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France’s Clothing Repair Program to Decrease Fast Fashion

France’s Clothing Repair Program to Decrease Fast Fashion

Fast Fashion is the design, manufacturing and marketing method focused on rapidly producing high volumes of clothing and selling them at inexpensive prices. Over the past few years, fast fashion has increased due to the affordability of many of these items. With fast fashion brands like H&M and Zara and now online brands like Shein taking over the fashion industry, fast fashion doesn’t show any signs of slowing down.

The Fast Fashion Market is projected to reach over $280 million by 2030. Apparel consumption has reached 62 million tonnes a year and is expected to be 102 million tonnes a year by 2030. With the increase in the production of clothing, there is also an increase in the amount of waste produced as well.

Apparel companies produce 53 million tonnes of clothing annually. Over 57% of clothing produced and purchased ends up in landfills. The reason is due to the increase in production. These fast fashion brands use cheaper materials that are generally not made to last more than a year or even a season. Much of what is purchased isn’t worn and is either donated or dumped—with the rise of fast fashion, buying something new when articles rip or tear is cheaper than fixing it.

France’s clothing repair program is trying to change these habits and encourage people to fix their torn clothing. France’s clothing repair program intends to offer a repair bonus for people to mend their clothes. In France, over 772 000 tonnes of clothing are discarded annually, most of which are still wearable.

With France’s clothing repair program, people will receive a $6.73 to $28.05 credit for bringing their shoes and clothes to a cobbler or workshop to be mended. The monetary incentive will be based on the amount of mending that needs to be done. The government will fund the program with around $173 million in contributions over five years. This program aims to create a circular economy for shoes and textiles so that products last longer. This program will hopefully lower how money items people purchase and donate annually.

France’s clothing repair program is run by an eco-organization called Refashion. The organization manages the prevention of waste and management of the end of service life of products on over 5000 companies placing goods onto the market. Within France’s clothing repair program, tailors, clothing brands and repair shops can join the initiatives for free with the organizations.

The organization has reported that approximately 56% of donated textiles can be reused, while 32% can be recycled into new products. By raising awareness about these possibilities and incentivizing repairs, these schemes may actually encourage individuals to reconsider their buying habits. In France, clothing companies are now required to label items with information about the materials used and their country of origin. This will allow customers to make more informed choices and encourage them to shop sustainably.

France’s clothing repair program follows a similar initiative launched last year by the French government, which offered bonuses to individuals to repair their household appliances. In 2020, a law was passed to promote sustainable practices and consumption habits related to household goods.

If more people choose better quality clothing or consciously decide to have their clothing mended, the popularity of the fast fashion industry might begin to decrease. If people are rewarded for their environmental efforts, they will actually save money instead of constantly buying new clothing. It’s an initiative that could have a significant impact on the way we shop and consume. I’m interested to see how it will play out and if other countries will take on similar initiatives.

 

 


 

 

Source – Happy Eco News

The Plastic-Eating Enzymes Used in Recycling Clothing

The Plastic-Eating Enzymes Used in Recycling Clothing

Plastic eating enzymes have interested scientists looking for solutions to increasing plastic waste. Enzymes are important to living things because, as proteins, they allow biochemical reactions to happen faster than they would otherwise. They aid in everything from breathing to digestion. Enzymes are even used in food processing, paper industries, and detergents.

Because enzymes are so diverse in their uses, scientists have engineered a new enzyme to help us with our plastic program. These super plastic eating enzymes can break down plastic in a few days. Scientists believe this is a natural adaptation by the bacteria and might be a response to the increase of plastic in the environment.

The most common type of plastic that plastic eating enzymes can recycle is polyethylene terephthalate (PET). PET is a type of plastic used in many common products, such as bottles, food packaging, and textiles.

  • Other types of plastic that can be recycled by enzymes include:
  • High-density polyethylene (HDPE): found in plastic bottles and children’s toys.
  • Low-density polyethylene (LDPE): found in plastic bags, shrink wrap and food packaging.
  • Polypropylene (PP): found in disposable medical devices, textiles and auto parts.
  • Polystyrene/styrofoam (PS): found in takeout food containers, consumer electronics packaging and packing peanuts.

As the enzyme breaks down plastic, the bacteria produce MHETase, by which the enzymes break the pieces down further. After this process, other bacteria can break down the products into CO2 and water. Unlike other recycling methods, they can break down plastic into its original components, which can be reused to create new products. Enzymes require less energy than traditional methods, such as mechanical recycling. But maybe best of all is that they can be used to recycle plastic that is difficult or impossible to recycle using traditional methods such as those mixed with fabric or other dissimilar materials.

These plastic eating enzymes are now making an appearance in the fashion industry. The fashion industry uses tons of plastic-derived fibres in many clothing products. What’s worse is that very few of these materials are recycled today. Fashion brands have been known to turn to mechanical recycling and approaches using solvents to repurpose textiles for reuse. The challenge with these approaches is that they involve virgin plastics and require a lot of energy. Using plastic eating enzymes will break down plastic more efficiently. They will turn the materials into monomers that act like virgin-quality materials.

Athletic apparel company Lulelemon has teamed up with Australian startup Samara Eco to help them break down old textiles so they can be turned into new ones. Samara Eco has optimized plastic eating enzymes found in nature to efficiently recycle PET and polyester plastics at scale so they can be made into new, virgin-grade plastic.

The plastic waste is sourced and prepared for recycling by cold washing. The enzymes revert the plastic waste from its complex state into its original form. The plastics are then separated from any other additives like colourants. The recycled monomers can then be used in the re-manufacturing of brand-new plastics.

Using this technology, Lululemon hopes to spin used nylon and polyester blends from pre-owner, damaged or discarded apparel into a form that can be used in new collections. The partnership is Lululemon’s first-ever minority investment in a recycling company and Samsara’s first partnership with a clothing manufacturer. The recycling company hopes to make breakthroughs into the mainstream fashion industry as well as work with partners in other spaces to meet its goal of recycling 1.5 million tonnes of textiles by 2030.

This partnership is also part of Lululemon’s Be Planet goals and a step toward a circular ecosystem by 2030. Samsara Eco’s infinite recycling helps to close the clothing loop by using apparel waste to create new recycled materials over and over.

The two companies will create new recycled nylon and polyester made from apparel waste. They will be able to show that recycling textiles and repurposing materials is possible and can be done sustainably. This partnership might be the move we need to change the fashion industry for the future of our planet.

 

 


 

 

Source Happy Eco News

Innovative smart fabric responds to changes in temperature

Innovative smart fabric responds to changes in temperature

Aalto University in Finland, in collaboration with researchers at the University of Cambridge, have developed new textiles that change shape according to temperature levels.

Weaving together old technology and a new approach, the fabrics use liquid crystalline elastomers (LCEs), which were developed in the 1980s. LCEs are a smart material that can respond to light, heat, or other stimuli. Although LCEs have been made into fibres, they have yet to be made into textiles until now.

This innovation offers opportunities in the apparel sector for adjustable aesthetics, fabrics that could help monitor people’s health, and improve thermal insulation.

According to India-based market research company Coherent Insights, the smart and interactive apparel market is set to be worth US$6.5m by 2028.

To develop this smart fabric, the team at Aalto University used conventional textile crafting techniques and tested two versions with soft or stiff LCE yarn. Under an infrared lamp, all of the LCE fabrics contracted as they warmed up. The changes were reversible as they relaxed back to their original shape once the temperature dropped.

Pedro Silva, a postdoctoral researcher who led the study, commented: “At first, the impact of using industrial textile techniques with these kinds of new materials wasn’t clear to us. The elasticity of the two types of LCE yarn is comparable to spandex or even softer. That meant it was essential to understand if the textile industry could use these yarns and how the combination with conventional yarns would impact their movement.”

Following this, the researchers combined LCE yarns with linen and nylon in a radial pattern to weave a circle that would lift itself into a cone when heated. Heating the pattern caused the LCE yarn to contract into a cone before it relaxed back into a flat circle.

Maija Vaara, a PhD student at Aalto University who crafted the weaves and laces, hopes that the work will “trigger new ways of thinking when it comes to the materials of tomorrow.”

 

 


 

 

Source – Just Style

Xeros study explores upcycling of laundry microfibres

Xeros study explores upcycling of laundry microfibres

Microfibres are defined as tiny ‘threads’, smaller than 5mm, that break off from textiles through the everyday acts of wearing and laundering garments and textiles Xeros explains.

Estimates from The Microfibre Consortium suggest every year more than half a million tons of microfibres are released into the world’s oceans simply from washing our clothing.

Meanwhile, independent research shows that microfibres from synthetic textiles (known as microplastics) are one of the biggest sources of microplastic pollution in the world’s oceans.

In order to address this, Xeros Technology has developed a washing machine filtration device, XFilter, which captures the microfibres and prevents their release into the world’s oceans.

XFilter lasts the lifetime of a washing machine and allows users to place the captured microfibres directly into their bin to be disposed of with other household waste, as we already do with vacuum cleaners and tumble driers that collect similar mixed fibres.

“Microfibre waste from filtration is a complex material to recycle within existing recycling infrastructure: not only are the microfibres often mixed materials, but they also contain captured dirt and soil,” says Xeros. “This is why Xeros have teamed up the University of Surrey – to accelerative research into improved methods to permanently reduce this continued pollution build-up in the future.

 

 

Led by Dr Melis Duyar, the team from the University of Surrey and North Carolina State University have developed a new method specifically designed to upcycle textile micro/nano fibres shed during the washing and drying of clothes. The method produces clean hydrogen and solid carbon nanomaterials as a by-product.

Dr Duyar, senior lecturer at the School of Chemistry and Chemical Engineering at University of Surrey, said: “At the University of Surrey, we are developing solutions to upcycle microplastics without releasing the fossil carbon contained within them into the atmosphere in the form of greenhouse gas emissions. Plastics are one of the problems associated with our dependency on fossil fuels, so any solution we develop to address plastics pollution must also fit within our strategy for reaching a net zero emission economy. This partnership with Xeros will allow us to bring our technology closer to commercialisation, by developing methods for upcycling real microfibre waste collected from commercially available filters. We are excited to see our patent pending processes in action as applied to mixed fibre feedstocks, which is a big step towards developing a viable, real-world solution.”

The carbon nanomaterials developed using this upcycling method can be used in various essential products including batteries, solar cells and medical devices.

Dr Paul Servin, application development director of Xeros, added: “There is nothing better than to convert, what is today considered to be waste and a problem in the world, into a highly valuable product which is what we, together with the excellent researchers at University in Surrey, will accomplish. I’m extremely excited about this project which can hopefully lead the way to future separated collection of microfibres from washing machines, tumble dryers and vacuum cleaners for the purpose of upcycling to a higher valued product.”

The project began this month with research conducted over a 12-month period.

 

 


 

 

Source Just Style

Sustainable revolution: biomaterials poised to render fur, skins out of fashion

Sustainable revolution: biomaterials poised to render fur, skins out of fashion

In a globally interconnected world, textiles such as leather sourced from cattle, and wool sheared from sheep, have become a serious source of deforestation, other adverse land-use impacts, biodiversity loss and climate change, while fur farms (harvesting pelts from slaughtered mink, foxes, raccoon dogs and other cage-kept wild animals) have become a major biohazard to human health — a threat underlined by the risk fur farms pose to the current and future spread of zoonotic diseases like Covid-19.

But in a not-so-distant future, fashion biomaterials made from plant leaves, fruit waste, and lab-grown microorganisms may replace animal-derived textiles — including leather, fur, wool and silk — with implementation at first on a small but quickly expanding scale, but eventually on a global scale.

In fact, that trend is well underway. In less than a decade, dozens of startups have emerged, developing a range of biomaterials that, in addition to eliminating the use of animal products, incorporate sustainable practices into their production chains.

Not all these textile companies, mostly based in Europe and the United States, have fully achieved their goals, but they continue to experiment and work toward a new fashion paradigm. Among promising discoveries: vegan bioleather made with mycelium (the vegetative, threadlike part of fungi), and bioexotic skins made from cactus and pineapple leaves, grape skins and seeds, apple juice, banana stalks and coconut water. There are also new textiles based on algae that can act as carbon sinks, and vegan silk made from orange peel.

It’s all part of a promising sustainable textile revolution that has the potential to stylishly clothe both the high- and fast-fashion customer.

 

Sustainable materials are pivotal if we are to transform the fashion industry from one of the most polluting industries to one that is transformative, regenerative and more humane.

Carmen Hijosa, founder, Ananas Anam

 

According to a 2019 report, “Fashion’s New Must-Have: Sustainable Sourcing at Scale,” researched by the McKinsey & Company consulting firm, sustainable materials only represent a small fraction of global fashion production today, but recorded a stunning “five-fold increase [in growth] over the past two years.”

Seventy-four such companies are listed in “The State of the Industry Report: Next-Gen Materials,” released last year by the Material Innovation Initiative (MII), a California-based nonprofit that promotes animal-free materials. Of that total, 42 firms were established since 2014.  The number of companies is even longer, though. Firms like Post Carbon Lab (UK), Chip[s] Board (UK), and SeaWear, for example, aren’t listed.

These pathfinding multidisciplinary companies — staffed by designers, biochemists, genetic and material engineers, biologists and textile specialists — in addition to being suppliers of textiles, clothing and accessories to manufacturers, have also been partnering with major fashion brands to further develop their research and gain scale. Awards created by conglomerates such as the H&M Foundation and the Kering Group provide grants and technical support for projects in their early stages.

 

Sustainable fashion’s environmental implications

The evolution of sustainable biomaterials is largely a response to the need to reduce the environmental impact of the fashion industry, one of the worst planetary polluters. “The fashion industry is responsible for 10 per cent of annual global carbon emissions, more than all international flights and maritime shipping combined [and responsible for] around 20 per cent of worldwide wastewater [that] comes from fabric dyeing and treatment,” according to the Ellen MacArthur Foundation.

The fashion industry is also connected to Amazon deforestation. The share of the Brazilian Amazon involved in the country’s leather production has been growing since 2000, when it was only 7 per cent. That jumped to 27 per cent in 2010 and 43 per cent in 2020.

More than 100 global brands “are working with manufacturers and tanneries that are sourced from companies with links to cattle raised on recently deforested Amazon land,” according to a study released in November by Slow Factory, an NGO. Among them are Ralph Lauren, Tommy Hilfiger, Prada, Nike, Zara, H&M, Louis Vuitton, Coach and Tory Burch.

In fact, it was a visit to a leather tannery in the Philippines — his first ever in 15 years as a designer and consultant on luxury leather products — that convinced Carmen Hijosa to never work with animal skins again.

As part of their industrial process, tanneries need to prevent newly made leather from decomposing by altering its protein structure using a potent chemical cocktail containing potential human carcinogens, including formaldehyde and azo colourants.

Hijosa’s 1993 visit to the Philippine tannery spurred her research into leather alternatives. While still in the Philippines, the Spanish designer learned of an old local fashion tradition: the use of pineapple-leaf fibres to make handwoven textiles.

So Hijosa focused her research on pineapple’s potential and went back to school to study textiles. In 2013, she founded a London startup, Ananas Anam. The next year, at age 62, she gained her PhD. The result of her journey is Piñatex, a trademarked fabric made from waste pineapple leaves and already sold in 80 countries.

“Sustainable materials are pivotal if we are to transform the fashion industry from one of the most polluting industries to one that is transformative, regenerative and more humane, caring both for the environment and the people it touches in its complex supply chain,” said Hijosa. “It is our responsibility as material designers and manufacturers to develop living systems that make this change possible.”

Piñatex still has a challenge to overcome: While its finishing coating is 50 per cent bio-based, the other 50 per cent is made up of a petroleum-based resin applied to strengthen the material. Ananas Anam is currently working with a chemical company to make a fully bio-based coating.

 

Plant substitutes for leather and fabrics

After working with organic cotton, hemp and bamboo fibres, the Swiss fashion company QWSTION learned about abacá, a plant in the banana family also native to the Philippines, with strong fibres. Used by locals to make textiles since before Europeans arrived in the 1500s, “the fibre had good potential to become a material for outdoor clothing and accessories,” Hannes Schönegger, QWSTION’s CEO and co-founder told Mongabay.

According to Schönegger, abacá is produced using permaculture, so is grown surrounded by other plant species rather than existing as a monoculture. “Very often it is cultivated with cocoa trees and bigger plants that give shade. [Only] the side stems from the banana plant are chopped off to extract the raw material, so it keeps on growing for 30-40 years.”

It took three years of research in partnership with a yarn specialist and a weaving manufacturer, both based in Taiwan, to create Bananatex, launched in 2018. In addition to accessories already made with the biodegradable fabric and sold in QWSTION’s flagship stores, other brands and retail partners are creating prototypes using the abacá-derived textile, with some products likely available to consumers soon, said Schönegger.

The company is also currently testing bacteria dyeing as an alternative to digital print, a method used in making handbags. “We try to use the least harmful dyes that are available in industrial quantities. However, dyeing is an area that definitely needs improvement, added Schönegger. Synthetic chemical textile dyes have a notorious history as pollutants.

Another major issue confronting Bananatex and other companies is the environmental impacts of the global fashion supply chain. In the case of Bananatex, its product is sourced in the Philippines, moves to Taiwan for processing, then to China for manufacture, and finally arrives in Europe to be sold in stores and also over the Internet. That globe-trotting itinerary generates a lot of greenhouse gas emissions.

“In an international economy — and the textile industry is one of the most globalized areas — it is best to produce close to where materials grow and distribute the [finished] products afterwards. Because of that, Bananatex was born from the idea of creating a supply chain with short distances in Asia,” said Schönegger. “Things have to be transported at some point. And a closer look often reveals unexpected facts: Transporting a backpack from Hong Kong to Hamburg by ship creates less CO2 than from Portugal to Hamburg by truck.”

 

Fur from a petri dish 

Mink farms, long a target of animal rights activists, generally try to keep a very low profile. But that has become increasingly difficult since the arrival of the Covid-19 pandemic. The SARS-CoV-2 virus infected US and EU fur-producing mink farms in 2020, underlining the potential of those facilities for transmitting zoonotic diseases, and leading to calls by epidemiologists and public health experts for them to be shut down.

“Any time we can avoid housing animals in high-density settings, we diminish the risk of [animal-to-human, and human-to-wildlife] spillover events for potential pathogens. Raising animals for fur can certainly represent a high-density scenario. So if [alternatives to the] fur industry are successful, they could reduce fur farming and thus emerging infection disease risk,” Michael Oglesbee, director of the Infectious Diseases Institute in Columbus, Ohio, told Mongabay.

Current alternatives to animal fur are made mostly from recycled polyester, an entirely petroleum-based fibre that contributes to climate change. A potentially more environmentally friendly option is Koba, a brand owned by the Chinese company Ecopel, whose faux fur uses a synthetic fibre manufactured by chemical giant DuPont, but which is made from corn byproducts resulting from biofuel production and petroleum-derived terephthalic acid. Ecopel claims a 63 per cent greenhouse gas emission reduction for its faux fur. Contacted by Mongabay, Ecopel did not respond for comment.

Some startups are paving the way for faux fur production through biotechnology, a field that modifies living organisms to develop a variety of products. One such firm is the Dutch company GENEUSBIOTECH, founded in 2017 by Henri Kunz, a serial biotechnology entrepreneur, and Maria Zakurnaeva, who worked in the fashion industry.

When Kunz and scientist Sundar Pattabiraman produced human hair follicles in vitro, Zakurnaeva had a revelation: “Why not take advantage of this technology to produce fur, and thus avoid the death of animals?” The research team expanded its work and is now even developing wool grown without sheep. Its biomaterial fur and wool products are being made under the FUROID brand.

“We are at a stage where we have produced small organoids, a three-dimensional mass of tissue, by growing induced Pluripotent Stem Cells (iPSCs),” Pattabiraman, FUROID’s chief scientific officer, told Mongabay. “These cells have been proliferated to make hair-like protrusions coming out of them. But more extensive research needs to be performed to further this project in terms of reproducibility and to [achieve] a larger scale.”

The process uses stem cells, from which all other body cells with specialised functions are generated, which are obtained by biopsy from living mink and Merino sheep. In a next step, those cells are cultured and reprogrammed into iPSCs to make fur hair follicles.

“We use a maximum of five punch biopsies per animal, after approval from an ethics committee and under supervision of a veterinary doctor, who performs the anaesthesia. All animals are kept as pets and monitored by experienced staff. We own five sheep at a university farm in New Zealand and five minks. They are sufficient to produce an endless supply of cell lines,” said Kunz. “The life expectancy of our donor animals is high, especially sheep, and we spare no effort and costs to give them the best life they deserve.”

GENEUSBIOTECH reports that its FUROID project has received a Horizon Europe grant from the EU in excess of 4 million euros ($4.4 million), and is also being supported financially by an angel donor, family and friends. The company is in talks with industry stakeholders as possible investors. The firm intends to eventually use more species as donor animals to create its biomaterials, including sable, fox and even crocodile.

 

Fashion bounty from the sea

Ocean species are also becoming a source of sustainable fabrics, says Mike Allen, an associate professor in the College of Life and Environmental Sciences at the University of Exeter, UK

“Marine microbes … evolved in the oceans over a billion years before [they did] in the terrestrial environment. Because of that, the oceans are teeming with metabolic diversity, which can offer solutions to many of our current and future problems. You name a problem, there is a microbe out there that can help overcome it,” Allen told Mongabay.

The marine biotechnologist explained the advantages of biological modes of production over more traditional ones: “Physical [production] processes generally demand a lot of energy (heat and pressure), while chemical ones are reliant on bulk commodity synthetics [which may be toxic] … As a result, fashion textiles are restricted in their nature.

“Biological solutions to materials, on the other hand, are usually smarter,” Allen continued. “They exploit living organisms to do the hard work with a lower energetic input of manufacturing, and have properties that you can control and engineer for your particular application. Strength, grip, biodegradability, water resistance, antimicrobial, color, luminescence, fluorescence, self-cleaning, self-repairing, self-lighting: You are limited only by your [own] imagination.”

 

Consumers driving sustainable fashion movement

As with any business, it is consumer demand and profits that are driving the conversion from wild and domestic animal-sourced fashion materials, to plant and other biologically based materials.

This seismic shift in consumer desires has become clear in recent news: For example, in 2021, after more than 25 years of partnership, the Miss New Hampshire state beauty competition in the US ended its relationship with the New Hampshire Trappers Association, a promoter of wildlife trapping that long donated a fur coat to the winner.

“Former contestants spoke publicly against the obligation to accept a fur coat as part of the prize. That antiquated tradition helped perpetuate the use of body-gripping traps, which are still allowed in the state,” Kristina Snyder, an animal rights activist and co-creator of the New Hampshire Citizens Against Recreational Trapping (NHCART) website, told Mongabay.

At the international level, trendsetting Elle magazine announced in 2021 that it is banning fur from all its 45 global editions, printed and online. According to Elle senior vice president and international director Valeria Bessolo Llopiz, “[A] fur-free future is a great opportunity to increase awareness for animal welfare, bolster the demand for sustainable and innovative alternatives and foster a more humane fashion industry.”

This story was published with permission from Mongabay.com.