Linde Engineering. Natural Gas Processing Plants.



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Linde Engineering Natural Gas Processing Plants.

2 Contents. 3 Introduction 4 Components and pretreatment of natural gas 5 Natural gas plants 6 Extraction of hydrocarbons and LPG plants 7 References for LPG/C 3+ recovery plants 8 NGL plants 8 References for NGL/C 2+ recovery plants 10 Extraction of non hydrocarbons Nitrogen rejection units (NRU) Helium recovery and liquefaction plants 11 References for nitrogen rejection and helium plants 12 Contact

3 Introduction. Natural gas is valuable both as a clean source of energy and as a chemical feedstock. Before reaching the customer, it has to pass several processing steps. These steps are partly necessary to be able to transport the gas over long distances and partly necessary for the recovery of valuable components contained in the gas. Linde AG s Engineering Division has world-class experience in the entire natural gas processing chain. Linde offers engineering as well as technical and commercial services, including feasibility studies, pre-feed, FEED, detail engineering and turnkey plant construction. Plant design and scope of supply typically includes specialized and tailor made cryogenic equipment manufactured in Linde workshops such as platefin and coil-wound heat exchangers. Linde s competence in project development, planning, execution and construction of turn-key plants is clearly demonstrated by the fact that it has built more than 4,000 plants world-wide.

4 Components and pretreatment of natural gas. Components of natural gas Natural gas is a mixture of gases containing primarily hydrocarbon gases. It is colorless and odorless in its pure form. It is the cleanest fossil fuel with the lowest carbon dioxide emissions. Natural gas is an important fuel source as well as a major feedstock for fertilizers and petrochemicals. Pretreatment of natural gas Natural gas pretreatment typically consists of mercury removal, gas sweetening and drying. Natural gas is dried in molecular sieve adsorbers. Depending on the downstream processing steps and the concentration of the sour gas components, it may be necessary to remove H 2 S and CO 2 from the natural gas. Scrubbing processes such as MDEA, Benfield or SULFINOL are offered for this service. Should only minor amounts of sour gas be present, they can be removed by adsorption along with the removal of water. Mercury guard beds are recommended to protect people and equipment. Pretreatment of natural gas Natural gas pretreatment Mercury CO 2 /H 2 S H 2 O Sales gas FEED gas Inlet facilities Mercury removal Sour gas removal Dehydration Extraction/ separation Heavy ends Product

5 Non hydrocarbons e.g. nitrogen, helium, carbon dioxide, hydrogen sulphide, water, etc. Helium plants Separation, purification, liquefaction NRU Nitrogen rejection units Methane (C 1 ) Ethane (C 2 ) Natural gas ex well Propane (C 3 ) Butane (C 4 ) LPG NGL NGL plants Natural gas liquids LPG plants Liquefied petroleum gas Heavier fractions: - Pentanes plus (C 5+ ) - Natural Gasoline - Condensate Portfolio of natural gas processing plants Natural gas plants. Cryogenic processes are the most economical method for separating natural gas components. Nitrogen is removed from natural gas to reduce transportation volumes and increase heating value. Nitrogen removal is combined with the recovery of helium, when present. High purity helium is produced by the combination of cryogenic and pressure swing adsorption process steps. NGL, LPG and condensate as well as the pure components methane, ethane, propane and butane often have higher sales values compared to the pipeline gas itself. Therefore, they are often extracted and fractionated in tailor made processing plants according to the specific requirements of the regional market and the customers. Processes for the pretreatment and separation of natural gas as well as the extraction of NGL, LPG, nitrogen and helium are offered by the Engineering Division. Combined with Linde s project execution know-how, these processes can be implemented on a turn-key basis for all kinds of projects.

6 Extraction of hydrocarbons and LPG plants. Extraction of hydrocarbons Due to their added value, heavier hydrocarbons are often extracted from natural gas and fractionated by using several tailor made processing steps. LPG plants LPG (Liquefied Petroleum Gas) is widely used as alternative fuel for cars, but is also suitable as a chemical feedstock. It consists of propane and butane (C3/C4). For the recovery of LPG/C3+ the Engineering Division offer an absorber process, which guarantees recovery rates as high as 99.9 %, while at the same time featuring low specific energy consumption. Furthermore the tolerable CO2 content of the feed gas is higher than for conventional expander processes. To achieve high C3 recovery rates, Linde implements an absorber column upstream of the deethanizer. Here the feed gas is scrubbed by using a light hydrocarbon reflux coming from the top of the deethanizer. LPG is separated from the heavier hydrocarbons down-stream of the deethanizer using a destillation column. Absorber process for C 3+ recovery NG Sales gas LPG Deethanizer LPG column Absorber C 3+

7 References for LPG/C 3+ recovery plants. C 3+ recovery plant in Kollsnes, Norway (Photo courtesy of STATOIL) C3+ recovery plant in Constanta, Romania FEED gas capacity : 160,000 Nm³/h Customer : Petrom S.A. (member of OMV Group) Start of production : 2009 C3+ recovery plant in Kollsnes, Norway FEED gas capacity : 1,100,000 Nm³/h Customer : Troll Group (Statoil) Start of production : 2003 C3+ recovery and fractionation plant in Rayong, Thailand FEED gas capacity : 258,000 Nm³/h Customer : Petroleum Authority of Thailand Start of production : 1995 C 3+ recovery and fractionation plant in Rayong, Thailand

8 NGL plants. NGL consists of ethane and heavier hydrocarbons (C 2+ ) and constitutes an ideal feedstock for steam crackers producing olefins. It has a higher sales value compared to the pipeline gas itself, which justifies an extraction. For the recovery of NGL/C 2+ the Engineering Division offers a well proven expander process enabling recovery rates up to 98 %. The cryogenic process utilizes an expander to provide the refrigeration duty, which is necessary for the partial liquefaction of the natural gas upstream of the destillation process. The process is characterized by the use of internal refrigeration to the maximum extent in order to minimize or even eliminate the necessity of external refrigeration. This ensures the lowest possible life cycle costs and investment costs for the customer. References for NGL/C 2+ recovery plants. C2+ recovery and fractionation plant in Middle East FEED gas capacity : 3,000,000 Nm³/h Customer : National oil and gas company Start of production : 2005 C2+ recovery plant in Middle East FEED gas capacity : 1,000,000 Nm³/h Customer : National petrochemical company Start of production : 2005

9 NG Sales gas C 2 Refrigerant Demethanizer Deethanizer C 3+ Expander process for C 2+ recovery C2+ recovery and fractionation plant in Rayong, Thailand FEED gas capacity : 390,000 Nm³/h Customer : Petroleum Authority of Thailand Start of production : 1997 C2+ recovery and fractionation plant in Kårstø, Norway FEED gas capacity : 670,000 Nm³/h Customer : Statoil for Statpipe Group Start of production : 1986

10 Extraction of non-hydrocarbons. Natural gas is a mixture of gases containing primarily hydrocarbon gases. It is colorless and odorless in its pure form. It is the cleanest fossil fuel with the lowest carbon dioxide emissions. Natural gas is an important fuel source as well as a major feedstock for fertilizers and petrochemicals. Nitrogen rejection units (NRU) Nitrogen is removed from natural gas to reduce transportation volumes and increase heating value. In some cases nitrogen rejection units are integrated within LNG plants to limit the nitrogen content in the fuel gas or to recover methane from tank return or end flash gas. The Engineering Division is typically using a double column process for the removal of nitrogen. This maximizes the heat integration of the process. Depending on the nitrogen content of the feed gas, an additional enrichment column may be foreseen upstream of the actual removal process. Helium recovery and liquefaction plants Helium is a rare gas, which is recovered from natural gas when present in sufficient concentrations. Linde Engineering offers a well-proven cryogenic process for the recovery of high purity helium (> 99.999 %). High purity helium is used for special applications such as space technology or the realization of superconductivity. To attain high purity the raw helium is first recovered from natural gas in a cryogenic separation process. Down-stream of this process step it is purified in a pressure swing adsorption (PSA) unit and than liquefied for storage at temperatures of about -270 C. The Engineering Division has own technologies for each process step and is in a position to offer complete plants on a turn-key lumpsum basis. Double column process for nitrogen rejection Double column NG N 2 CH 4

11 LNG plant in Hammerfest, Norway References for NRUs and helium plants. NRU integrated in Pluto LNG plant in Karratha, Australia FEED gas capacity : 78,000 Nm³/h Customer : Woodside Burrup Pty. Ltd. Start of production : 2010 Helium recovery and liquefaction plant in Darwin, Australia Production rate : 2,6 t/d liquid helium Customer : BOC Australia Start of production : 2009 NRU integrated in Snøhvit LNG plant in Hammerfest, Norway FEED gas capacity : 71,400 Nm³/h Customer : Snøhvit Group Start of production : 2007 Helium recovery and liquefaction plant in Skikda, Algeria Production rate : 10 t/d liquid helium Customer : Helison S.p.A. Start of production : 2005 NRU integrated in Pluto LNG plant in Karratha, Australia NRU integrated in a helium plant in Skikda, Algeria FEED gas capacity : 47,000 Nm³/h Customer : Helison S.p.A. Start of production : 2005 NRU in Onslow, Australia FEED gas capacity : 47,000 Nm³/h Customer : BHP Petroleum Start of production : 1994 Helium recovery and liquefaction plant in Skikda, Algeria

Designing processes constructing plants. Linde s Engineering Division continuously develops extensive process engineering know-how in the planning, project management and construction of turnkey industrial plants. The range of products comprises: Petrochemical plants LNG and natural gas processing plants Synthesis gas plants Hydrogen plants Gas processing plants Adsorption plants Air separation plants Cryogenic plants Biotechnology plants Furnaces for petrochemical plants and refineries The Engineering Division and its subsidiaries manufacture: Packaged units, cold boxes Coil-wound heat exchangers Plate-fin heat exchangers Cryogenic standard tanks Air heated vaporizers Spiral-welded aluminium pipes More than 4,000 plants worldwide document the leading position of the Engineering Division in international plant construction. Engineering Division Schalchen Plant Tacherting, Germany Phone +49.8621.85-0 Fax +49.8621.85-6620 plantcomponents@linde-le.com Linde Engineering Dresden GmbH Dresden, Germany Phone +49.351.250-30 Fax +49.351.250-4800 ledd.dresden@linde-le.com SELAS-LINDE GmbH Pullach, Germany Phone +49.89.7447-470 Fax +49.89.7447-4717 selas-linde@linde-le.com Cryostar SAS Hésingue, France Phone +33.389.70-2727 Fax +33.389.70-2777 info@cryostar.com Linde CryoPlants Ltd. Aldershot, United Kingdom Phone +44.1252.3313-51 Fax +44.1252.3430-62 lindecryoplants@linde-le.com Linde Impianti Italia S.p.A. Rome, Italy Phone +39.066.5613-1 Fax +39.066.5613-200 m.margheri@lindeimpianti.it Linde Kryotechnik AG Pfungen, Switzerland Phone +41.52.3040-555 Fax +41.52.3040-550 info@linde-kryotechnik.ch Bertrams Heatec AG Pratteln, Switzerland Phone +41.61.467-7525 Fax +41.61.467-7500 hubertus.winkler@linde-le.com CRYO AB Gothenburg, Sweden Phone +46.3164-6800 Fax +46.3164-2220 lars.persson@cryo.aga.com Linde Process Plants, Inc. Tulsa, OK, U.S.A. Phone +1.918.4771-200 Fax +1.918.4771-100 sales@lppusa.com Selas Fluid Processing Corp. Blue Bell, PA, U.S.A. Phone +1.610.834-0300 Fax +1.610.834-0473 sales@selasfluid.com Hydro-Chem Holly Springs, GA, U.S.A. Phone +1.770.345-2222 Fax +1.770.345-2778 sales@hydro-chem.com Linde Engenharia do Brasil Ltda. São Paulo, Brazil Phone +55.21.3545-2255 Fax +55.21.3545-2257 jaime.basurto@linde.com Linde Process Plants (Pty.) Ltd. Johannesburg, South Africa Phone +27.11.490-0513 Fax +27.11.490-0412 linde.za@linde-le.com Linde Engineering Dresden GmbH Moscow Office, Russia Phone +7.495.6426242 Fax +7.495.6426243 ledd.moscow@linde-le.com Linde Engineering RUS,OOO Samara, Russia Phone +7.846.331-3377 le.rus@linde-le.com Linde Arabian Contracting Co. Ltd. Riyadh, Kingdom of Saudi Arabia Phone +966.1.419-1193 Fax +966.1.419-1384 martin.hofmann@linde-le.com Linde Arabian Contracting Co. Ltd. Al-Khobar, Kingdom of Saudi Arabia Phone +966.3.887-1191 Fax +966.3.887-0133 diethard.nowag@linde-le.com Linde Engineering Middle East LLC Abu Dhabi, United Arab Emirates Phone +971.2.6981-400 Fax +971.2.6981-499 leme@linde.com Linde Engineering India Pvt. Ltd. Vadodara, Gujarat, India Phone +91.265.3056-789 Fax +91.265.2461-757 sales@linde-le.com Linde Engineering Far East, Ltd. Seoul, South Korea Phone +82.2780-0954 Fax +82.2780-0958 hanyong.lee@linde.com Linde Engineering Division Bangkok, Thailand Phone +66.2751-9200 Fax +66.2751-9201 anuwat.krongkrachang@linde.com Linde Engineering Co. Ltd. Dalian, P.R. of China Phone +86.411.3953-8819 Fax +86.411.3953-8899 info@lindeled.com Linde Engineering Co. Ltd. Hangzhou, P.R. of China Phone +86.571.8501-9222 Fax +86.571.8501-9200 info@lindeleh.com Linde Engineering Division Beijing Representative Office Beijing, P.R. of China Phone +86.10.6437-7014 Fax +86.10.6437-6718 info@linde-lecn.com Linde Engineering Taiwan Ltd. Taipei, Taiwan Phone +886.2.2786-3131 Fax +886.2.2652-5871 tso.ming.hsieh@linde-le.com Linde AG Engineering Division, Head office, Dr.-Carl-von-Linde-Strasse 6-14, 82049 Pullach, Germany Phone +49.89.7445-0, Fax +49.89.7445-4908, E-Mail: info@linde-le.com, www.linde-engineering.com HE/1.1.e/12