DNA Sweatshirt

Name: DNA Sweatshirt
Brand: Vollebak
Price: 345.00 CHF
Availability: InStock

Made from a genetically engineered blue.

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Dye produced from DNA of the indigo plant
Grown in a petri dish and fermentation machine
Garment dyed for softness

DNA doesn’t just make us, us. It also makes many of the colours we see in the natural world. So instead of using synthetic dyes to colour the DNA Sweatshirt, we use genetically engineered microorganisms and DNA.

If you’re wondering how to genetically engineer the colour blue, you access one of the world’s open-source biomolecular databases, select a protein enzyme found in the cells of the indigo plant, implant its DNA sequence into a self-replicating single bacterial cell, brew that bacteria like beer, then submerge the sweatshirt in the DNA soup we’ve brewed up. Just as the indigo plant produces different shades of colour in nature, it also produces different shades of colour on our clothing, so the specific blue colour of each piece will be a little bit different.

Technical Details

Material made and dyed by RDD in Portugal: 50% cotton, 50% recycled polyester

Dye technology developed by Colorifix

Dye grown from indigo plant DNA

Material weighs 280g/m2

Sweatshirt weighs 465 grams

Machine wash 30°C

Constructed in Portugal

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Clothing made with DNA

Since starting Vollebak, we’ve made clothes with some of the most advanced and unusual materials ever used to dress human beings. The short highlights list includes ceramics, graphene, carbon fibre, copper, 3D printed composites, ionic liquid, space parachutes, aerogel, seaweed, black algae, phosphorescent compounds, garbage, volcanic soil, glass, and wood. But next up, we’re entering the world of biomimetics, making clothing from genetically engineered bacteria… and DNA.

You’ve already got about 16 billion kilometres of DNA inside you. In case that’s not quite enough, you might like a DNA Sweatshirt.

A quick recap on what DNA is exactly

DNA is the biological molecule that contains the genetic code an organism needs to develop, survive and reproduce. It is found in most cells of every organism. The differences in DNA are why one person has blue eyes rather than brown, why giraffes have long necks and why you’ll find more than a thousand different varieties of mango in India. Every human cell contains around 6 feet of DNA. With around 10 trillion cells inside each human, that means each person has around 60 trillion feet, or 16 billion kilometres of DNA inside them.

DNA makes the colour we see in nature

DNA doesn’t just make us, us. It also makes many of the colours we see in the natural world. Take plants for instance. The genes of each plant direct cells to produce pigments of various colours. These pigments are molecules that selectively absorb or reflect specific wavelengths of light. And the colours we see are the wavelengths they then reflect. Which might attract us, or a bee, to go take a closer look – if our DNA tells us to.

DNA doesn’t just make us, us. It also makes many of the colours we see in the natural world.

Unlocking the colour codes of DNA

Today we’re on the edge of a small revolution, as two Cambridge scientists named Orr and Jim have figured out how to pick out these genetic sequences that create specific colours in nature, and use them to grow colours from scratch in a lab. Their work comes several billion years after nature figured out how to use DNA to make colour, and 70 years after Francis Crick and James Watson – also at Cambridge – discovered the structure of DNA itself.

Now we’re using DNA to make clothing

For the last 3 years we’ve been working in collaboration with their biotech start-up, Colorifix, which brings together the fields of biomimetics and molecular microbiology to genetically engineer microorganisms to produce naturally occurring pigments found in DNA. Keep reading and we’ll explain how it works.

A step by step guide to making clothes with DNA

The first step is selecting the colour you want that exists in nature. Luckily you’ll find them in one of the world’s open-source biomolecular databases – like the Universal Protein Resource in Switzerland, or GenBank in Maryland which houses a collection of sequences for 300,000+ organisms. Starting life in the 1980s, today they look after sequences for species from around the world – from plants and animals, to insects and microbes – and their libraries are doubling roughly every 18 months.

We’ve chosen the DNA from the indigo plant

For the DNA Sweatshirt we’ve chosen the DNA of the indigo plant. More specifically we’ve picked out the molecular codes that instruct the plant to produce its indigoid pigment. This pigment is generated by a protein enzyme within the plant’s cells, and can produce hues ranging from light blue to deep purple. And these DNA databases give us access to the information to make these specific colours.

Implanting the DNA into a bacterial cell

Next comes the fun bit, as you’ll need to imagine a microbiologist with some rubber gloves, a microscope, and a big needle. Because we then implant the DNA sequence of the indigoid-producing enzyme into a microorganism – in this case it’s a single bacterial cell in a petri dish which self-replicates every 20 minutes. And as it replicates, it produces more and more indigo pigment.

From a petri dish to a high-tech brewery

To make enough colour to dye clothes we obviously need more than just a petri dish of indigo. So we send our genetically engineered microorganisms to RDD, a cutting-edge dyehouse in Portugal. Here they’re grown in the same way you’d brew beer – through fermentation. The cells are added to a fermentation machine with water, sugar, yeast and plant waste. The more you feed them, the more they grow. And by doubling every 20 minutes they quickly create enough liquid to start dyeing a sweatshirt.

Dyed in a giant bath of DNA dye

To dye our DNA Sweatshirt, we submerge it in the bacterial soup we’ve brewed up. The bacteria latch onto the surface of the sweatshirt and release their pigment into the fibres of the material to colour it.

Garment dyed to make it ultra soft

The process of submerging clothes in dye like this is called garment dyeing. It’s more difficult and takes more time than regular dyeing. And it’s especially difficult when you’re using a completely new kind of dye. But it can help make fabric incredibly soft, and look and feel lived in from day one, with colour building up in the stitching and creases, while coming out paler at the edges.

Nature used to be our only dyeing option

For thousands of years the only way to dye clothing was by sourcing colour from nature. The Aztecs and Mayans created red by extracting carmine acid from cochineal insects. Yellow cloth wrapped around Egyptian mummies was coloured by safflower petals. And the Romans made deep purple dye by crushing tiny murex sea snails for an ink stored in their hypobranchial glands. It took tens of thousands of snails to dye a small piece of fabric.

The birth of synthetic dyes

Then in 1856 everything changed. While searching for a new malaria treatment, 18 year old chemist William Henry Perkin was experimenting with coal tar – a thick, black substance derived, obviously, from coal. Instead he stumbled upon the world’s first synthetic dye – an oily solution that turned fabric purple. Perkin called it mauveine. His discovery sparked a colour revolution that altered the course of history.
Rethinking how colour is made

Vastly superior both in terms of cost and scalability, chemical synthetic dyes quickly started replacing natural dyes on an industrial scale. 167 years later it’s why we now get to choose from a kaleidoscope of colour when we buy clothes. But while synthetic dyes have brought lots of benefits, it comes at a real environmental cost. So our aim is to rethink how colour is made.
A lower impact sweatshirt

The entire process reduces water consumption by at least 49%, electricity by 35%, and CO2 emissions by 31% compared with conventional dyeing. The sweatshirt is made from 50% cotton, and 50% polyester that’s made entirely from recycled plastics.

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When we first started making clothing, the idea of getting to work with DNA was as improbable and far off as working with single layer graphene, vantablack, or kryptonite.

DNA could change the story of colour

70 years ago this year, a 36-year-old molecular biologist and biophysicist named Francis Crick got to his feet in the middle of lunch at his local pub, The Eagle, and announced that he and his colleague James Watson had “found the secret of life.” Head to the outside of the pub today and look up, and you’ll find a small blue plaque that commemorates both the pub’s place in history and one of the greatest discoveries of the 20th century. “DNA Double Helix 1953 ‘The Secret of Life,’” it reads.
It won’t be the first field it’s changed forever

Their discovery changed our understanding of the world. In 1990, the Human Genome Project, an international scientific research study with the goal of identifying, mapping and sequencing all of the genes in the human genome, began. In 1996, Dolly the Sheep was cloned. In 1999, the first human chromosome was decoded. In 2000, the genetic code of the fruit fly, all 13,601 genes, was sequenced. In 2003 the Human Genome Project was completed, and it remains the world’s largest collaborative biological project.