Competition: five Synthetic Aesthetics books to be won

Alexandra Daisy Ginsberg book competition

Competition: Dezeen has teamed up with publishers MIT Press to offer readers the chance to win one of five copies of a new book about developments in synthetic biology.

Alexandra Daisy Ginsberg book competition
Human Cheese Making 2: Bottles. Photograph by Alexandra Daisy Ginsberg, 2010

Synthetic Aesthetics explains the emerging discipline of synthetic biology, which looks at adapting natural organisms and processes to create new products, materials and even lifeforms.

Alexandra Daisy Ginsberg book competition
Oscillatoria sp. Photograph by Hideo Iwasaki, 2012

The first few chapters introduce the science, followed by examples of collaborative projects between artists, designers and biologists – a mix of speculative ideas and realised creations.

Alexandra Daisy Ginsberg book competition
The Synthetic Kingdom: Carbon Monoxide Detecting Lung Tumour by Daisy, 2009. Photograph by Carole Suety

These include a proposal by Alexandra Daisy Ginsberg to develop bacteria to excrete brightly coloured pigments that colour your poo when they detect disease inside your body, and samples of human cheese created by Christina Agapakis and Sissel Tolaas.

Alexandra Daisy Ginsberg book competition
Microbial Diversity. Photograph by Alexandra Daisy Ginsberg, 2010

Synthetic Aesthetics is written by experts in the field: Ginsberg, Jane Calvert, Pablo Schyfter, Alistair Elfick and Drew Endy.

Alexandra Daisy Ginsberg book competition
E.chromi: The Scatalog by Daisy and James King with University of Cambridge iGEM Team, 2009. Photograph by Asa Johannesson

Published by MIT Press, the book will launch on 25 April to coincide with an evening programme of talks, installations and workshops at London’s V&A museum, from 6:30-10pm – more details here.

Competition closes 19 May 2014. Five winners will be selected at random and notified by email. Winners’ names will be published in a future edition of our Dezeen Mail newsletter and at the top of this page. Dezeen competitions are international and entries are accepted from readers in any country.

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Glowing trees could be used “instead of street lighting” says Daan Roosegaarde

Dezeen and MINI Frontiers: Dutch designer Daan Roosegaarde is exploring ways of using the bio-luminescent qualities of jellyfish and mushrooms to create glow-in-the-dark trees that could replace street lights.

Daan Roosegaarde at SXSW
Daan Roosegaarde at SXSW

In this movie filmed at SXSW in Austin, Roosegaarde explains how: “In the last year I really became fond of biomimicry.”

“What can we learn from nature and apply to the built environment, to roads, to public spaces, to our urban landscape?” asks Roosegaarde.

Biomimicry is the method of imitating models and systems found in nature to solve complex design issues. One of the biological phenomena that fascinated Roosegaarde was how animals like jellyfish and fireflies generate their own light.

Bioglow-Roosegaarde
The glow-in-the-dark Bioglow plants. Studio Roosegaarde are working on a project to use a collection of these for street lighting

“When a jellyfish is deep, deep underwater it creates its own light,” he says. “It does not have a battery or a solar panel or an energy bill. It does it completely autonomously. What can we learn from that?”

Roosegaarde’s interest in biomimicry led him to collaborate with the State University of New York  and Alexander Krichevsky, whose technology firm Bioglow unveiled genetically modified glow-in-the-dark plants earlier this year.

Krichevsky creates the glowing plants by splicing DNA from luminescent marine bacteria to the chloroplast genome of a common houseplant, so the stem and leaves emit a faint light similar to that produced by fireflies and jellyfish.

Roosegaarde is now working on a proposal to use a collection of these plants for a large-scale installation designed to look like a light-emitting tree.

The element luciferin allows jellyfish to emit light  . Image: Shutterstock
The compound luciferin allows jellyfish to emit light . Image: Shutterstock

He had just taken delivery of one of the small Bioglow houseplants when he met up with Dezeen in Austin.

“This one was shipped to my hotel room and I’m really excited to have it in my hand,” he says, holding the small plastic box that contains the plant. “This is a very small version that we have produced. Right now we are teaming up with [the University of New York and Krichevsky] to create a really big one of them like a tree instead of street lighting.”

“I mean, come on, it will be incredibly fascinating to have these energy-neutral but at the same time incredibly poetic landscapes.”

Swop streetlights with luminous trees - Daan Roosegaarde at SXSW
Studio Roosegaarde’s visualisation of a light-emitting tree with a bio-luminescent coating for its Growing Nature project

Strict regulations around the use of genetically modified plants within the EU mean that Roosegaarde cannot use this material in his Netherlands studio. He had to travel to the US to receive the plant.

Distinct from Studio Roosegaarde’s work with Krichevsky is a second project exploring bio-luminescence, called Glowing Nature, which does not use genetically-modified material. The aim was to find a means of giving mature trees light-emitting properties without harming them, building on research into the properties of bio-luminescent mushrooms.

Glowing-Tree-Roosegaarde-Dezeen_644
Studio Roosegaarde’s visualisation of a tree emitting light in a rural setting for its Growing Nature project

The proposal is to use a very fine coating of “biological paint” that when applied to trees allows them to glow at night. The coating charges during the day and at night can glow for up to eight hours. Trials using the material will start at the end of this year.

The music featured in the movie is a track by Zequals. You can listen to his music on Dezeen Music Project.

Dezeen and MINI Frontiers is a year-long collaboration with MINI exploring how design and technology are coming together to shape the future.

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“We need to think of our bodies as works in progress”

"We need to think of our bodies as works in progress"

News: don’t let fear mongers prevent the development of technologies that make the human body perform better and last longer, says a leading bio-ethicist.

A “conservative, dystopian version of the future” is holding back the development of cyborg technology and the genetic modification of humans, said Andy Miah, chair of ethics and emerging technologies and director of the Creative Futures Institute at the University of the West of Scotland.

Speaking at the Bye Bye Homo Sapiens symposium, hosted by Central Saint Martins department of Materials Futures, Miah compared the evolution of bio-tech to modern medicine where interventions like pacemakers have become an accepted norm.

“We need to think of our bodies as works in progress: as things which can benefit from bio-technological modification,” he said.

“I would argue that our commitment to longevity in life commits us inevitably to human enhancement.”

"We need to think of our bodies as works in progress"
Bio-ethicist Andy Miah talking at TEDxWarwick in 2013

Miah cited laser eye surgery as an example of a technology that was initially mistrusted but is now widely used to improve patient’s eyesight.

Similarly, resistance to growing body parts from stem cells or using nanotechnology to introduce disease-fighting cells into the body needs to be overcome, said Miah.

Acceptance of bio-technology techniques will accelerate, he said, once people become accustomed to seeing how they can be used to improve patient’s lives by design.

Discussions around human enhancement quickly become fraught and contentious, because “at the heart is the debate about what kind of life is worth living”, he said.

“The concern is that there is a loss of self that we encounter by embracing the technology… Either through behaviours or through biological transgressions, people perceive a compromise of identity. The concern is that if we do this, we somehow lose some part of our humanity.”

He pointed to the world of sports where doping scandals are rife, but athletes are already using technology to enhance their performance through their equipment and clothing. Improving the human body – or even opening the door to possibilities like cryogenic suspension  – is the next step.

More on bio technology:

  • Google's "smart contact lenses" could help diabetics monitor blood sugar levels
  • People "will start becoming technology" says human cyborg
  • "DIY Cyborg" implants body-monitoring device under his skin

Miah has previously been involved in a UK government select committee on human enhancement technologies in sport.

His current undertakings include a major collaborative project on the ethics and politics of biomedical developments for human enhancement led by the Universities of Madrid and Granada.

“There’s a tendency to characterise people interested in these forms of human enhancement as being somehow radical others: that they are transgressing the norms of humanity, that they are challenging the human species by advocating that we ought to move beyond it,” said Miah.

“It’s a red herring to believe that these desires to reinforce ourselves or to extend the upper limits of our capacities [are somehow transgressive]: whether that’s the length of our life or the length of our limbs”.

“Our concerns about biological transgressions are something that we will relegate to history in due course.”

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3D-printed mushroom roots “could be used to build houses”

Dezeen and MINI Frontiers: designer Eric Klarenbeek, who displayed a chair made out of 3D-printed fungus at Dutch Design Week in October, says the technique could be used to create larger, more complex structures.

Eric Klarenbeek_Chair_2_Dezeen and Mini Frontiers_644
Mycelium chair

Klarenbeek‘s Mycelium chair, which takes its name from the extensive threadlike root structure of fungi, combines organic matter with bioplastics to make a light and strong composite material that can be 3D-printed.

Eric Klarenbeek_Chair_Dezeen and Mini Frontiers_644
Scale model of Mycelium chair

Klarenbeek found that fungus grows quickly on straw, so used powdered straw mixed with water and mycelium to make an aggregate that could be 3D-printed.

Eric Klarenbeek_Dezeen and Mini Frontiers_1_644
Eric Klarenbeek with model of the Mycelium chair

“We adapted the 3D-printer and invented a way to print straw injected with mycelium. By infusing this mushroom it acts as a kind of glue so that all these straw parts [combine] together and as soon as you dry it you get a kind of cork material, which is all bound together,” says Klarenbeek.

Eric Klarenbeek_Sjoerd_Sijsma_Dezeen and Mini Frontiers_644
Eric Klarenbeek with prototypes

The chair’s exterior is also 3D-printed, but is made from a bioplastic, against which the mycelium root structure grows. Klarenbeek leaves the fungus to spread throughout the 3D-printed structure, reinforcing it in the process.

Eric Klarenbeek_Chair_Segment_Dezeen and Mini Frontiers_644
Segment of Mycelium chair

“Our main purpose was to find a combination between the robot, or the machine, and to have these two work together to create a new material which could be applicable for any product,” explains Klarenbeek.

Eric Klarenbeek interview on furniture made from 3D-printed fungus
Scale model of the Mycelium chair

He claims the material has many possible applications. “It could be a table, or a whole interior, and that’s where it becomes interesting for me. It’s really strong, solid, lightweight and insulating, so we could build a house!”

Eric Klarenbeek interview on furniture made from 3D-printed fungus
Research samples

The music featured in the movie is a track by Kobi Glas. You can listen to his music on Dezeen Music Project.

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Synthetic materials can “behave like living cells”

Dezeen and MINI Frontiers: scientists are combining non-living chemicals to create materials with the properties of living organisms, says the creator of a self-repairing shoe made from protocells.

Shamees Aden portrait copyright Dezeen
Shamees Aden. Copyright: Dezeen

Protocells, as the chemical cocktails are known, are made by mixing basic non-living molecules in lab conditions. These then combine to create substances that exhibit some of the characteristics of living cells: the ability to metabolise food, to move and to reproduce.

Shamees Aden Amoeba protocell running shoes
Shamees Aden’s Amoeba protocell running shoes

In this movie Dezeen filmed at the Wearable Futures conference in December, designer and materials researcher Shamees Aden explains how “scientists are now mixing together groups of chemicals [to make] them behave like living cells. They are able to reconfigure, they are able to adapt to light, pressure and heat.”

Shamees Aden's Amoeba protocell running shoe
Shamees Aden’s Amoeba protocell running shoe

The synthetic production of living materials is so far limited to basic applications – modifying the behaviour of oil droplets in a water solution, for example – but Aden has developed a proposal that uses protocells to make self-regenerating soles for a pair of running shoes.

Shamees Aden Amoeba protocell running shoes
Shamees Aden’s Amoeba protocell running shoe

The Amoeba running shoes designed by Aden use protocells’ capabilities of responding to pressure, and inflates or deflates according to the texture of ground the wearer is running on to provide more or less cushioning.

Shamees Aden Amoeba protocell running shoes
Amoeba running shoe in its storage cylinder containing protocell fluid

Photocells, which have a limited life span, would be replenished after each run, explains Aden. “Your shoe box would be a vessel which would hold the [protocell] liquid inside. You could buy your protocell liquid and it would be dyed any colour you like and you would pour that in and as the shoe is rejuvenated the colours would emerge.”

Shamees Aden Amoeba protocell running shoes: visualisation of protocells forming
Visualisation of protocells forming

The speculative project is the result of a collaboration with chemist Dr Michael Hanczyc of the Institute of Physics and Chemistry and the Center for Fundamental Living Technology (FLinT) in Denmark, who has worked extensively on protocells.

“At this point it is a speculative design project but it is grounded in real science and it could be in production by 2050,” says Aden.

Shamees Aden Amoeba protocell running shoes: visualisation of protocells forming
Visualisation of protocells forming

This is the third movie from the two-day Wearable Futures conference that explored how smart materials and new technologies are helping to make wearable technology one of the most talked-about topics in the fields of design and technology.

Shamees Aden Amoeba protocell shoes - visualisation of protocell production
Visualisation of protocell production

In the first movie, designer of Dita von Teese’s 3D-printed gown Francis Bitonti explained how advances in design software mean “materials are becoming media”. In the second, Suzanne Lee explained how she makes clothes “grown using bacteria.”

The music featured in the movie is a track by DJ Kimon. You can listen to his music on Dezeen Music Project.

Dezeen and MINI Frontiers is a year-long collaboration with MINI exploring how design and technology are coming together to shape the future.

Dezeen and MINI Frontiers

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Organic tower grown from agricultural waste wins MoMA PS1 Young Architects Program 2014

News: New York studio The Living has won this year’s MoMA PS1 Young Architects Program competition with plans to cultivate bio-bricks from corn stalks and mushrooms, and use them to build a tower in the courtyard of the New York gallery (+ slideshow).

Hy-Fi by The Living at MoMA PS1

The Living principal David Benjamin proposed a cluster of circular towers made entirely from natural materials for his entry to the Young Architects Program (YAP) contest, which each year invites emerging architects to propose a temporary structure that will host the summer events of the MoMA Ps1 gallery in Queens.

Hy-Fi by The Living at MoMA PS1

Named Hy-Fi, the structure will be constructed entirely from recyclable materials. The Living will collaborate with sustainable building firm Ecovative to grow the bricks that will form the base of the tower, using a combination of agricultural byproducts and mushroom mycelium –  a kind of natural digestive glue.

Hy-Fi by The Living at MoMA PS1

The upper section of the structure will be made from reflective bricks produced using a specially developed mirror film. Initially these will be used as growing trays for the organic bricks, but will later be installed at the top of the tower to help to bounce light down inside.

Gaps in the brickwork will help to naturally ventilate interior spaces using the stack effect, drawing cool air in at the bottom and pushing hot air out at the top.

Hy-Fi by The Living at MoMA PS1

MoMA curator Pedro Gadanho said: “This year’s YAP winning project bears no small feat. It is the first sizeable structure to claim near-zero carbon emissions in its construction process and, beyond recycling, it presents itself as being 100 percent compostable.”

“Recurring to the latest developments in biotech, it reinvents the most basic component of architecture – the brick – as both a material of the future and a classic trigger for open-ended design possibilities,” he added.

Hy-Fi by The Living at MoMA PS1

Set to open in June, Hy-Fi will be accessible to MoMA Ps1 visitors during the 2014 Warm Up summer music series.

Here’s the full announcement from MoMA:


The Living selected as winner of the 2014 Young Architects Program at MoMA PS1 in New York

The Museum of Modern Art and MoMA PS1 announce The Living (David Benjamin) as the winner of the annual Young Architects Program (YAP) in New York. Now in its 15th edition, the Young Architects Program at MoMA and MoMA PS1 has been committed to offering emerging architectural talent the opportunity to design and present innovative projects, challenging each year’s winners to develop creative designs for a temporary, outdoor installation at MoMA PS1 that provides shade, seating, and water. The architects must also work within guidelines that address environmental issues, including sustainability and recycling. The Living, drawn from among five finalists, will design a temporary urban landscape for the 2014 Warm Up summer music series in MoMA PS1’s outdoor courtyard.

The winning project, Hy-Fi, opens at MoMA PS1 in Long Island City in late June. Using biological technologies combined with cutting-edge computation and engineering to create new building materials, The Living will use a new method of bio-design, resulting in a structure that is 100% organic material. The structure temporarily diverts the natural carbon cycle to produce a building that grows out of nothing but earth and returns to nothing but earth – with almost no waste, no energy needs, and no carbon emissions. This approach offers a new vision for society’s approach to physical objects and the built environment. It also offers a new definition of local materials, and a direct relationship to New York State agriculture and innovation culture, New York City artists and non-profits, and Queens community gardens.

Hy-Fi by The Living at MoMA PS1

Hy-Fi is a circular tower of organic and reflective bricks, which were designed to combine the unique properties of two new materials. The organic bricks are produced through an innovative combination of corn stalks (that otherwise have no value) and specially-developed living root structures, a process that was invented by Ecovative, an innovative company that The Living is collaborating with. The reflective bricks are produced through the custom-forming of a new daylighting mirror film invented by 3M. The reflective bricks are used as growing trays for the organic bricks, and then they are incorporated into the final construction before being shipped back to 3M for use in further research.

The organic bricks are arranged at the bottom of the structure and the reflective bricks are arranged at the top to bounce light down on the towers and the ground. The structure inverts the logic of load-bearing brick construction and creates a gravity-defying effect – instead of being thick and dense at the bottom, it is thin and porous at the bottom. The structure is calibrated to create a cool micro-climate in the summer by drawing in cool air at the bottom and pushing out hot air at the top. The structure creates mesmerising light effects on its interior walls through reflected caustic patterns. Hy-Fi offers a familiar – yet completely new – structure in the context of the glass towers of the New York City skyline and the brick construction of the MoMA PS1 building. And overall, the structure offers shade, colour, light, views, and a future-oriented experience that is designed to be refreshing, thought-provoking, and full of wonder and optimism.

Hy-Fi by The Living at MoMA PS1

“This year’s YAP winning project bears no small feat. It is the first sizeable structure to claim near-zero carbon emissions in its construction process and, beyond recycling, it presents itself as being 100% compostable,” said Pedro Gadanho, Curator in MoMA’s Department of Architecture and Design. “Recurring to the latest developments in biotech, it reinvents the most basic component of architecture – the brick – as both a material of the future and a classic trigger for open-ended design possibilities. At MoMA PS1, The Living’s project will be showcased as a sensuous, primeval background for the Warm-Up sessions; the ideas and research behind it, however, will live on to fulfil ever new uses and purposes.”

Klaus Biesenbach, MoMA PS1 Director and MoMA Chief Curator at Large, adds, “After dedicating the whole building and satellite programs of MoMA PS1 to ecological awareness and climate change last year with EXPO 1: New York, we continue in 2014 with Hy-Fi, a nearly zero carbon footprint construction by The Living.”

The other finalists for this year’s MoMA PS1 Young Architects Program were Collective-LOK (Jon Lott, William O’Brien Jr., and Michael Kubo), LAMAS (Wei-Han Vivian Lee and James Macgillivray), Pita + Bloom (Florencia Pita and Jackilin Hah Bloom), and Fake Industries Architectural Agonism (Cristina Goberna and Urtzi Grau). An exhibition of the five finalists’ proposed projects will be on view at MoMA over the summer, organized by Pedro Gadanho, Curator, with Leah Barreras, Department Assistant, Department of Architecture and Design, MoMA.

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World’s first glow-in-the-dark plant genetically engineered

News: American biotechnology company Bioglow has applied synthetic biology processes to develop ornamental glowing plants that its founder claims are “truly the first of their kind.”

American firm genetically engineers world's first glow-in-the-dark plant

Bioglow, which is based at the Donald Danforth Plant Science Center in St Louis, Missouri, claims its Starlight Avatar is the first plant that is able to light up autonomously, without the need for external treatments or stimuli such as chemicals or ultraviolet lighting.

“There are no comparables on the market, these are truly first of their kind,” the plants’ creator and Bioglow founder Alexander Krichevsky told Dezeen.

American firm genetically engineers world's first glow-in-the-dark plant

Krichevsky, a specialist in microbiology, developed the plants by introducing DNA from luminescent marine bacteria to the chloroplast genome of a common houseplant, so the stem and leaves constantly emit a faint light similar to that produced by fireflies and other bioluminescent organisms.

American firm genetically engineers world's first glow-in-the-dark plant
The Starlight Avatar plant is derived from the ornamental Nicotiana Alata plant family

Krichevsky is working on increasing the brightness of the plants, which currently need to be viewed in a darkened room. He told Dezeen that his technique could attract a new audience to the ornamental plant market and eventually provoke a revolution in lighting design.

“We think that glowing plants will particularly be of interest to the fans of the movie Avatar,” said Krichevsky, referring to the 2009 science fiction feature film set on an alien planet where flora and fauna are illuminated at night.

American firm genetically engineers world's first glow-in-the-dark plant

He added that they could also be used as efficient light sources for interiors, architecture or transport infrastructure. “In the long term we see use of glowing plants in contemporary lighting design, namely in landscaping and architecture as well as in transportation, marking driveways and highways with natural light that does not require electricity,” he pointed out. “We also have a capacity to make plants glow in response to environmental cues, making them effective environmental and agricultural sensors.”

American firm genetically engineers world's first glow-in-the-dark plant

Prospective buyers will be able to bid for one of a limited number of the Starlight Avatar plants via an online auction due to take place in late January. The plants are shipped in cultivation boxes containing a plastic nutrient-rich gel and can be transferred to a plant pot when fully developed. Each plant has a life cycle of two to three months.

Main image is by Dan Saunders.

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Self-repairing trainers 3D-printed from biological cells by Shamees Aden

London designer and researcher Shamees Aden is developing a concept for running shoes that would be 3D-printed from synthetic biological material and could repair themselves overnight.

Protocell Trainers by Shamees Aden
Photograph by Sam J Bond

Shamees Aden‘s Protocells trainer would be 3D-printed to the exact size of the user’s foot from a material that would fit like a second skin. It would react to pressure and movement created when running, puffing up to provide extra cushioning where required.

Aden developed the project in collaboration with Dr Martin Hanczyc, a professor at the University of Southern Denmark who specialises in protocell technology. Protocells are very basic molecules that are not themselves alive, but can be combined to create living organisms.

Protocell Trainers by Shamees Aden

By mixing different types of these non-living molecules, scientists are attempting to produce artificial living systems that can be programmed with different behaviours, such as responsiveness to pressure, light and heat.

“The cells have the capability to inflate and deflate and to respond to pressure,” Aden told Dezeen at the Wearable Futures conference in London. “As you’re running on different grounds and textures it’s able to inflate or deflate depending on the pressure you put onto it and could help support you as a runner.”

Protocell Trainers by Shamees Aden

After a run, the protocells in the material would lose their energy and the shoes would be placed in a jar filled with protocell liquid, which would keep the living organisms healthy. The liquid could also be dyed any colour, causing the shoes to take on that colour as the cells rejuvenate.

“You would take the trainers home and you would have to care for it as if it was a plant, making sure it has the natural resources needed to rejuvenate the cells,” said the designer.

Protocell Trainers by Shamees Aden

Aden added that her footwear project was intended to help a broader range of people comprehend the potential of protocell technology, and claimed the speculative results could become reality by 2050.

Protocell Trainers by Shamees Aden

The project is being presented at Wearable Futures, an event focusing on innovations in wearable technologies taking place in London from 10-11 December.

Photography is by the designer unless otherwise stated.

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Genetically engineered crops could grow lace amongst their roots

Plants could be genetically engineered to produce textiles at the same time as food, according to this synthetic biology project by designer and researcher Carole Collet.

Biolace by Carole Collet
Basil No. 5 – perfumed lace for luxury fashion trimmings, culinary herb and anti-viral medicine

“Would you eat a vitamin-rich black strawberry from a plant that has also produced your little black dress?” questioned Collet, whose Biolace concept responds to the need to produce enough food and textiles for the world’s rapidly expanding population by proposing that the DNA of plants could be adapted so they produce synthetically-enhanced foods and lace-like fabrics grow from their roots.

Biolace by Carole Collet
Factor 60 Tomato – tomatoes with high levels of Lycopene for UV skin protection and protein rich edible lace

“Biolace proposes to use synthetic biology as an engineering technology to reprogram plants into multi-purpose factories,” explained Collet, who is a full-time academic and deputy director of the Textile Futures Research Centre at Central Saint Martins College in London.

“Plants become living machines, simply needing sun and water to be operational. In such a scenario, we would harvest fruits and fabrics at the same time from the same plants.”

Biolace by Carole Collet
Gold Nano Spinach – microbiological transistors for the electronic sector, and multi- mineral food supplement

Collet believes that by 2050 advances in biological technologies could enable the “hyper-engineered” plants to be grown in huge greenhouses with their roots embedded in a mineral nutrient solution.

Biolace by Carole Collet
Lace doily growing on strawberry plant roots

The project proposes four genetically-engineered plants including a tomato plant with high levels of a nutrient called lycopene that could help improve the skin’s resistance to sunburn and protein-rich edible lace growing from its roots, and a basil plant that could produce anti-viral medicines as well as perfumed lace for use in decorative fashion applications.

Biolace by Carole Collet
Strawberry Noir – black strawberries with high levels of anthocyanin and vitamin C, black lace

A strawberry bush with black lace growing from its roots would yield black strawberries enriched with enhanced levels of vitamin C and antioxidants, while a spinach plant could produce micro biological sensors for use in electronics at the same time as providing a multi-mineral food supplement.

Biolace by Carole Collet
Lace doily growing on strawberry plant roots

“The aim of this project is to bring to light the potential of emerging living technologies and to questions the pros and cons of such extreme genetic engineering,” said Collet. “Could biological engineering promote a new kind of sustainable textile manufacturing, less reliant on chemicals and less energy-hungry than our current models of production?”

Biolace by Carole Collet
Spinach roots

The project is presented alongside floor tiles made of snail poo plus over 50 other ideas for combining biology with art, architecture and design presented at an exhibition called Biodesign at The New Institute in Rotterdam, which continues until 5 January 2014.

Biolace by Carole Collet
Harvested black strawberries and lace

Photography is by the designer and the film is by Immatters.

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Floor tiles made of coloured snail poo by Lieske Schreuder

Dutch designer Lieske Schreuder fed coloured paper to snails and then collected their vibrant-hued poo to make floor tiles (+ slideshow).

Snail Poo project by Lieske Schreuder
Snail eating green paper

Having noticed that snails in her garden seemed to enjoy eating paper and cardboard, Schreuder purchased hundreds of them from a snail farm and built a laboratory to test what would happen if they consumed coloured paper.

Snail Poo project by Lieske Schreuder
Coloured snail excrement

“The result was that snails do not only eat coloured paper, but also defecate in colour,” said the designer. “So blue paper means blue excrements! Snails cannot take the colour pigment of the paper into their bodies and that is the reason the excrements are coloured.”

Snail Poo project by Lieske Schreuder
Tiles made of snail excrement

Her laboratory comprises a series of compartments where the snails have access to sheets of coloured paper, which has a similar cellular structure to the plant matter they typically eat.

Snail Poo project by Lieske Schreuder
Threads of snail excrement

Schreuder gathers the excrement, which has a malleable texture, and feeds it into a portable machine she designed to grind, mix and press it into tiles with a roughly textured surface that retains the colour of the original paper.

Snail Poo project by Lieske Schreuder
Carpet woven from threads

“Walking outside, in the garden or on the streets, we are constantly walking on snail excrements,” Schreuder explained. “But because these excrements are very small and look like normal dirt, we are not aware of this. This made me think of a situation where these excrements are in colour. This would be some sort of snail excrement carpet.”

Snail Poo project by Lieske Schreuder
Excrement processing machine

The faeces can also be pressed into a mould using a spatula to create a delicate thread with a five-millimetre diameter that the designer is currently researching uses for.

Snail Poo project by Lieske Schreuder
Snail producing yellow excrement

“One metre of thread will take me an hour and contains six grams of excrement that is ground before processing,” said Schreuder. “It will take approximately nine snails five days to produce these six grams.”

Snail Poo project by Lieske Schreuder
Snail producing blue excrement

The project is one of 57 ideas for combining biology with art, architecture and design presented at an exhibition called Biodesign at The New Institute in Rotterdam, which continues until 5 January 2014.

Snail Poo project by Lieske Schreuder
Snail laboratory

The post Floor tiles made of coloured snail poo
by Lieske Schreuder
appeared first on Dezeen.