Investment project Refinery "Okarem- Oil

Similar documents
Petroleum Refining. Environmental Guidelines for. Multilateral Investment Guarantee Agency. Industry Description and Practices. Waste Characteristics

GAS-TO-LIQUIDS - «GTL»

Whiting Business Unit

GAS-TO-LIQUIDS - «Iran GTL»

Flare Minimization in Saudi Aramco a win-win story

Station desalination and purification of sea water on the Caspian coast of Turkmenistan

TABLE OF CONTENT

Toxic Substance Reduction Plan Summaries

FINNISH FOREST INDUSTRY SUSTAINABILITY COMMITMENTS

12.0 Predicted Environmental - Impact & Mitigation measures

ISA Calgary. September 26, 2013

Filtration Applications for the Refining & Petrochemical Industries

POWER EFFICIENCY OF REFRIGERATING EJECTOR SYSTEMS FOR CONDENSATION OF LIQUID HYDROCARBONS OF OIL PRODUCTS

Energy Classifications

Supporting Materials for 1 st Quarter Results 2015

Introduction 2 CHAPTER 1 : THAILAND S ENERGY SITUATION IN

FT-GTL UNLOCKS VALUE FROM NATURAL GAS

Creamer Environmental. Containment, Caps & Liners. 12 Old Bridge Road C ed ar Grov e, N e w Jer s e y

The Study on Wastewater Treatment and Water Reuse in Saudi-Aramco, Saudi Arabia

The Downstream Petroleum Sector Water Conservation, Efficiency, Productivity (CEP) Plan Progress Report. Presentation to the Alberta Water Council

(1) Introduction (2) Chemical Treatment (3) Activated Sludge (4) Origins of sewage (5) Process overview (6) Pretreatment (7) Disease Potential (8)

(2) Improvement of the system to recover heat from units

Fig. 1: Scheme of the PVC integrated complex

Amount of energy consumed (crude oil equivalent): 104,000 kl INPUT OUTPUT. Total amount of materials generated: 70,300 tons

White Paper The Greening of the Conventional Oil Industry Meridian Energy Group, Inc. Green Investment Highlights

A Methane Emissions Inventory and Analysis of Emissions Abatement Measures for a Large State-Owned Oil and Gas Corporation: The Example of PEMEX

Addressing Global Warming

Bitumen Upgrader Residue Conversion to Incremental Synthetic Fuels Products

Changes to America s Gasoline Pool. Gary Devenish. September 30, Baker & O Brien, Inc. All rights reserved.

Initially, quality issues for investigation will not be limited and may include issues associated with:

PETROLEUM REFINERY LIQUID EFFLUENT REGULATIONS [FEDERAL]

Nadeem Shakir Qatar Petroleum. The 2nd Joint Qatar Japan Environmental Symposium, QP JCCP The 21st Joint GCC Japan Environmental Symposium

WASTE WATER TREATMENT REFINERIES

Marine Protection Rules Part 100 Port Reception Facilities Oil, Noxious Liquid Substances and Garbage

Project Overview. Northwest Innovation Works LLC and the Port of Kalama propose to develop and operate

Kurnell Refinery Conversion Project

PETE 203: Properties of oil

Rosneft the Leader of the Russian Oil Industry. Eduard Khudainatov President of Rosneft New York, April 18, 2012

U.S. Liquid Transport Fuels

Taravosh Jam Design & Engineering Co.

INDIAN OIL CORPORATION LIMITED FEASIBILITY REPORT FOR ETHANOL PRODUCTION AT PANIPAT REFINERY

An Industry Perspective: Significant Challenges and Potential Costs of CCS

A Case Study from EP3: Pollution Prevention Assessment from a Cattle Hide Tannery. HBI Pub. 10/31/94

TITLE 35 LEGISLATIVE RULES BUREAU OF ENVIRONMENT DIVISION OF ENVIRONMENTAL PROTECTION OFFICE OF OIL AND GAS

SABIC Wastewater Conservation & Reuse

Filtration Applications for the Refining & Petrochemical Industries

Spills Action Centre: 2005 Summary Report

Rosehill Recycled Water Scheme. Fairfield Recycled Water Plant

Commercial and Industrial Services A fast and reactive complete waste management solution

Tianbao Plastic Regeneration Project: Development and Challenge under New Era

Presented by Dr. William Strauss, President, FutureMetrics Director, Maine Energy Systems November 16, 2011

MINERAL PROCESSING. Inno Technologies Oy. Extraction of rare-earth metals from technogenic dumps of mining-and-processing plants.

Unit C1, C1.4 and C1.5

Roud table two Refinery & Petrochemical Integration

Enviro Voraxial Technology

Circular Economy - UNAFIC. Nov 20, Y THELIER

Achieving Process Energy Efficiency via Innovation Honeywell. All rights reserved.

SECTION V ABATEMENT COSTS RECOMMENDED VERSUS ALTERNATIVE SCHEMES

Syntroleum Coal to Liquids Integrating Gasification, Fischer-Tropsch and Refining Technology. CTL Forum, Beijing China June 15-16, 2006

Energy. in Thailand : Facts & Figures Q1 / 2013

Turning an Environmental Problem to an Opportunity

Energy Sector March 2016, Maseru, Lesotho Pavel Shermanau, IPCC TFI TSU

Petroleum Refining-Production Planning, Scheduling and Yield Optimisation

Biorefineries Workshop

Petroleum Refining-Production Planning, Scheduling and Yield Optimisation

CONCAWE S INPUT TO THE EU LONG-TERM STRATEGY - EII INITIATIVE

Evaluation of Hydrogen Production at Refineries in China. The new UOP SeparALL TM Process. Bart Beuckels, UOP NV

Designing Recycling Solutions

ANNEX 4 IPCC Reference Approach for Estimating CO 2 Emissions from Fossil Fuel Combustion

Table 30. Summary of benzene concentrations (mg/l). MCL=0.005 mg/l.

Material Flow in Japan

ENVIRONMENTAL CHALLENGES AND OPPORTUNITIES AT SAUDI ARAMCO

100% Biobased PET: A Sustainable Approach to Fiber, Film, and Bottles.

Company LOGO. High-Emissivity Coatings

«Economic instruments and transition pathways to a low carbon economy in the industrial sectors» Claudio Spinaci Unione Petrolifera President

6.1 Introduction to Wastewater Issues

Spent Caustic Treatment

ENERGY BALANCE COMPILATION

Petroleum Refining-Production Planning, Scheduling and Yield Optimisation

EXAMINING THE OPPORTUNITIES FOR RECYCLE AND REUSE OF CHEMICAL INDUSTRY WASTEWATERS

Competitiveness of the EU Chemical Industry, a Key sector in the Refining Value Chain José Mosquera, Director Industrial Policy

Top Message. OSG Corporation President and Coo COMMITTED TO CUSTOMER NEEDS COMMITTED TO THE ENVIRONMENT COMMITTED TO COMMUNICATION.

Fischer Tropsch Catalyst Test on Coal-Derived Synthesis Gas

ECONOMIC IMPACT OF ADVANCED PLASTICS RECYCLING AND RECOVERY FACILITIES IN THE U.S.

The Cost of a Cleaner Future

Running Head: ASPHALT 1. Asphalt. Name. Institution

Biorefineries. International status quo and future directions. Ed de Jong / Rene van Ree

CaCo 2 CaO+CO 2. CaO+H 2 O Ca(OH) 2. Table1. Chips custom fees and tariffs

Monsbent Pty Ltd. Cnr Yarrawonga Rd & Hume Hwy Winton, VIC, 3672

How the City of Lebanon TN Implemented Gasification for Biosolids Disposal and Power Generation

1 ANNEX 4 IPCC Reference Approach for. 2 Estimating CO 2 Emissions from Fossil. 3 Fuel Combustion

Nuclear Hydrogen for Production of Liquid Hydrocarbon Transport Fuels

GT-LPG Max SM. Maximizing LPG Recovery from Fuel Gas Using a Dividing Wall Column. Engineered to Innovate

IMO 2020 PRESENTATION TO INTERTANKO

Preliminary Disclosure; Application for Approval; Operating Permits, Volume 2: Licences and Approvals; and Abandonment Approval and

TECHNOLOGY. E-COMPANY Holding, s.e., Europe

Changing Landscapes: Midstream Oil and Natural Gas Today and in the Future February 4, 2016

Global Ethyl Benzene Market Study ( )

RECOGNIZING that oil refineries are one of the main source of oil discharges,

CE 370. Wastewater Characteristics. Quantity. The design of a wastewater treatment plant requires knowledge of: Quantity or flowrate of wastewater.

Transcription:

Construction of a refinery complex will: 1. Create a high-tech, environmentally friendly, modern refinery depth of oil refining to 95% and higher raw material processing capacity of 12 million tons. 2. Create a refinery on the basis of production infrastructure that works on refining raw materials and produces different kinds of oils, plastics, modern asphalt materials, and more. 3. Ensure that the production of the refinery gasoline, diesel fuel, oils and other products at international standards of quality 4. Further progress in Turkmenistan on world markets, as an exporter of high quality oil products. Create only in primary production, the first phase, 1,000 jobs, and the second and third stages of up to 3 000 jobs.

Given the greater productivity of the plant and a large number of processing units that are included in the current scheme of oil refining at the refinery, it is advisable to carry out the design and construction of a new refinery in three stages. In each of these three stages is proposed phased block construction of crude oil distillation plants and the necessary set of processing units recycled oil for processing received virgin petroleum fractions and residues. Thus, the productivity of the plant will constantly increase: Stage 1-4 million tons / year; Stage 2-8 million tons / year; Stage 3-12 million tons / year.

THE SCHEME OF THE REFINERY OUTPUT EDP - AVP - 4/1 4,000 thous. EDP - AVP - 4/2 4,000 thous. ENGINEERING PROCESS EDP - AP - 4 4,000 thous. 1 Gasoline А-92 EURO-5 500 thousand tons 2 Gasoline А 95 EURO-5 1520,58 thousand tons 3 Gasoline А 98 EURO-5 1350 thousand tons 4 Gasoline EURO-SUPER 400 thousand tons 5 Diesel Summer-0.003-40 EURO-5 2624,57 thousand tons 6 Diesel Winter-0.003-(-35) EURO-5 1749,71 thousand tons 7 Jet engine fuel EURO 477 thousand tons 8 Oil solvents 100 thousand tons 9 Stove fuel 626,12 thousand tons 10 Benzene 121,03 thousand tons 11 Toluene 48,41 thousand tons 12 Petroleum bitumen 95 thousand tons 13 Base oil 405 thousand tons 14 LPG 748,21 thousand tons 15 Flue gas 475,96 thousand tons 16 Sulfur 137,63 thousand tons 17 Polyethylene oxide 76,54 thousand tons 18 Polypropylene oxide 221,76 thousand tons

Location of the plant Okarem Refinery

Environmental aspects of the proposed activity The main purpose of building an oil refinery, is the production of marketable products that meet international environmental standards while minimizing the impact of production processes on the environment. Basic technical solutions proposed for realization of the project of building oil refineries are designed to: minimize the negative impact of production processes on the environment provide normative quality of all components of the natural environment in the area of the proposed construction ensure the production of marketable products that meet the demands of today's environmental standards and at the same time to minimize environmental pollution when using this product

Air Protection Investment project Refinery "Okarem- Oil Development of technological schemes of oil refining processes based on the rational use of petroleum feedstock and energy resources Equipment technological installations of automated process control system and the system of emergency automatic protection Design closed alarm systems, closed drainage systems manufacturing equipment planned to use high flue gas cleaning systems (not less than 99%) in the catalyst regeneration process Use flanges of the modern high-performance materials and fittings of the corresponding class of tightness Direction of discharge from the safety valves of technological devices and pipelines in the closed flare systems

Protection of water resources Organization of work for draining oil refinery scheme implementation of raw water intake only for the purpose of feeding water recycling systems Direction of the projected sewage refinery on its own (projected) treatment facilities for deep cleaning Organization isolated sewage systems and individual treatment units for each type of wastewater projected refinery: neutral oily and stormwater saline, acidic and alkaline oily wastewater stormwater runoff from undeveloped areas, as well as runoff from the drainage system of intercepting domestic sewage Application of a complex of new wastewater treatment Nanotechnology (includes mechanical, enzymatic and cavitation, biological wastewater treatment, advanced treatment, decontamination, and disposal of the resulting sludge) Device intercepting drainage, development of a plan to combat oil spills

The total cost of the project Refinery "Okarem - Oil " 12 million tons / year oil refining per year, according to preliminary estimates could reach 6.0-7.0 billion. USD. The first phase of construction of Block 4 million. Tons according to preliminary estimates could reach 2.6-2.8 billion. USD. The construction period of the first block - 2.5 years. Based on the preliminary estimates of financial indicators of the project, the complex will be payback time of 6-7 years. Evaluation of the payback period of the project was carried out according to traditional methods. On the basis of material balances of the plant process streams calculate the expected flow of goods and production costs associated with the purchase of raw materials, auxiliary materials, salaries of employees, mandatory insurance, etc. Prices of raw materials and products are taken as of 2014.

Financial and economic indicators of the project Index Value 1 Cash Flow 7 953 990 662,01 2 NPV 3 555 031 122,04 3 PI 1,81 4 IRR 18,49 % 5 PBP 6,38 Implementation of the project with a phased build-up of the plant's capacity from 4 million. tons to 12 million. tons of oil per year will make it possible: 1. Optimize the receipt and expenditure of cash flows 2. After the construction of Phase 1 to receive funds from the sale of petroleum products and complement them further costs for the construction of Phase 2 3. When the 2nd stage and realizing products from processing has 8 million. tons of oil and further invest in the construction of the 3 phases. 4. Step by step to solve the problem with the supply of raw materials production (million tonnes 4-8-12) and with sales of manufactured products 5. During the phase of construction will be a real possibility (in the case of sudden changes in the global energy market) or to suspend the implementation of the 2nd and 3rd stages or completely change the concept of the project.

International Finance & Development Corporation www.ifdcusa.com You can write and call directly: Author the Project: Cherkashyn Anatoliy is Director, Head of Projects of International Finance & Development Corp. Chairman of the Board of Directors Research center Georesources www.greenengineeringgroup.com E-mail: GAZCO.INC@gmail.com tel: + 38 097 383 98 80