The Concept: Take a look at the shirt you are wearing. Whether it is a vibrant blue, a deep black, or a bright red, that color almost certainly came from a petroleum-based synthetic dye.

The textile industry is currently one of the largest water polluters globally. To bind those synthetic colors (often "azo dyes") to fabric, factories use harsh chemicals and heavy metal mordants (like chromium and lead). Much of this toxic chemical soup is flushed directly into local waterways. In some manufacturing hubs, you can literally tell what colors are trending in fast fashion by looking at the color of the toxic rivers flowing outside the factories.

We need clothes, and we want them to be colorful, but we cannot keep poisoning our water to do it. The solution? We stop synthesizing colors from oil, and start growing them with bacteria.

The Concept: Take a look at a piece of standard printer paper. It is perfectly, brilliantly white. But paper comes from wood, and wood is brown. To get from a brown tree to a white sheet of paper, the pulp must be bleached.

Historically, the pulp and paper industry relied heavily on elemental chlorine gas to achieve this. While chlorine is an incredibly effective bleach, it comes with a devastating environmental cost. When chlorine reacts with the organic compounds in wood pulp, it creates highly toxic byproducts, including dioxins. For decades, paper mills dumped millions of gallons of this chlorinated wastewater into rivers, causing massive dead zones and severe mutations in aquatic ecosystems. We needed a way to whiten paper without poisoning the water.

The Concept: Concrete is the most widely used human-made material on Earth. It is the backbone of our bridges, dams, skyscrapers, and sidewalks. But traditional concrete has two massive problems: it is responsible for roughly 8% of global carbon dioxide emissions, and eventually, no matter how well it is poured, it cracks.

Water inevitably finds its way into these microscopic cracks. When that water freezes, it expands, widening the crack. If the water reaches the inner steel rebar, it causes rust, which expands and literally blows the concrete apart from the inside. Traditionally, the only solution to failing concrete is to tear it down and pour more concrete, restarting the massive carbon emission cycle.

But what if concrete could bleed, scab, and heal itself, just like human skin?