Main Pass Energy Hub™ Approved Deepwater Natural Gas Port Marine Technology Society Houston, TX May 24, 2007 Main Pass Energy Hub™ © 2006 Freeport-McMoRan Energy LLC 1 Location Main Pass Energy Hub™ © 2006 Freeport-McMoRan Energy LLC 2 McMoRan Exploration McMoRan Exploration Co. (MMR) McMoRan Oil & Gas LLC Freeport-McMoRan Energy LLC MPEH™ Freeport-McMoRan’s natural resources companies have a long history of global operations dating back to early 1900s. Headquarters located in New Orleans, Louisiana. Record of success in finding and developing complex, world-class projects. Freeport has owned and operated major offshore facilities since 1958 Main Pass facilities – previously permitted as a sulphur mine and oil and gas production and processing facility Received MARAD approval for MPEH™ on January 3, 2007 Main Pass Energy Hub™ © 2006 Freeport-McMoRan Energy LLC 3 US LNG Demand-Supply 35 30 Net Imports TCF Per Year 25 Consumption 20 Supply 15 10 5 Source: Energy Information Agency AEO 2005 0 1960 1970 1980 History Main Pass Energy Hub™ © 2006 Freeport-McMoRan Energy LLC 1990 2000 2010 2025 Projections 4 U.S. Production vs. Consumption Actual demand is cyclical and exceeds supply during certain periods of time and in certain regions of the U.S. Historical US Supply Demand Profile 90.00 80.00 70.00 Bcf/day 60.00 50.00 40.00 30.00 20.00 Dry Gas Production Pipeline Imports LNG MPORTS Total Demand 10.00 Main Pass Energy Hub™ © 2006 Freeport-McMoRan Energy LLC Jan-04 Jan-03 Jan-02 Jan-01 Jan-00 Jan-99 Jan-98 Jan-97 Jan-96 Jan-95 Jan-94 Jan-93 Jan-92 Jan-91 Jan-90 0.00 5 LNG – Production to Market Flow Schematic & Chain Valuation FLOW Natural Gas 1,060 to 1,150 Btu/scf Liquefaction (Convert to LNG) 1,060 to 1,150 Btu/scf LNG to U.S. LNG Regas at MPEH™ 1,060 to 1,150 Btu/scf Natural Gas 1,060 to 1,150 Btu/scf 1,075 Btu/scf U.S. Pipeline Grid 1,075 Btu/scf Condensate Ethane, Propane & Butane Gases Removed to Reduce Btu Content Well Typical LNG Chain Cost $/MMbtu E&P Liquefaction Shipping $.50 $2.00 $1.00 Main Pass Energy Hub™ © 2006 Freeport-McMoRan Energy LLC Ter. Regas $0.50 Total $4.00 p/l to Mkt HH – NY $1.50 HH – FL $0.50 6 Conventional vs. Integrated Storage Gas Conditioning Conventional Regas Facility Gas Storage 1.0 bcf/d Distribution to Consumers Main Pass Energy Hub™ Regas 1 bcf/d Gas Conditioning Main Pass Energy Hub™ © 2006 Freeport-McMoRan Energy LLC Gas Cavern Storage 3.1 bcf/d Peak 7 Project Advantages Key processes and systems are combined into one facility. LNG surface storage Conventional vaporization On-site gas conditioning Integrated, high capacity salt cavern gas storage Premium pipeline header to tie into premium U.S. gas markets Main Pass Energy Hub™ © 2006 Freeport-McMoRan Energy LLC 8 MPEH™ Technical Specifications Terminal Capacity • Annual LNG Throughput Capacity 350 Bcf • LNG Surface Storage Capacity • Liquid • Vapor Equivalent • Salt Cavern Storage Capacity 145,000 cm 3.1 Bcf 28 Bcf Terminal Deliverability • LNG Vaporizer (max) • Cavern Storage (max) • Peak Deliverability 1.6 Bcf/day 1.5 Bcf/day 3.1 Bcf/day •12 Hr offload capability Main Pass Energy Hub™ © 2006 Freeport-McMoRan Energy LLC 9 MPEH™ Pipeline Deliveries Mississippi 3.1 Bcfd Takeaway 8 Pipeline Connects with Broad / Liquid Market Access Alabama Transco Florida Gas Gulf South Gulfstream Texas Eastern Henry Hub Southern Natural Louisiana 2.0 Bcfd 0.5 Bcfd Tennessee Columbia Gulf Main Pass Energy Hub TM 0.5 Bcfd Optimal location east of constraints Main Pass Energy Hub™ © 2006 Freeport-McMoRan Energy LLC 10 Major Pipeline Networks Served Main Pass Energy Hub™ © 2006 Freeport-McMoRan Energy LLC 11 Project Timing License application deemed complete in mid 2004. March 2006 received final EIS from MARAD/USCG May 5, 2006 LA Governor vetoed use of “open loop” vaporization MPEH DWP “closed loop” vaporization “Amended” Application submitted 5/31/06 USCG/MARAD published “closed loop” EA 9/19/06 MARAD favorable Record Of Decision issued 1/3/07 Continuing to progress commercialization of project. Existing structures allow a 40 month design and construction schedule. In advanced discussions with certain LNG suppliers. Main Pass Energy Hub™ © 2006 Freeport-McMoRan Energy LLC 12 Shipping Lanes and Gas Pipelines Main Pass Energy Hub™ © 2006 Freeport-McMoRan Energy LLC 13 Access Route from Shipping Lane ay airw ty F Safe tlet Ou ulf 0 r G .20 ive 166 s. R FR Mis 33 C 50' 60 ' to ass th P Sou ' 70 ' 80 ' 0' 90 10 5' 12 0' 15 5' 17 Main Pass Energy Hub™ Recommended LNG Carrier Access Route ' 200 0' 30 MAIN PASS DEEPWATER NATURAL GAS PORT – CARRIER ACCESS Main Pass Energy Hub™ © 2006 Freeport-McMoRan Energy LLC 14 Carrier Access Circuit from Shipping Lane Main Pass Energy Hub™ © 2006 Freeport-McMoRan Energy LLC 15 Current Configuration Main Pass Energy Hub™ © 2006 Freeport-McMoRan Energy LLC 16 Location Advantages Location: Federal waters 210-foot (64 m) water depth 38 miles (61 km) east of Venice, Louisiana 16 miles (26 km) east of the mouth of the Mississippi River Near existing pipeline infrastructure Deepwater access for ships Near shipping lanes 2-mile (3.2 km) diameter salt dome capable of accommodating numerous caverns having an estimated storage potential of +500 million barrels (80 MM m3) Main Pass Energy Hub™ © 2006 Freeport-McMoRan Energy LLC 17 Liquefied Natural Gas (LNG) Processing System NGL Pipeline to Venice Gas Conditioning Plant Gas Pipelines: •To South Pass Block-55 •To Main Pass Block-298 •To Main Pass Block-164 and on to Coden, AL and other interconnect locations LNG Vaporization (SCV’s) LNG Surface Storage LNG Vaporization WHR Comp Dehydration 3 NG Caverns Main Pass Energy Hub™ © 2006 Freeport-McMoRan Energy LLC 18 FACILITY LAYOUT Soft BerthTM (Patent Pending) Storage Platforms 5 & 6 LNG Storage CARRIER Platform No.3 LNG Vaporization and Power Generation Platform No.1 LNG Offloading, LNG Vaporization and Gas Conditioning Facilities BS-Y7 Quarters, Shop Warehouse Storage Caverns ne eli p i "P 36 to . AL , n de Co 16" Pip eline t oM ne 20" Pipeli Platform No.2 Gas Storage Systems Compression P298 to SP55 Main Pass Energy Hub™ © 2006 Freeport-McMoRan Energy LLC 19 Soft Berth™ - Compliant Mooring System Main Pass Energy Hub™ © 2006 Freeport-McMoRan Energy LLC 20 Design Advantages of Soft Berth™ Steel Structures Complies with existing platforms Designed to survive Cat 5 Hurricane 210-foot Water Depth Sufficient depth to permit use of tuned moorings Adequate keel clearance for LNG carriers Reduces blockage effects Eliminates ground effects Compliant Berths Reduces environmental concerns during berthing of LNG carriers Greatly reduces loads between LNG carriers and berth Main Pass Energy Hub™ © 2006 Freeport-McMoRan Energy LLC 21 Soft Berth™ Load Wave Induced Loads on LNGC 4,000 3,500 Sway (kips/ft amplitude) 3,000 2,500 2,000 Beam Seas Excitation Force on LNGC Beam Seas Inertia Load by LNGC (including added mass) 1,500 Difference between Excitation and Inertia Load in Beam Seas 1,000 500 0 7 8 9 10 11 12 13 14 Wave Period (sec) Wind 0.8% 1.5% 95.5% Slow Drift 1.3% Main Pass Energy Hub™ © 2006 Freeport-McMoRan Energy LLC Mean Drift 0.9% Current 1s t order Wave 22 Main Pass Energy Hub™ © 2006 Freeport-McMoRan Energy LLC 23 Plan Configuration Main Pass Energy Hub™ © 2006 Freeport-McMoRan Energy LLC 24 Key Points Berth structures are compliant. Only second order environmental loads between ship and berth. Berths free to move due to first order loads. Berths designed for 160,000 m3 carrier. Can be upgraded for 250,000 m3 carriers. Long-term data history indicates weather and sea conditions allow 95% operability for offloading ships. Soft Berth™ – Patent Pending Main Pass Energy Hub™ © 2006 Freeport-McMoRan Energy LLC 25 BERTH OPERABILITY DESIGN APPROACH Objective – high availability/operability Determine MP 299 predominate seas Design berth to accommodate LNGCs in predominate MP 299 seas Confirm design model including operability in marine basin tests Main Pass Energy Hub™ © 2006 Freeport-McMoRan Energy LLC 26 NDBC Buoy Near MPEH™ Main Pass Energy Hub™ © 2006 Freeport-McMoRan Energy LLC From National Data Buoy Center web site at www.ndbc.noaa.gov 27 MPEH™ Proximity to NDBC Buoy MPEHTM 29.30N 88.77W NDBC Station 42040 29.21N 88.20W Main Pass Energy Hub™ © 2006 Freeport-McMoRan Energy LLC 28 Validity of Buoy Data at MPEH™ MPEH™ ~38 miles 214 ft Depth Buoy 42040 780 ft Depth Main Pass Energy Hub™ © 2006 Freeport-McMoRan Energy LLC 29 NDBC Buoy Data PARAMETER RANGE FREQ. DESCRIPTION WIND DIR. 0 to 360 1.0 Hz 8 min Ten-minute average wind direction. 1.0 deg +/- 10.0 deg WIND SPEED 0 to 62 m/s 1.0 Hz 8 min 0.1 m/s Ten-minute average wind speed values. +/- 1.0 m/s WIND GUST 0 to 82 m/s 5-second 1.0 Hz 5 secgust during 0.1 +/- 1.0 m/s Maximum peak them/s measurement hour. WAVE HEIGHT 0 to 35 m height 2.56 Hz 20 min one-third 0.1 of m the waves +/- 0.2 m Average of the highest during a 20 minute sampling period. WAVE PERIOD 0 to 30 sec period 2.56 Hz 20 min one-third 1.0 sec +/- 1observed second Average of the highest of the waves during a 20 minute sampling period. WAVE DIR. 0 to 360wave 2.56 Hz 20 min 0.1the deg highest+/-one-third 10 deg Mean direction corresponding to of the waves observed during a 20 minute sampling period. Main Pass Energy Hub™ © 2006 Freeport-McMoRan Energy LLC AVG. PERIOD RESOLUTION ACCURACY From National Data Buoy Center web site at www.ndbc.noaa.gov 30 Wind and Wave Probability Distribution Main Pass Energy Hub™ © 2006 Freeport-McMoRan Energy LLC 31 Weather Data – 8 years 1996 1997 Main Pass Energy Hub™ © 2006 Freeport-McMoRan Energy LLC 1998 1999 2000 2001 2002 2003 32 Weather Data – 1 year Main Pass Energy Hub™ © 2006 Freeport-McMoRan Energy LLC 33 Weather Data – 3 Months Main Pass Energy Hub™ © 2006 Freeport-McMoRan Energy LLC 34 Weather Data – 2 Weeks Main Pass Energy Hub™ © 2006 Freeport-McMoRan Energy LLC 35 Tasks and Durations Task # Condition 1 2 3 4 5 6 Main Pass Energy Hub™ © 2006 Freeport-McMoRan Energy LLC Ingress Berthing Connect Unloading Arm Unloading (up to "Stoppage of Cargo Transfer) Normal Disconnect of Unloading Arm and Mooring & Berthing lines/Tugs Moving LNGC off Berth Egress Total (Excluding W.O.W.) Duration (hrs) 1.0 1.5 1.0 13.0 3.0 0.5 20.0 36 Operability Study Percent operability is based on the following assumptions: • Berth design availability sea conditions •Berth: 6.6’ (2m) seas, 25 knot winds •Stay on berth: 8’ (2.4m) seas, 35 knot winds • 1.0bcf/day base vaporizing rate, 72-hr arrival schedule • No down time due to equipment maintenance, repair, or failure (i.e., equipment is always operable at rated capacity) • 8 years of weather data are used to compare environmental and system response operating limits based on the task being attempted in a sequential, hour-by-hour basis from Jan 01, 1996 to Dec 31, 2003 Conclusion: 95%+ operability achieved including times when Tropical Revolving Storms are present in the Gulf of Mexico, this study considers all weather data over the eight year period. Main Pass Energy Hub™ © 2006 Freeport-McMoRan Energy LLC 37 Maritime Research Institute, Netherlands Marine Basin Model Test Results Basin model testing at Marin confirmed computer design models. Marin is a recognized as a world leader in marine model testing. Scale model tests confirmed a more than adequate operating weather window for Soft BerthTM . Testing of a critical element – the Carrier motions relative to the allowable operating envelope of the Unloading Arms – confirmed a large window of operability. Soft BerthTM performed as expected under both maximum operating and hurricane conditions. Main Pass Energy Hub™ © 2006 Freeport-McMoRan Energy LLC 38 Main Pass Energy Hub™ © 2006 Freeport-McMoRan Energy LLC 39 Platform No.1 Elevation Looking North Submerged Combustion Vaporizers (5) DeNOx Unit (5) NGL Pipeline Pumps (3) LNG Unloading Arms (4) H.P. Sendout Pumps (8) Demethanizer Columns (2) Main Pass Energy Hub™ © 2006 Freeport-McMoRan Energy LLC 40 Platform No.3 Upper Deck Elevation Gas Turbine Generators (3) DeNOx Unit (3) Electrochlor Units Main Pass Energy Hub™ © 2006 Freeport-McMoRan Energy LLC Submerged Combustion Vaporizers (3) Nitrogen Generators Air Compression Emergency Generator 41 Platform No. 2 – Elevation Looking North Glycol Regeneration Gas Turbine Compressors Drill Rig Seawater Leach Pumps Glycol Contactors PLATFORM NO.2 ELEVATION LOOKING NORTH Main Pass Energy Hub™ © 2006 Freeport-McMoRan Energy LLC 42 LNG Storage Platforms – Perspective View SPB LNG STORAGE TANKS 100'H x 120'W x 75'L (3 PER PLATFORM) Main Pass Energy Hub™ © 2006 Freeport-McMoRan Energy LLC STORAGE PLATFORMS PERSPECTIVE VIEW 43 Salt Cavern: Geologic Overview Surface Caprock Salt Dome Gas Cavern Wells drilled into the dome 4,000 feet Water circulated into the well Salt cavern is leached as water “melts” away salt near the well bore Gas is injected at high pressures Main Pass Energy Hub™ © 2006 Freeport-McMoRan Energy LLC 44 Salt Dome Storage Cavern Development 101 Main Pass Energy Hub™ © 2006 Freeport-McMoRan Energy LLC 45 Salt Caverns U.S. Salt Cavern Storage Sites U.S. Natural Gas Salt Cavern Storage Seneca Lake Avoca Southwest Wyoming Morton Yaggy Lacey Red Lake Tioga Copper Eagle Kiowa Chiles Dome Pine Prairie Saltville Desert Crossing Copiah Liberty Eminence Starks Bethel Petal Houston Energy Cntr McIntosh Salado Southern Pines Waha Richton Moss Bluff Bedded Salt – Operational North Dayton Hattiesburg Bedded Salt – Proposed Bedded Salt – Dead Salt Dome– Operational TM Boling MPEH Markham Salt Dome - Dead Jefferson Island Clemens © 2006 Freeport-McMoRan Energy LLC Magnolia Hackberry Stratton Ridge Main Pass Energy Hub™ Sorrento Spindletop Salt Dome– Proposed Napoleonville Egan Grand Bayou 46 Cavern Design Main Pass Energy Hub™ Salt Dome Storage Potential Initial Gas Storage Cavern 2-Mile (3.2 km) Diameter Salt Dome Capacity: 39 caverns: 10.7 MM bbls (1.7 MM m³) / 9.3 bcf (263 MM m³) each Total Volume: 417 MM bbls (66 MM m³) / 363 bcf (10.3 bm³) 142 299 300 20 in. (51 cm) Final Cemented Salt Casing 24 in. (61 cm) First Cemented Salt Casing 298 30 in. (76 cm) Caprock Casing Ed (Ap ge pro of x2 Mil Salt D es (3.2 ome Km )D ia.) Category 36 in. (91 cm) Drive Pipe M.S.L. 0ft. Parameter Size Final Cemented Shoe Depth Casing Salt Back 20 in. (51 cm) 4,210 ft. (1283 m) 825 ft. (251 m) Hanging String 10 3/4 in. (27 cm) Size 59.8 MMcf,10.7 MM bbls 1.7 MM m³ Diameter 250 ft. (76 m) Height 1280 ft. (390 m) Volume Cavern Platform No.1 LNG Offloading, Vaporization and Gas Conditioning Softberth TM (Patent Pending) LNG Surface Storage Platforms 5 & 6 Volume Working Max. Gradient Gas @ casing shoe Max. Wellhead SIP 9.3 bcf (263 MM m³) Volume Min. Gradient @ casing shoe Min. Wellhead SIP 5.3 bcf (150 MM m³) Base Gas Mudline -210 ft. (64 m) Top of Caprock -1475 ft. (450 m) Liner Top of Anhydrite -1675 ft. (511 m) Top of Salt -1775 ft. (541 m) First Cemtd. Salt Casing Top of Salt + 100 ft. (30 m) 0.85 psi/ft 20 in. (51 cm) Final Cemtd. Salt Casing 3,200 psig 0.25 psi/ft 893 psig Casing Shoe -4210 ft. (1283 m) Top of Cavern -4310 ft. (1314 m) Cavern Development Durations Platform No.3 LNG Vaporization and Power Generation Planned Gas Storage Caverns Accommodations Shop & Warehouse Platform No.2 Compression, Gas Storage Systems Platform No.4 0 0 500 200 Feet 1000 400 Meters Main Pass Energy Hub™ © 2006 Freeport-McMoRan Energy LLC 1500 600 2000 800 General Months Engineering/Well Permitting 4 Procurement of leaching equipment 3 Well 1 Drilling Leaching @ 3500 gpm Dewater Total Well 1 (Includes Gen'l) 4 27 4 42 Wells 2 & 3 Drilling Leaching @ 3500 gpm Dewater Total Wells 2 & 3 (Excludes Gen'l) 4 27 4 35 NOTE: Drilling of wells is consecutive, leaching commences following drilling completion. 10-3/4 in. (27 cm) Hanging String Bottom of Cavern -5590 ft. (1704 m) 47 Scalability of Main Pass Energy Hub Main Pass Energy Hub™ Salt Dome Storage Potential 2-Mile (3.2 km) Diameter Salt Dome Capacity: 39 caverns: 10.7 MM bbls (1.7 MM m³) / 9.3 bcf (263 MM m³) each Total Volume: 417 MM bbls (66 MM m³) / 363 bcf (10.3 bm³) 142 299 300 298 Ed (A pp ge rox o 2 M f Sa lt D ile s( o 3.2 me Km )D ia. ) Platform No.3 Platform No.1 LNG Offloading, Vaporization, Gas Conditioning and Power Generation Softberth TM (Patent Pending) LNG Surface Storage Platforms 5 & 6 Accommodations, Shop & Warehouse Identical Identical in in size size and and storage storage potential potential to to Mt. Mt. Belvieu Belvieu Expandable Expandable to to 360 360 Bcf Bcf of of storage storage capacity capacity Terminal Terminal expansion expansion capacity capacity Planned Gas Storage Caverns Platform No.2 Compression, Gas Storage Systems Development Development cost cost advantages advantages Platform No.4 0 0 500 200 Feet 1000 400 Meters Main Pass Energy Hub™ © 2006 Freeport-McMoRan Energy LLC 1500 600 2000 800 48 Facilities Pipeline Header and Major Interconnections The MPEH™ LNG terminal will have direct pipeline access to 8 major interstate pipeline networks serving the Eastern United States markets. Main Pass Energy Hub™ © 2006 Freeport-McMoRan Energy LLC 49
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