WATER REUSE RESOURCES

  • The NXT|MBR pairs membrane treatment with durable shotcrete construction to reduce capital costs, streamline operations, and strengthen wastewater treatment resilience.

  • Industrial facilities are under pressure to reduce freshwater consumption, control wastewater discharge costs, and maintain reliable production. Water reuse can help address all three concerns, but recovering water does not automatically make a facility more efficient.
  • Produced water is far from ordinary wastewater. It typically contains high concentrations of dissolved salts, residual hydrocarbons, suspended solids, heavy metals, chemical additives, and naturally occurring contaminants. Without proper treatment, managing these complex waste streams becomes both environmentally risky and financially burdensome.

  • Whether an area is urban or rural, large or small, its water and wastewater treatment utilities face pressures ranging from supply scarcity and increasing operational costs to more stringent regulatory guidelines. These pressures have combined in recent years to shift the conversation around potable water reuse from a potential option to an increasingly important water management strategy.
  • As communities and industries compete for finite water supplies, utilities are looking for strategies that support economic growth while reducing pressure on existing resources.

  • Data centers are evolving into industrial-scale thermal-management facilities as artificial intelligence (AI), high-performance computing (HPC), cloud platforms, and accelerated computing increase rack power density. Modern AI racks can exceed 50–120 kW per rack, creating substantially higher heat-rejection requirements than conventional enterprise infrastructure. ASHRAE's (American Society of Heating, Refrigerating and Air-Conditioning Engineers) AI Data Center Energy Performance Framework identifies liquid cooling as an important architecture for these high-density environments.
  • Nearly 45–60% of a reverse osmosis (RO) plant's operating cost is linked to energy consumption, while membrane fouling can reduce productivity by 15–40% and increase cleaning costs by thousands of dollars annually. The newest generation of RO systems is therefore focused on reducing energy demand, extending membrane life, and using intelligent monitoring to predict fouling before performance declines.

  • Water scarcity in the U.S. is increasing almost as rapidly as demand for clean drinking water. In response, more municipalities and public utilities are actively pivoting toward water reuse strategies. Yet many of these projects are running up against an archaic administrative bottleneck.
  • For the better part of a decade, industrial electricity prices behaved like a slowly shifting floor. From 2016 through 2020, wholesale prices in most major markets were remarkably stable. A plant built in 2018 could reasonably expect its electricity costs to drift, not lurch, through the early 2020s. That baseline is gone.
  • In an industrial landscape increasingly shaped by lifecycle accountability, material traceability, and rising disposal costs, chromium recovery is not merely a technical alternative — it is a strategic upgrade, where wastewater can become a resource stream.

WATER REUSE SOLUTIONS

  • TrojanUVFlexAOP – Advanced Oxidation System

    Meeting the demand for clean water has never been more challenging. Communities around the world are facing a growing water stress – an insufficient supply, in terms of water quality or water quantity – and often both. Many are turning to potable reuse and drinking water remediation to meet these demands. The TrojanUVFlex®AOP can be part of the solution. This UV advanced oxidation system destroys a range of chemical contaminants while simultaneously providing final treatment, helping municipalities relying on lower quality water sources to continue producing high-quality potable drinking water.

  • ETS-UV™ For Water Reuse

    Given the critical shortage of drinking water in many regions, advanced treatment and reuse of wastewater is becoming increasingly common as municipalities address water demands and shrinking supplies.

  • DE NORA TETRA™ LP Block™ Dual Parallel Lateral Underdrain

    In municipal drinking water applications or pre-treatment for desalination plants using gravity filters, the filter underdrain is one of the most important components contributing to overall system performance and operation — whether a new filter design or retrofitting an existing filter.

  • Potable Water Treatment Mini Train System: PWT 125

    For remote sites with peak populations between 500 and 2,000 people, the newterra PWT-125 Mini Train System offers exceptional capacity and flexibility. The base system for up to 500 people consists of two 40' containerized elements – a discrete distribution/disinfection unit and a treatment unit. The Mini Train design allows up to four (4) treatment units to be added to a single distribution unit, providing potable water treatment for 2,000 people. The system is designed to integrate with containerized or free standing tanks for water storage. The treatment system is available for both groundwater and surface water sources.

  • Potable Water Treatment Large Train System: PWT 500

    For large camps with populations expected to exceed 2,000 people, newterra’s modular PWT-500 Potable Water Treatment Large Train System employs 40' containers dedicated to a specific, complimentary treatment process (e.g. greensand filtration, nanofiltration, etc.)

WATER REUSE VIDEOS

Growing industrial demand is straining water supplies. See how water reuse, infrastructure planning and early collaboration can support growth while protecting potable water.