deep sea resources the next frontier
DESCRIPTION
Case study presented by DP Holding SA at the Next Big Energy Surprise session at the 2013 Atlantic Council Energy & Economic Summit.TRANSCRIPT
Deep Sea Resources The Next Fron4er
21-‐22nd November 2013
Conversion of Black Sea Sapropelic Mud to Organic and Inorganic Products
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Contents
1. Occurrence of Sapropelic Mud in the Black Sea
2. Extracting and Processing “Sapropelic Mud”: Applying Marexin
Proprietary Technologies
3. Economic, Social and Environmental Effects
1. Occurrence of Sapropelic Mud in the Black Sea
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Sapropelic Mud is distributed across the seabed surface of the Black Sea
* AAPG European Region Annual Conference, October 17-19, 2010 Kiev, Ukraine Shnyukov et.al; The Black Sea Sapropel and Sapropelic Sediments as a raw material for production of new types of complex fertilisers
Surface Area 436,402 km2 168500 miles2
Average Depth 1,253 m 4,111 ft
Max Depth 2,212 m 7,257 ft
Water Volume 547,000 km3 131,200 miles3
Sapropel Resource*
3.2 x 1011 m3 11.3 x 1012 ft3
The world’s largest permanently anoxic basin.
248 years extraction at 8 MM tonnes/year flowrate project.
Black Sea
Romania
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Sapropel accumula?on in Black Sea was caused by a developing anoxic environment
1. Saline waters of the Mediterranean Sea rose and entered the fresh waters of the Black Sea 7,500 years ago
2. Salinity difference prevented mixing of the water column
3. High salinity deeper waters became anoxic causing a major crash of the entire deep ecosystem killing all oxygen-dependent life forms
4. Organic matter of the dead sea creatures did not decompose in the anoxic conditions and accumulated in the sea floor mud
Mediterranean Sea
Black Sea
Approx 88% of Black Sea waters are Anoxic
Bosphorus Straight
Anoxic, high salinity region
Oxygenated, low salinity region
Remains of marine life accumulate on the seabed as
sapropelic mud
Transition region
Sapropelic Mud is composed of layers enabling our unique product mix
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Natural Resource TOC , %wt
Sapropelic mud 7 ~ 15
c.f. Fossil Source Rocks e.g. Domanik Shales * 2 ~ 3
Exploration Results
Sub Bottom Profiling 1,300 km
808 miles
High Resolution Bathymetric Surveillance
1,000 km
621 miles
Core Samples Collected and Analysed 165 -
* Volga Ural Basin, Europe
• Top layer: Coccolith is a layer of high concentration calcium carbonate
• Middle layer: Sapropel has organic content, derived from dead marine creatures in conjunction with nano sized mineral deposition.
• Bottom layer: Mineral Muds is a layer of inorganic materials
2. Extracting and Processing “Sapropelic Mud”: Applying Marexin Proprietary Technologies
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Proprietary Marexin processing using proven technologies
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Organic Processing
• Gasifica?on Gasify organic material to produce syngas
• Syngas Conversion of syngas to higher value organics
Inorganic Processing
• Minerals Various mature alloys and slag processing technology employed
CO2 Capture and U?liza?on
• Carbon dioxide captured from the organic and inorganic processes reprocessed to produce valuable organic compounds or biofuels.
• From the seabed at around 2000m below sea level
• Using a subsea mining tool and riser to bring the resource to the sea surface
Extrac?on Offshore Processing • Dewatering via chemical and physical processes • Return of excess marine water to the seabed
Logis?cs
• Barges transport dewatered resource to an onshore processing facility
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Proprietary Marexin technology for deep sea mining
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Proprietary Marexin technology for deep sea mining
Vertical Transportation System Subsea mining tool Offshore Processing Vessel
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Sapropelic Mud
Organic content
Both organic and inorganic components are processed in one single system
Electric Arc Furnace
Inorganic content
Syngas
Mineral rich slag
Ini?al Products
Ethanol
Metallurgical Products
Final Products
Biochemical process
Proven processes
Single feed
Construction Materials
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Product mix for indica?ve annual extrac?on rate of 8 MM tonnes of Sapropelic Mud
In tonne/year
176
536 616 712
4,056
21,450
160,000
400,000
800,000
1,500,000
1,900,000
2,800,000 Ethanol 1,000 Fuel
Cement 60 Construction
Precipitated Calcium Carbonate 180 Paper , Construction
FeSi Alloys 1,120 Steel
Aluminium 1,810 Transportation, Construction
Magnesium 2,250 Automotive
Titanium 25,000 Aerospace
Manganese 2,500 Steel
Vanadium 23,260 Steel
Nickel 16,460 Steel
Chromium 3,870 Steel
Cobalt 25,050 Superalloys
Product Average Price EUR/tonne
Industrial Applica?on
3. Economic, Social and Environmental Effects
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20,0%
25,0%
30,0%
35,0%
40,0%
45,0%
0 500 1000 1500 2000 2500
IRR
Sapropel Flowrate [tone/h]
• Substantial impact on communities and markets in the region
• Increase competition in each of the product areas
• Significant positive boost to Romania’s GDP
• Boost the strategic importance of the region
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A mega project with significant economic benefits
Key Financials (For 8 MM tonnes/year) IRR > 40%
NPV > € 20Bn
CAPEX ~ € 5.7Bn
OPEX ~ € 1.1Bn
INVESTMENT AND IMPROVEMENT IN INFRASTRUCTURE
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Numerous new jobs and improvements to national infrastructure would be achieved
* Around 6000 FTEs will be required directly. **Another 60,000 FTEs will be required in the supporting industries such as infrastructure, construction, transportation etc.
Key Features (For 8 MM tonnes/year)
New Direct Jobs* ~ 6,000 FTEs
New Indirect Jobs** ~ 60,000 FTEs
TOTAL JOBS ~ 66,000 FTEs
• Maritime facilities in Romania will receive 6 - 10 MM tonnes of Sapropelic mud p.a.
• Products from the onshore facility will be transported by road, rail and maritime vessels
• Turnover of Project will be equivalent to 5% GDP in Romania
Black Sea
Romania
Discharge water from the extraction process will be returned to the anoxic zone where the hydrogen sulfide levels will rapidly deplete any entrained oxygen
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Marexin proprietary engineering design will minimize environmental impact offshore
Conformity to Present and Foreseeable EU, Romanian, Black Sea & IMO Regulations for Discharges
Recovered marine methane will be utilised to power the ship’s operations
Sea surface Oxygenated waters
Disturbance to the marine habitat will be minimised and temporary through design of the subsea vehicle
Monitoring biological activity of the seabed environment, before, during, and after the exploitation
Anoxic waters
Oxygenated/Anoxic water interface
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…onshore Marexin will convert waste streams to products
Conformity to Present and Foreseeable EU,
Romanian, Black Sea & IMO Regulations for Discharges & solid
wastes
REDUCE
REUSE
RECYCLE
Carbon dioxide waste streams will be processed to produce carbon monoxide and hydrogen, then converted to ethanol
The developed processing chain and natural structure of the sapropelic mud is allowing the conversion of the solid wastes to cement and fertilisers.
Water treatment units will assure the treatment of the industrial waters to minimise the compliant discharging into the Black Sea .
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Unique Opportunity
Sapropelic Mud
Project
Environmentally Responsible
Applies Proven Technologies
Significant Economic and Social Benefits for the region
Deep Sea Resources The Next Fron4er
21-‐22nd November 2013
Conversion of Black Sea Sapropelic Mud to Organic and Inorganic Products
Dinu Patriciu Chairman of DP Holding SA e-mail: [email protected] Melanie Chen COO of Marexin BV e-mail: [email protected] Razvan Popescu Managing Director of Marexin BV e-mail: [email protected]