Fluence's $3.7M Texas Deal Signals Shift in Industrial Water Strategy

AUSTIN, TX – May 13, 2026 – Amid persistent drought conditions and increasing strain on public water resources, Fluence Corporation (ASX: FLC) has secured a significant contract worth approximately $3.7 million to construct a state-of-the-art industrial water treatment plant in Texas. The deal with an unnamed prominent U.S. manufacturer underscores a pivotal shift in how industries are confronting water scarcity, moving from reliance on municipal supplies to investing in resilient, on-site solutions.

The new facility will utilize advanced ultrafiltration (UF) and reverse osmosis (RO) technologies to treat groundwater from an on-site well. Upon its expected completion by the end of 2026, the plant will be capable of producing up to 1.5 million gallons of high-purity water per day, primarily for use as cooling tower makeup—a critical and water-intensive component of many manufacturing operations.

Texas's Thirsty Industry Finds a Lifeline

The contract arrives at a critical juncture for Texas. The state, a hub of industrial and manufacturing activity, is grappling with the harsh realities of climate change, characterized by prolonged droughts and dwindling water reserves. The U.S. Drought Monitor has consistently shown large swaths of the state under severe stress, forcing municipalities to implement stringent water restrictions that can impact both residents and businesses.

For water-intensive industries, this creates a significant operational risk. The new Fluence plant is a direct answer to this challenge. By enabling the manufacturer to tap into and treat its own groundwater, the project effectively creates a private, drought-proof water supply. This move not only insulates the company from potential municipal water shortages or price hikes but also reduces its demand on a public system struggling to serve a growing population.

The system is engineered for exceptional efficiency, designed to achieve a feedwater recovery rate greater than 90%. This means that for every 100 gallons of groundwater pumped, over 90 gallons are converted into usable process water, minimizing waste and maximizing the value of the local water source. This high level of efficiency is a crucial aspect of sustainable water management, ensuring that the move to self-sufficiency does not come at the expense of the local aquifer.

A Strategic Win in a Competitive Market

For Fluence, a Minnesota-based global leader in decentralized water solutions, this contract represents more than just a single sale; it is a validation of its strategic focus on the high-growth North American industrial market. The announcement sent a positive signal to investors, with Fluence's shares (ASX: FLC) rising 3.66% in the subsequent trading session. The win builds on a year of impressive gains, with the company's stock having risen approximately 112.5% over the past 12 months.

This momentum is backed by strong financial performance. Fluence reported a 52.3% year-on-year revenue increase for the full year 2025, reaching $78.4 million, and a growing project backlog that stood at $74.8 million at the end of that year. The Texas project solidifies the company's position in a fiercely competitive U.S. industrial water treatment market, estimated to be worth over $5 billion annually and populated by giants like Ecolab, SUEZ, and Veolia.

Fluence's competitive edge lies in its 'Smart Products Solutions' (SPS)—pre-engineered, modular systems like its NIROBOX line that can be deployed rapidly. This approach contrasts with the lengthy timelines and custom engineering often associated with large-scale water infrastructure projects, offering a faster and often more cost-effective path to water security for industrial clients.

“Industrial manufacturers across Texas and other drought-stricken regions in the US are increasingly confronting the reality that water security could become an operational issue,” said Ben Fash, CEO and Managing Director of Fluence, in a statement. “This project demonstrates how advanced water treatment technology can help industry maintain production while supporting the community’s broader water conservation goals during periods of extreme drought.”

The Quiet Revolution of Decentralized Treatment

Beyond the business implications, the project highlights a broader technological and environmental trend: the rise of decentralized water treatment. Rather than relying solely on large, centralized municipal plants and extensive pipeline networks, companies are embracing on-site systems that offer greater control, flexibility, and sustainability.

The technology at the heart of the Texas plant—ultrafiltration and reverse osmosis—represents the gold standard in modern water purification. UF acts as a highly effective pre-treatment, using membranes with microscopic pores to filter out suspended solids, bacteria, and viruses. This protects the more delicate RO membranes that follow, which use high pressure to force water molecules through a semipermeable barrier, leaving behind dissolved salts and other impurities. The result is water of a consistently high quality, tailored to the specific needs of the industrial process.

This decentralized model offers numerous benefits. It reduces the energy and cost associated with pumping water over long distances, allows for modular expansion as needs change, and empowers companies to become stewards of their own water cycle. By treating and using water locally, manufacturers can create a more circular system that minimizes environmental impact.

As Mr. Fash noted, the project reflects a growing paradigm shift. “Fluence is very active in the region and uniquely positioned to help customers rapidly deploy decentralized treatment systems that improve resilience, reduce environmental impact, and protect critical industrial operations,” he added. As industries worldwide face the dual pressures of maintaining production and managing environmental resources responsibly, solutions like the one being built in Texas are poised to become the new standard for sustainable operations.