Ridding water bodies and infrastructure of the invasive species is difficult and costly for water utilities and power generation facilities — a real concern that is complicated by fake news.
In areas where water, infrastructure, and resources are scarce, a natural and novel solution has emerged — arriving out of thin air, so to speak.
The Water Environment Federation’s (WEF) Stormwater Institute (SWI) reports on challenges and the annual funding gap for the municipal separate storm sewer system (MS4) sector.
They say we all live downstream from someone and upstream from someone else — a reminder, quite literal for the water industry, of our interconnectedness and responsibility to others. In New York, the Army Corps of Engineers proved how relatively small infrastructure improvements can have outsized impact.
Named after a legend of Louisville, the “Bumblebee” tunnel-boring machine is carving a path to cleaner water, regulatory compliance, and lasting resiliency.
There are several accepted methodologies for testing stormwater treatment devices in the lab, but what works best? A comparison study gets us closer to the goal of optimal sediment removal efficiency.
If I were asked to describe the makeup of the Water Online and Water Innovations audience, I could say it’s a mix of engineers and operators focusing on clean and/or wastewater processes within municipal or industrial settings. But that wouldn’t tell the whole story, because you are much more than that — you are caretakers of our planet’s most valuable resource.
Treatment plant design comes in many shapes and sizes — and even dimensions. Determining the best option comes from understanding, and perhaps combining, the available options.
Not just a solution for water-scarce cities by the sea, desalination is also vitally important for industrial processes and many inland utilities reliant on groundwater. Like other treatment technologies, continued water security and prosperity depend on improvements in the processes and developments on the horizon.
Computational fluid dynamics (CFD) modeling was applied to a circular water storage reservoir, proving invaluable for understanding hydraulic characteristics, developing a plan for mixing efficiency, and maintaining water quality.
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