Multi- and Mono-Crystalline Silicon Ingot Production SCU Systems from the Technology Leader n Gen5 to Gen8 ingot production n Highest yields and excellent ingot quality n Intrinsic furnace safety design n Best system productivity available in the market n Shortest cycle times and low specific energy/argon consumption n Lowest cost of ownership t 800 kg Gen6 silicon ingot q Multiple SCU furnace installation with extension modules platform q SCU800 for multi-crystalline ingot production crystallization parameters and flexibility to adjust and vary the crystallization process as required. The Active Heat Exchanger is the key for rapid cooldown of the solidified ingot at the end of the annealing step for higher throughput with large ingots. Top Loading The Top Loading system provides for excellent accessibility and visibility of the process area and fast, safe and accurate loading/unloading of large silicon ingots using established lifting tools and standard overhead cranes. It is essential for minimum down time and safe operator conditions during cleaning and maintenance routine. Advanced Safety Design SCU systems are equipped with multiple Advanced Safety Features reflecting ALD s extensive know how in handling multi-ton loads of liquid silicon and other molten, reactive metals. Inherent operator and facility protection is assured by double layer protection shields of copper and refractory tiles across the entire SCU bottom area, PLC safety interlocks, continuous diagnostics and high cross-section chamber pressure relief devices in the event of a crucible failure and silicon spill. Central Control Center Up to 24 SCU systems are remotely controlled from a redundant server based Central Control Center. Maximum operator safety and comfort includes UPS, flexible process recipe administration and safe process data storage, based on world class SIEMENS PLC s, computers and software.

HPM and Mono 2TM Processes Advanced Silicon Melting and Crystallization Unique and patented process technology for high-performance multi- and mono-crystalline ingot production HPM and Mono 2TM Process Principle. Load multi- or mono-crystalline seeds at crucible bottom 2. Load poly-silicon chunks above seed layer 3. Melt down the feedstock 4. Keep seed layer partially solid 5. Initial uniform and controlled crystal growth on seed layer 6. Grow silicon ingot 7. Cut top, bottom and side from ingots 8. Cut ingot into bricks HPM and Mono2 TM Process Characteristics and Technology Transfer OOStandard SCU systems equipped with additional instrumentation/software meet all requirements for HPM and Mono 2TM processes OO Processes for ingots grown from multiand mono-crystalline seed layers OOMethods for seed manufacturing and replication methods OOPatented technology for seed layer preservation and controlled crystallization start OO Patents: US 8,030,633, US 7,758,696, US 8,048,22, additional patents pending Premium Ingot Quality OOHPM: High-performance multicrystalline ingot production OOMono 2TM : Mono-crystalline ingot casting OOSubstantially higher cell efficiencies compared with conventional ingot casting OOLower manufacturing cost than mono-cz process OOFull square cells OORetrofit process/equipment upgrade and license available for standard ALD SCU systems Mono 2TM bottom plate and ingot with mono crystalline structure

Unique Silicon Melting and Crystallization Concepts and Furnace Designs VIM Type Furnace Vacuum Induction Melting & Casting and Crystallization System Separation of Melting from Crystallization SMC Type Furnace Silicon Melting & Crystallization Quad Crucible System. Several Crystallization Units 2. Melt Chamber Carriage 3. Central Melt Chamber 4. Charging Unit SCU Type Furnace Silicon Crystallization Unit 3 4 Single Crucible System 2 PRODUCTION LINE Concepts Separation of Melting & Casting from Annealing & Cooling. Crystallization Chamber 2. Annealing Chamber 3. Transportation Chamber 4. Loading/Unloading Area 5. Pre-Heating Chamber Precision Engineering & Manufacturing from the Quality Leader OOMore than 00 years of experience in design and manufacture of advanced vacuum furnaces OOWorldwide sales and service network OOSeveral hundred SCU systems equal to more than 5 GWp annual production capacity installed in the world s leading solar industry companies OOEvery system meets European safety and quality standards OOCustomized solutions and concepts for silicon ingot production OOUnique experience in handling of more than 5 t liquid silicon 2 3 2 4 4 5

Technical Data SCU450 SCU800 SCU200 SCU500 Crucible / Ingot Generation [m] 5 6 7 8 Crane Hook Height [m] 4.8 5.2 5.4 5.4 Overhead Crane Capacity [t] 2 2 3 3 Max. Operating Temperature [ C],570 Ultimate Vacuum [Pa] 5 Inert Gas Ar, He (max.,000 mbar) Cycle Time [h] 56-62 62-68 65-7 68-74 Connected Power [kva] 200 250 400 500 Energy Consumption per Cycle [kwh/kg] 3,300 5,200 7,200 8,200 Argon Consumption per Cycle [Nm 3 ] 60 80 00 20 Cooling Water Consumption [l/min] 70 90 300 350 Nominal Batch Capacity [kg] 450 800,200,500 Batch Capacity Range [kg] 400-550 600-950,000 -,300,350 -,700 Ingot Crystal Structure Multi-Crystalline Annual Production Capacity [MW p ] 0-3 4-6 9-23 23-27 Retrofit / Upgrade for Advanced Processes (HPM, Mono 2TM ) Yes ALD Vacuum Technologies GmbH Otto-von-Guericke Platz 63457 Hanau, Germany Phone +49 68 307-0 Fax +49 68 307-3290 E-Mail info@ald-vt.de Internet www.ald-vt.de USA/Canada ALD Vacuum Technologies Inc. 8 Thomson Road East Windsor, CT 06088, USA Phone + (860) 386 7227 E-Mail info@ald-usa.com Far East (Japan/Korea/Taiwan) ALD Thermo Technologies Far East Co., Ltd. Shinjuku Nomura Bldg. 6F -26-2 Nishi Shinjuku Shinjuku-ku Tokyo 63-0558, Japan Phone +8 (3) 3340 3726 E-Mail peter.lang@ald-vt.de China ALD-C&K Vacuum Technologies (Suzhou) Co. Ltd. 333 Yegang Road Wujiang Economic and Technological Development Zone Suzhou, 25200, P. R. China Phone +86 52 6385 8833 E-Mail info@ald-cnk.com Russia ALD Vacuum Technologies GmbH Daev per., 20 Moskau, Russia Phone +7 (495) 787 6733 E-Mail ald@metallurg.com.ru MetaCom / SCU / 0.6