Breaking
WATER RECOVERED 100x PURER than a plant's circulating supply FORBES 30 UNDER 30 in Energy EDF testing the tech on France's Bugey nuclear plant $12.25M SERIES A led by Material Impact MIT $100K grand prize winner UP TO 20% less water used per power plant 35+ COUNTRIES visited by the founder
Founder / Engineer / Water

Maher Damak

He watched power plants throw water into the sky. So he built a machine to catch it on the way up.

CEO and co-founder of Infinite Cooling, the MIT spinout that gives escaping steam a static charge and pulls it back down as water cleaner than the tap. A French-American engineer with a PhD from MIT and a habit of finding value in the clouds nobody was looking at.

Infinite Cooling MIT PhD '18 Ecole Polytechnique Cambridge, MA
Maher Damak, CEO and co-founder of Infinite Cooling
The optimist in glasses. Damak spent his PhD chasing fog. He ended up chasing something far bigger - the water hiding in every industrial plume.

Catching the water everyone wrote off

Stand next to a power-plant cooling tower and you will see a fat white plume rising off the top. Most engineers call that steam and move on. Damak looked at the same plume and saw a leak - millions of gallons a year of treated water evaporating straight into the sky. Infinite Cooling exists to catch it.

The method sounds like a magic trick and is really just clean physics. A beam of charged particles gives each tiny droplet in the plume a slight electric charge. A wire mesh, charged the opposite way, then pulls the droplets out of the air the way a balloon pulls hair after you rub it on a sweater. The recovered water drips down, collected. In tests on MIT's own nuclear research reactor, that water came out more than 100 times purer than the water circulating through the plant - cleaner going out than it was coming in.

For a typical power plant that adds up to roughly a million dollars a year in water savings and up to 20 percent less water drawn from the environment. Damak leads the whole operation as CEO: strategy, partnerships, the physics, the sales conversations. He is the rare founder who can derive the equation on the whiteboard and then go close the deal that puts it on a 900-megawatt plant.

The company did not stop at hardware. Once its systems were on real cooling towers, Damak's team noticed something odd: the operators running these massive machines often had almost no real-time data on how well they were working. So Infinite Cooling built TowerPulse, an analytics layer that gives cooling towers something they never had - eyes.

100xPurer than circulating water
~20%Less water per plant
$1MEst. yearly savings / plant
$16.5MTotal raised

"Mitigating water scarcity is a problem I am very passionate about."

- Maher Damak

Three steps to un-evaporate water

01

Charge the mist

A beam of ions passes through the rising plume and hands every microscopic droplet a small electric charge.

02

Attract the droplets

An oppositely charged wire mesh sits in the flow. The charged droplets can't resist it - they veer out of the air and stick.

03

Collect the water

The captured droplets run down the mesh and into a tank. What comes out is astonishingly pure, ready to reuse.

It started with fog, not steam

Before there was a company, there was a net. Damak and his MIT advisor, professor Kripa Varanasi, were trying to improve fog-harvesting systems - the mesh screens that pull drinking water out of the air in arid coastal regions. The physics was elegant but the yields were stubbornly low.

Then came the question that turned an academic project into a business: what if the same trick could work on industrial fog - the plumes billowing off cooling towers? The team, including co-founder Karim Khalil, realized their fog-separation physics had a second life nobody had claimed. In 2016 they filed the foundational patent. In 2017 they founded Infinite Cooling. In 2018 they won the MIT $100K.

The first prototype was almost comically humble: copper mesh, some wire, and a high-voltage source. It still managed to pluck droplets from a moving stream of air. From there the systems climbed onto MIT's cogeneration plant, then its nuclear reactor - a plume Damak flatly called "a worst-case scenario," which was exactly the point of testing there.

In his words

"I did my PhD at MIT and I looked at new technologies to reduce water consumption. I worked on a new technology for efficient fog harvesting to produce water from both natural fog and industrial fog."

The pivot

"As we were developing the technology, we had many conversations with potential customers and we confirmed there was a strong need for our product."

From lab bench to nuclear plant

2016
The patent. As an MIT PhD student, Damak files the foundational patent with Kripa Varanasi for capturing water from fog and cooling-tower plumes using electric fields.
2017
Company born. Infinite Cooling is co-founded with Karim Khalil and professor Kripa Varanasi.
2018
Breakout year. The team wins the MIT $100K, Damak earns his PhD, and lands on Forbes 30 Under 30 in Energy.
2019
Award sweep. MassChallenge Diamond, Rice Business Plan Competition, and the DOE national cleantech prize; prototypes go live on MIT's plants.
2021
Series A. A $12.25M round led by Material Impact; first commercial installs planned for a 900MW power plant and a Midwest chemical facility.
2024
Going nuclear, in France. Infinite Cooling partners with EDF to test water recovery at the Bugey Nuclear Power Plant.

Proof, in plaques

Forbes 30 Under 30 - Energy
Lemelson-MIT Student Prize
World Technology Award
Edison Awards Gold Medal
MIT $100K Grand Prize
MassChallenge Diamond Award
Rice Business Plan Competition
DOE National Cleantech Prize

One idea, two companies

Infinite Cooling

Keep the water

Recover the water evaporating off industrial cooling towers - and hand operators the analytics to run them better.

AgZen

Keep the spray

A second MIT spinout Damak co-founded, using droplet-control technology to stop pesticides from bouncing off and washing away from crops.

The through-line is droplets. Whether it is water leaving a cooling tower or chemicals leaving a nozzle, Damak keeps working the same seam: the tiny liquid particles that everyone else lets slip away.

Notes from the notebook

Damak has visited more than 35 countries. The water problem, it turns out, has a lot of local chapters.
Off the clock he goes hiking and horseback riding - both, conveniently, done far from a cooling tower.
He cleared Ecole Polytechnique, France's most selective engineering school, before ever setting foot in Cambridge.
His recovered water can measure below 50 microsiemens/cm - versus about 3,000 for typical cooling water. Cleaner out than in.
The dream stretches past power plants: delivering water to drought-stressed cities like Cape Town at a fraction of desalination's cost.
First prototype's bill of materials: copper mesh, wire, high voltage. Sometimes the future looks like a science-fair project.

Make industry a solver of water scarcity - not a cause of it.

The Infinite Cooling thesis

Share this profile