The Coal Seam Gas (CSG) process is a natural gas extraction process from coal seams buried in the ground. In order to release the gas, the coal seams are de-pressurized by releasing large volumes of water.
The water that is a by-product of the CSG production process often has difficult water chemistry, such as high silica and alkalinity. Given the remote environments, extreme conditions, strict environmental and health & safety regulations, as well as limitations on disposal options, treating this water in an effective, efficient and reliable way is critical.
IDE delivers efficient and modular solutions for the CSG industry, which reduce Capex and Opex. These are based on our decades of experience, and are flexible and adaptable to a wide variety of environments and situations. The high reliability of our units delivers highly cost-effective water treatment solutions.
IDE’s Solution for CSG
IDE’s expertise in both membrane and thermal technologies allows it to offer end-to-end solutions for produced water treatment, from water to Zero Liquid Discharge (ZLD) level. This includes all necessary pretreatment, UF, RO, Brine Concentrators and Brine Crystallizers.
Our modular and pre-fabricated solutions for both reverse osmosis and thermal solutions are easy to install, with minimal on-site set up, and are particularly suited for remote locations.
IDE is highly conscious of environmental, health and safety considerations, and our equipment is designed to reach the lowest energy consumption benchmark in the industry, as well as very low chemical consumption. Our unique horizontal configuration allows safer operation without any need to work at heights, thereby increasing safety and visibility.
IDE also has a proven track record in EPC, turnkey, O&M, BOT and other business and construction models, and can adapt to the client’s preferred delivery model.
Offering Unique Benefits to our Partners
- End-to-end solution, from water to a full ZLD solution
- Unique horizontal brine concentrator design
- Modular, pre-fabricated solutions
- High water recovery
- Fewer personnel required, thus further reducing operating costs
- Pre-assembled and tested prior to delivery
- Increased safety, eliminating the need for work at heights
- Minimal energy and chemical consumption
- Broad experience with a variety of delivery models
Process Flow Diagram:
Utilizing Available Coldness from Liquefied Natural Gas LNG Regasification Process for Seawater Desalination
In this article a case study was considered, in which an LNG regasification plant can supply 1750 ton/hr of water-glycol solution at -15°C to be utilized for seawater desalination. The main challenge in this evaluation is being able to provide a desalination solution able to compete with the commonly used RO plants.
Recovery of Osmotic Power in SWRO Plants
The paper analyzes the ways that different researchers have selected to overcome the phenomenon of CP, and presents an overview of the existing RO membranes from the point of view of their suitability for use in Forward Osmosis power generation.
Design Challenges and Operational Experience of a Mega MED Seawater Desalination Plant in Tianjin
This article is a continuation of the article "Sliding Pressure Turbine Integrated with Seawater Desalination Facility (MED)" presented at the IDA 2011 World Congress.
Three Pressure Retarded Osmosis PRO Processes
Pressure retarded osmosis (PRO) can be implemented on a number of water types, using different technologies and achieving various power outcomes. This paper presents the three most practical options.
Three Center Design Implemented in Ashkelon SWRO Plant
This paper presents the three center design implemented in the South Israel (Ashkelon) seawater reverse osmosis (SWRO) desalination facility with guaranteed production capability of 100 Mm3 /year. The facility design is based on the concept of a Three-Center Design: a pumping center, a membrane center and an energy recovery center.
Larnaca Successfull BOOT Project Nears Completion
This paper describes the main components of a successful B.O.O.T. project covering the following subjects: Basic Plant layout, Commissioning of plant and setting parameters, Operations and maintenance, Plant availability, Final phases of a B.O.O.T. project.