Manufacture Of Synthetic Oil and Gas from Natural Low-Grade Mineral Fuel Fossils

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27 th Oil Shale Symposium Manufacture Of Synthetic Oil and Gas from Natural Low-Grade Mineral Fuel Fossils Edouard Golmshtok, Mikhail Petrov, Alexander Blokhin, Dmitriy Kozhitsev, Ruslan Salikhov October, 2007 Colorado School of Mines «TTU» Limited Liability Company Russian Federal Atomic Energy Agency Federal State Unitary Enterprise Saint Petersburg Research and Design Institute ATOMENERGOPROEKT TTU Ltd. FSUE SPAEP Science & Technical Center ECOSORB 1

Processing Technology The technology is based on the method of high-speed oil shale pyrolysis by solid heat carrier Galoter (Russia). The developer of the method is the G. Krzhizhanovskiy Institute of Energy JSC ENIN (Moscow). The essence of the method is the following: heat, necessary for the thermal decomposition of raw oil shale, is transferred to it from its own ash, mixed during the continuous process with the raw shale and then heated in the process furnace again due to the heat received when burning semi-coke. The method was studied in 1950-s on the benchscale and pilot plants with the capacity of up to 200 tons of the shale per a day. In 1966 plant UTT 1-500 (500 tons of the shale per a day was commissioned on oil shale chemical plant Kiviyli in Estonia. This plant was exploited till 1981 when it was dismantled. During the exploitation period of UTT-500, it was processed about 2.06 mln tons of 1 Abbreviation UTT-3000 means in Russian - solid heat carrier (SHC) installation with throughput capacity 3000 tons of oil shale a day. So, both abbreviations English SHC and Russian UTT mean the same. shale, received 276 thousand tons of the commercial shale oil and more than 109 mln.m 3 of the semi-coke gas with the combustion value of 10000-11000 kcal/nm 3 (41.9-46.1 MJ/nm 3 ); the process and equipment analyses and balance tests were performed. On the basis of the design experience, exploitation and researches of this plant, FSUE SPAEP (previous L.О. Teploproect ), L.F. Orgenergostroy and Lengiproneftekhim with taking part of the scientific organizations ENIN, Institute of Chemistry AN ESSR, Scientific and Research Institute of Shale developed the project of the head plant of UTT-3000 with capacity 3330 tons of the shale per a day or 1 mln tons per year, and in 1980 the first plant and then in 1984 the second plant UTT-3000 were commissioned on Estonia Electric Power Plant, where they operate successfully till now called Oil Factory in Narva. So, the scientific method of the low-grade solid fuels processing was modified into the modern technology of the shale processing. This technology was studied and mastered in details on the large 2

industrial scale that allows when designing and forecasting to determine exactly the need in the initial shale, the production scope and characteristics of the received production, power inputs and influence on the environment and so on. The plant consists of retorting unit, distillation unit, power plant, control and infrastructure. Retorting unit includes following systems: Raw oil shale feeding system includes stockpiles, belt conveyors, bunkers, crushers, feeders, screw conveyors; Raw oil shale drying system consists of airfountain dryer (AFS), three stages of dry shale cyclone, pneumatic post, connecting dryer with cyclones, feeding and sealing screw conveyer of supplying raw material in semi-coking; Semi-coking system including dry shale mixer with heat carrier, heat carrier cyclones, rotary kiln-type reactor, dust chamber, semi-coke screw conveyer, air fountain furnace (AFT), heat carrier bypass; Heat recovery system consisting of the following equipment: three stages of ash cyclones, ash heat exchanger, exhaust heat boiler with air heater of feed water; Outgoing gases purification system consists of electrofilter and screw conveyers of collected ash from electrofilter; Blowing air system is supplying air for semicoke burning in air fountain furnace and smoke fumes afterburning in exhaust heat boiler from blower Auxiliary systems including: Steam pipeline system, Feed water system, Drain and blowdown system, Equipment electrical heating system, Cooling water system, Starting fuel system and fuel for backlighting, Oil-piping system, Ash removal system, Fire Extinguishing system, Water supplying and Sewerage, etc. Interconnections and features of the essential processing systems are shown on the Fig.1. 3

Fig.1. An Example of UTT Heat and Material Balance Scheme 4

Daily balances of one UTT-3000 installation for oil shales of different origin INPUT Balancing materials, tons China 1 China 2 Jordan Brazil Air 1 693 5 046 4 097 5 006 Raw Oil Shale 3 336 3 336 3 336 3 336 Water 708 3 945 2 139 785 Total input 5 737 12 328 9 572 9 127 OUTPUT Flue gas 2 639 6 851 4 699 1 951 Ash 1 907 771 2 392 2 610 Steam 708 3 945 2 139 785 Shale Oil 284 319 342 217 Gas 123 327-126 Hot air 3 368 Total output 5 737 12 328 9 572 9 127 SALEABLE PRODUCTS - shale oil 284 319 342 217 - gas 123 327-126 - electricity, kwh 179 616 1 549 205 905 809 265 523 Efficiency of oil shale heat recovery in UTT installation reaches 91% as it is demonstrated on Fig.2. Raw Oil Shale 2,500 thsnd t (500 thsnd t.o.e.) Efficiency: On commodity products 80.0 % General (incl. own needs)-85.5% SHC installation 456.4 thsnd t.o.e. Efficiency 91,3% Gas 101.7 thsnd t (82.5 thsnd t.o.e.) Medium oil 117.5 thsnd t (106.7 thsnd t.o.e.) Diesel fraction 29.6 thsnd t (28.9 thsnd t.o.e.) Petrol fraction 40.5 thsnd t (39.8 thsnd t.o.e.) Steam 900 thsnd t (56.7 thsnd t.o.e.) Heavy oil 139.9 thsnd t (120.1 thsnd t.o.e.) Gas petrol 22 thsnd t (21.7 thsnd t.o.e.) Electricity 374.2 mln kwh (32.2 thsnd t.o.e.) Electricity 203.6 mln kwh (17.5 thsnd t.o.e.) Steam and heat 100,040 Gcal (10 thsnd t.o.e.) Synthetic oil 350 thsnd t (317.3 thsnd t.o.e.) Materials required for one UTT-3000 installation: Carbon steel for equipment 1400 tons Stainless and alloyed steel 500 tons Refractory lining and isolation 1050 tons Construction metal rolling 5000 tons (incl. reinforcement) Concrete 9600 ton (depends on climate conditions) Fig.2. Balance scheme of heat conversion, Leningrad Oil Shale Project, 2006-2007 5

During 2006-2007 an Association was organized with participation of FSUE SPbAEP, Science & Technical Center ECOSORB, TTU Ltd, Advant Technology, Carno International Inc., Shungit Ltd. Mission of the Association: Collecting and saving inventions, experience and know-how concerning technologies of processing solid fuels to liquid and gaseous high quality products in installations with solid heat carriers UTT based on Galoter method. Perfection and distribution of UTT technology around the World as based on matured UTT-3000 installations as well as development, perfection and distribution UTT-7000 and UTT-10000 installations. Goal of Association: To put up UTT installations on all basic oil shale deposits on a turn-key basis. Base of the Association activity: Main holders of basic patents protecting method, installations and technical decisions on separate essential parts of UTT installations have contributed their rights, experience and know-how to Association. Science & Technical Center ECOSORB headed by Academician, Professor Mr.A.I.Blokhin, has contributed basic patents: Method and installation for thermal processing of high-ash fuels (RU), priority of 25/04/97; Method of thermal processing of high-sulfur fuels (RU), priority of 31/12/97; Method of thermal processing of high-sulfur oil shales (RU), priority of 15/06/99. Federal State Unitary Enterprise the Saint Petersburg Research & Design Institute ATOMENERGOPROEKT has contributed patent Installation for thermal processing oil shale with solid heat carrier (variants), priority of 05/12/2005 and has reserved exclusive rights for designing works for all agreements concluded by the Association with third parties concerning UTT (SHC) installations. Doing this FSUE ATOMENERGOPROEKT has contributed its rich experience in designing oil shale based facilities: 6

Plant, Facility Site & Time of design & Launching Oil Factory Narva, 1975-1980, 1980-1984 Power Technological Plant Viru Keemia Group Galoter Project Slantsy, 1994-2007 Kohtla Yarve, 2006-2007 Equipment Two commercial UTT-3000 facilities Project 3xUTT-3000 Project 1xUTT-3000 Capacity 6000 t/day (in operations now) 9000 t/day (start in 2007) 3000 t/day (start in 2007) Oil Factory in Narva, Estonia, built under ATOMENERGOPROEKT s design, 1980-84 ATOMENERGOPROEKT s reference list Plant, Facility Site & Time Equipment Capacity of design & Launching Ahtme PP Near to 46,5 MW Ahtme, 1951 Baltic PP 5 km near to Narva, 1959-66 8 х ТП-17 + 8 х ВК-100 4 х ТП-67 + 4 1290 МW power, 505 МW heat Estonia PP 25 km to Narva, 1969-73 Kiviyli Kiviyli, 1950- х К-200 8 х ТП-101 + 8 х К-200 R&D UTT- 53 200 facility Kiviyli Kiviyli, 1963 R&D UTT- 500 facility 1610 МW power,84 МW heat 150-200 t/day 500 t/day Foundation of UTT-3000 on Viru Keemia Group Galoter Project Site in Kohtla Yarve, Estonia, made under ATOMENERGOPROEKT s design, 9 th Oct, 2007 7

Achievements: For the time passed since 2006 the Association has concluded LOIs, MOUs, contracts and agreements for involvement in next projects with provision Know-How and technical documentation: Project for oil shale development in Brazil, (4xUTT-3000, 6 000 bopd); Project for oil shale processing in China; R&D for brown coal processing in China; Establishment of Joint venture Advant Technologies for oil shale development in Pacific islands area; Project for Leningrad oil shale deposit development in Russia starting in 2007 (3xUTT-3000 for the first stage 7 000 bopd on Leningradskaya mine field and upto 12xUTT- 3000 further, 30 000 bopd on Western and Eastern fields). Oil Shale Project in Komi Republic, Russia Kashpirskoe Oil Shale Deposit Development Project, Middle Volga, Russia; Perelyub-Blagodatskoe Oil Shale Deposit Development Project, Orenburg, Russia; Project for solid wastes utilization in Russian Federation (Federal program). Oil Shale Development Project in Uzbekistan; Establishment of JV for venture financing of R&D program UTT-10000 (expected to finish in mid of 2009). Bankable Feasibility Study for Oil Shale Development in Jordan (18xUTT-3000, 30 000 bopd) Initiation of Russian Federal Program on Oil Shale Development The Association is developing and perfecting methods and installations and has registered number of applications for international patents: Registered priority Subject 05/12/2005 Installation for thermal processing oil shale with solid heat carrier 05/12/2006 Method and installation for thermal processing of high-ash low-grade solid fuel 19/06/2007 Method and installation for thermal processing of high-ash solid fuel 03/09/2007 Method of thermal processing oil shale with producing liquid and gaseous fuels, cement clinker, and installation for its realization 02/05/2007 Method and installation for thermal processing of high-ash low-grade solid fuel 29/06/2007 Method and installation for thermal processing of fine-grained fuel 19/06/2007 Method of thermo-chemical processing of tar in mixture with natural activators of cracking 03/07/2007 Bench scale installation for solid fuel semi-coking 8