EFTA02444456.pdf

EFTA02444456  Why Contract with Innviron? Design of More than 250 and construction management of more than 100 Solid Waste Management Facilities, including Landfills, Leachate and Gas Treatment Systems, Compost Plants, Transfer Stations, Sorting Facilities. Incinerators, Waste Gasification Facilities, Medical Waste Treatment Facilities, and Hazardous Waste Facilities • Currently designing and permitting the first US commercial Waste Gasification Facility in Georgia, USA. Beginning construction on Gasification Facility in Trinidad in November 2009. 3 lnnviron personnel assisted in development of RCRA regulations, developed the geosynthetic lining system technologies, and developed Sorting Facility and Compost System Technologies. 4. Development of Solid and Hazardous Waste Management Regulations for Many Countries and States 5 Design, Construction, and Operation of Solid Waste Facilities in the USA, Argentina, Ecuador, the Bahamas, Oman. Lebanon, Panama, Turkey, and the UAE. • Published more than 100 papers on Solid and Hazardous Waste Management • Permitted only Hazardous Waste / Transuranic Waste Repository in the USA EFTA_R1_01521306 EFTA02444457  What is Gasificat si-F-- Gasification may be defined as follows: • "A process technology that is designed and operated 7acji4 producing synthesis gas through the chemical converse carbonaceous • materials." 10 114 • • "A process that converts carbonaceous mater6ts through a process involving partial oxidation of the feedstock in a reducing atmosphere irrtife presence of steam at temperatures sufficient to convert the feedstock to synthesis gas, to convert inorganic matter in the feedstock to a glassy solid material known as,, vitreous frit or slag, and to convert halogens into the corresponding acid halides." • "A process that incorporates a modern, high-temperature pressurized gasifier with auxiliary gas and water treatment systems to produce refined product synthesis gas, which when combusted, produces emissions in full compliance with the Clean Air Act." Wetherhold, B., Orr, D., and Maxwell, D., "A Comparison of Gasification and Incineration of Hazardous Wastes",prepared for US Department of Energy by Radian International LLC, 30 Mar. 2000 EFTA02444458  History of Gasification • Coal Gasification used to produce medium quality gas since middle 1800s. Coat heated in low oxygen environment to produce synthesis gas, that was burned for heating and lighting in the 1800s, and burned for electricity in the 1900s. • Gasification used for the past 50 years in the production of fuels and chemicals. • Waste Gasification used in treatment of hazardous wastes, and in conversion of MSW to Medium Calorific Value (MCV) fuel. EFTA_R1_01521308 EFTA02444459  Primary Advantages of Gasification • Ability to produce consistent, high-quality Synthesis Gas (Syngas) that can be used for energy production; • Ability to accommodate a wide variety of gaseous, liquid, and solid feedstocks; • Major components of Syngas are C412, and CO2, with low levels of N2 and CH4. SO, a d N0.1 4F substantially lower in Gasification Facilities:than ncineratJ n Facilities. .k. Yt a IM EFTA_R1_01521309 EFTA02444460  Major Subsystems in Gasification and Incineration Facilities 1. Waste Preparation and Feeding 2. Combustion and Gasification 3. Combustion Gas Cleanup versus Syngas Cleanup 4. Residue and Ash/Slag Handling ■,„ Pet 4 EFTA_R1_01521310 EFTA02444461  Key Differences Between Gasification and Incineration 2. Combustion versus Gasification Incineration Gasification Designed to maximize the conversion Designed to maximize the conversion of feedstock to CO2 and H2O of feedstock to CO and H2 Large quantities of excess air Limited quantities of oxygen Highly oxidizing environment Highly reducing environment Operated at temperatures below the Operated at temperatures above the ash melting point. Mineral matter ash melting point. Mineral matter converted to bottom ash and fly ash. converted to glassy slag and fine particulate matter (char). Wetherhold. B., Orr, D , and Maxwell, D., "A Comparison of`Gasification and Incineration ofl-la a .d Wastes',prepared for US Department of Energy by Radian International LLC, 30 Mar. 2000 EFTA_R1_01521311 EFTA02444462  Key Differences Between Gasification and Incineration 3. Gas Cleanup Incineration Gasification Flue Gas cleanup at atmospheric Syngas cleanup at high pressure pressure Treated Flue Gas discharged to Treated Syngas used for Power atmosphere Production with subsequent Flue Gas discharge Fuel sulfur converted to SO, and Recovery of reduced sulfur species in discharged with Flue Gas the form of high purity elemental sulfur or sulfuric acid byproduct prepared for US Department of Energy by Radian International LLC, 30 Mar. 2000 EFTA_R1_01521312 EFTA02444463  Key Differences Between Gasificati Incineration 4. Residue and Ash/Slag Handling Incineration Gasification Bottom ash and fly ash collected, Slag is non-leachable, non-hazardous treated, and disposed as a hazardous and suitable for use in construction waste. materials. Fine particulate matter recycled to gasifier or processed for metals reclamation. Wetherhold, B., On, D., and Maxwell, D., "A Comparison of Gasification and Incineration of Hazardous Wastes", prepared for US Department of Energy by Radian International LLC, 30 Mar. 2000 EFTA_R1_01521313 EFTA02444464  Gasification System Design 1. Gasification System operate by feeding carbon-containing waste materials into a heated chamber, with a limited and controlled amount of oxygen. This creates reducing conditions in the Gasification Reactor. 2. At high operating temperatures in the Gasification Reactor, chemical bonds are broken by oxidation and steam reforming at temperatures sufficiently high to promote rapid reactions. Gasification Reactor temperatures in range of 1,550 to 3,500 °F. Primary components of Syngas created in Gasification Reactor are CO and H2, with lesser amounts of H2O, CO2, N2, C114, H2S, and HCl. Waste materials are converted from solids to gases, they are not burned. Therefore, Flue Gas is much cleaner for Gasification Process. Slag has the consistency of glass, and Sulfur may be recovered in elemental form, which may be sold. EFTA_R1_01521314 EFTA02444465  Key Elements to a Successful Gasification Facility • Sorting Line required to remove high ash content materials such as metals, glass, concrete, brick, rock, and soil; • C&D materials should be diverted. Plastics and wood can be separated from CEtD and transported to Gasifier; • Shredder and pelletizer required to produce good quality, more uniform pellets, and to reduce moisture content of waste to about 20%; • Two stage Gasification required, (1) Conventional Gasification to convert solids to syngas; and (2) Ash slagging unit required to convert carbon in ash to syngas, increase BTUs of syngas, and convert ash to slag; • Cyclone required after Gasifier to remove particulate matter from syngas prior to combustion in Boiler; • Boiler with Steam Turbine more efficient than Gas Turbine; and • Air Quality Treatment system typically consists of Acid Gas Removal Unit, Electrostatic Precipitator, Bag House with Carbon Injection, and Stack. EFTA_R1_01521315 EFTA02444466  INNVIRON GASIFICATION SYSTEM SC SORTING LINE WI MAGNETIC BELT SHREDDER IRE DEBEADER STACK ELECTROSTATIC BAG OPENER PRECIPITATOR BAGHOUSE WI ACID GAS CARBON & LIME REMOVAL UNIT INJECTION PELLETIZER (OPTIONAL) TIRE SHREDDER SYNGAS BOILER FLUE FEED HOPPER FLUIDIZED BED GASIIER STEAM GENERATOR CYCLONE STEAM TURBINE ASH/SLAG ELECTRIC Kyr PROCESSING OUTPUT EFTA_R1_01521316 EFTA02444467 Comparison of Waste o Ener Technologies Description Total Electricity Cost of Electricity Unit cost of Waste per ton of Contstruciton produced per KW- Technology Quantity Prepared (Millons US$) per day hr per da (tons/day) Waste (MW- (US$/kW' (MW-hr/ton) hrs/da,) ) hr/dia) I nnviron 250 1.12 $25 192 $130.21 Gasifier Incinerator 250 0.4 $75 69 $1,086.96 Plasma Arc 250 0.5 $125 10$ $1,157.41 EFTA_R1_01521317 EFTA02444468  1pitO6 I NO. CO VOC NH3 SOX PM Concentration ppm of Pollutants 2 3 2 5 N/A N/A @ 15%O2 Daily Emissions lbs/day 37 34 36 34 2.6 22 Annual Emissions tons/year 6.8 6.2 6.5 6.3 0.5 4.0 Exhaust temperature 26°C EFTA_R1_01521318 EFTA02444469 Flue Gas Emissions Substa Waste Gasification Facilities CO, Equivalent Emissions per Unit of Power Generated 3 275 is Es la c IS • • I07 I 6 Is 05 0 Comparison on Waste-to-Energy GatlfiCallon Inc 'notation lardfilb wkli Gm Capture Criteria Pollutants Source BOP Engineering EGaillIcatIon NI Incineration CI landfill Source: Integra Energy Consulting SO2 Particulate Matta EFTA_R1_01521319 EFTA02444470 Integrated Solid Waste Management Plan ficartS'orting • EFTA02444471  •••••••I • -__ IN N VI Re N w...rams 1 EFTA_R1_01521321 EFTA02444472  30 Ton/Hr Shredder Typical or 2 Reception Hopper and Bag Opener 4' x 30' Inclined Variable Speed Conveyor n n n n 1 2 Li n 4' x 2' Hopper Horizontal Sorting Converyor 4' x 55', Variable Speed Sorting Platform Crossbelt Magnetic Separator 4' x 4' Hopper 4' x 14' Horizontal Conveyor r c Fr v.-) 3 FIGURE 3. SORTING AND SEPERATION FACILITY US09098 LAYOUT INNVIRtN " C-L C T EFTA_R1_01521322 EFTA02444473  1 L 1 1 1, 1 1 1 1. I 1 -a ii 04111£ 10 4 INNVIRIN PROJEC1 nV US09096 DOCUMENT NO EFTA_R1_01521323 EFTA02444474  WASTE GASIFIER DESIGN Income from Sale of Power Income from 10 MW Gasifier (8.0 MW of Power to Grid): • qwaste = 250 tons/day • qp = 171.5 tons/day • E = (171.5 tons/day)(1.12 MW-hrs/ton)(365 days/yr)(1,000 KW-hrs/MW- hrs)(50.10/KW-hr) EFTA_R1_01521324 EFTA02444475  PRELIMINARY COST ESTIMATE Description 10 MW System 30 MW System Design and Permitting $1,000,000 $1,000,000 Construction Management $350,000 $450,000 Modification of Building $3,000,000 $5,000,000 Scales and Scalehouse $165,000 $165,000 Site Improvements $500,000 $500,000 Access Road, Fence, and Guardhouse $293,000 $293,000 10 MW Gasification System $15,000,000 $45,000,000 Mobile Plant Equipment $450,000 $650,000 Tire Shredder and Oversize Shredder $625,000 $900,000 Extend Grid 400 ft $500,000 $500,000 Offices (3000 ft2) $450,000 $450,000 Equipment Materials and Supplies $100,000 $100,000 Total Construction Cost $22,433,000 $55,008,000 Assumes that connection to Grid is at the building, no additional cost to extend power lines to the Building EFTA_R1_01521325 EFTA02444476  TYPICAL COMPONENTS OF REVENUE Description 10 MW System 30 MW System Tipping Fee to Process Waste: $40 per ton $3,942,000 $11,826,000 Sale of Recyclables: Ferrous Metals: ($60/ton) $280,977 $842,931 Aluminum: ($750/ton) $183,413 $550,239 Processing Fee: Tires: (1 ton/day) S36,500 $109,500 Telephone Poles and RR Ties (1 ton/day) $36,500 $109,500 Sale of Power: $7,010,920 $21,032,760 TOTAL PROJECTED REVENUE $11,490,310 $34,470,930 TOTAL PROJECTED OPERATING COST $6,894,186 $17,235,465 TOTAL PROJECTED EBITDA $4,596,124 $17,235,465 EFTA_R1_01521326 EFTA02444477  Conclusions 1. Need Tire Shredder and Debeader to process tires 2. Need Oversize Shredder to process Telephone Poles and Railroad Ties 3. Sorting Line needed to process waste, remove metals and HHW, protect >\ Shredder, Pelletizer, and Gasifier, and provide more uniform pellets 4. Facility would create a minimum of 21 to 50 new jobs 5. Potential Additional Sources of Income: Tires ($2/tire) Telephone Poles and Railroad Ties Carbon Credits Government Stimulus Money and Subsidies EFTA_R1_01521327 EFTA02444478  MINIMUM REQUIREMENTS • Long-Term Contract: Minimum Term = 20 years • Availability of waste (250 tons/day, 365 days/yr, for each 10 MW Gasification Line) • 8.0 MW/hr to Grid for each 10 MW Gasification Line • Support in Permitting the Facility • Assistance to Obtain Power Buy Back Agreement with the Local Utility Company or Base EFTA_R1_01521328 EFTA02444479