Produced water (PW) is salty water trapped in the reservoir rock and brought up along with oil or gas during production. It subsists under high pressures and temperatures, and usually contains hydrocarbons and metals. Therefore, it must be treated before being discharged to surface water. Different techniques are being used to treat PW through phase separations, system control and design, and chemical treatments. In this paper, we discuss our experimental results on treating PW through electrocoagulation (EC).

Last year was full of twists and turns for the drinking water and wastewater treatment industries. What can 2017’s biggest stories tell us about what’s to come this year?

Each year, the oil and gas industry produces more than 800 billion gallons of wastewater. Coupling the massive volumes of wastewater generated over the life of the well and the millions of gallons of water needed to hydraulically fracture each well, it’s easy to see that oil and gas exploration and production is just as much a water issue as it is an energy issue.

A newly discovered oil patch in western North America uses Siemens level technology during oil and natural gas extraction. SITRANS LR250 continuous radar for liquid level measurement plus Pointek CLS200 capacitance point level offer a winning combination in this application.

An electrical contractor in the Upper Midwest United States provides oilfield tank monitoring for several oil companies. They supply level measurement and control in nearly 400 barrel tanks containing crude oil and/or produced salt water.

Valley Pride Pack wanted to reduce the operational costs associated with their wastewater treatment system.

It was named by the infamous explorer Captain John Smith after the Massachusett tribe of Native Americans, then subsequently renamed by King Charles I of England after himself. As Boston grew, the mighty Charles River proved a vital force behind its expansion, and its long and winding history a reflection of the city’s own.

Although industry only accounts for 20% of water consumption globally (vs. 70% for agriculture and 10% for domestic consumption), most multinational industrial companies are now focused on ensuring they provide effective environmental management wherever they are in the world.  

A quality outcome is only as reliable as the components and processes used to create and test it. When it comes to municipal drinking water, food, beverages, wastewater effluent, and other industrial applications, having reliable microbiological testing reference materials to benchmark quality control (QC) processes is essential. Here are some important points to consider when establishing or managing QC programs.

The company that is active in the food industry collects and processes animal by-products but also waste edible oil, biodegradable kitchen and canteen waste. These products are recycled to proteins and technical fats and purified oils. 

Resiliency is a hot button word right now. Ten years ago, advocates focused on “adaptation,” or the idea of adapting to the coming effects of climate change. Now the focus is on “resiliency,” the ability to bounce forward — not backward — when something disastrous happens.

Since EPA released its proposed Clean Power Plan (CPP) in June of this year, the plan has been a hot topic in every state.

Power plants and refineries around the world must manage and treat complex effluent waste streams from the Flue Gas Desulfurization (FGD) process. Flue gas is generated by the combustion process of fossil and fossil-derived fuels, such as coal, oils, and natural gas in power plants. Petrochemical refineries may generate flue gas from a number of different processes, including Catalytic Cracking, Steam Methane Reforming, and Heaters or Furnaces.

By harvesting heating, ventilation, and air conditioning (HVAC) condensate, industrial operations can take advantage of a cool, convenient source of clean water.

This Hamilton Project memo presents nine economic facts that provide relevant background context to the water crisis in the United States.

There are a lot of technology startups in the water space vying for attention, including a good bit in the New England area alone, but one Massachusetts company and its potentially "disruptive innovation" stands apart.

Resiliency is a hot button word right now. Ten years ago, advocates focused on “adaptation,” or the idea of adapting to the coming effects of climate change. Now the focus is on “resiliency,” the ability to bounce forward — not backward — when something disastrous happens.

Valley Pride Pack wanted to reduce the operational costs associated with their wastewater treatment system.

It was named by the infamous explorer Captain John Smith after the Massachusett tribe of Native Americans, then subsequently renamed by King Charles I of England after himself. As Boston grew, the mighty Charles River proved a vital force behind its expansion, and its long and winding history a reflection of the city’s own.

The very competitive Pulp & Paper Industry is sensitive to global economic conditions.

Although industry only accounts for 20% of water consumption globally (vs. 70% for agriculture and 10% for domestic consumption), most multinational industrial companies are now focused on ensuring they provide effective environmental management wherever they are in the world.  

When Lafayette South America textile manufacturer in Bogota, Colombia, couldn’t find the little blue paper strips it had previously used to test for the presence of sodium hydrosulphite in its post reduction dyebath, it went looking for an alternative

A quality outcome is only as reliable as the components and processes used to create and test it. When it comes to municipal drinking water, food, beverages, wastewater effluent, and other industrial applications, having reliable microbiological testing reference materials to benchmark quality control (QC) processes is essential. Here are some important points to consider when establishing or managing QC programs.

A Q&A with scientist Jeff Urban, who explains forward osmosis and how Berkeley Lab is pushing the frontiers of this emerging technology

Steel Fire Equipment in Ontario, Canada needed help with their polymer production. The plant produces polymer for fire extinguishers. The pneumatic production system processes chemicals that often clump and sometimes even form into stone. They needed a crusher that could break up these chunks or the material would not flow through the system and the entire process would come to a halt. Steel Fire also needed the machine to be able to handle their production rate of 3000 – 4000 pounds of material a day and be powerful enough to break up very hard chunks.