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biodegradable plastic from methane

this is very clever …. from the website

Mango Materials produces biodegradable plastics from waste biogas (methane) that are economically competitive with conventional oil-based plastics.

Methane of course is the second-most common greenhouse gas  and is a major contributor to global warming.

and in term of biodegradability….”The rate of degradation depends on the environment and thickness of the material. The Mango Materials product can break down in aerobic and anaerobic conditions and is expected to pass all relevant ASTM and other bio-related certification tests.”

A plastic that cuts methane and biodegrades. Well worth watching….

Straws Suck – just say no…

11181182_10153607820929653_743831970936423610_nThink refusing plastic straws is a pointless gesture? Saying no a ridiculous over reaction by the plastic free killjoys. Have a look at this gruesome video of a plastic straw being removed from a turtles snout and think again.

It is pretty distressing and some adult language is used to express the shock and shame
Please reconsider. Do you really need a plastic straw? They don’t all end up in the bin. Some end up in the sea. Because plastic doesn’t biodegrade they last for ever. They  will be there for a very long time and they can do real damage to wild life.

If you do need a straw why not get a reusable one. There are lots of options here.

If you really need a disposable straw, get a biodegradable one – they do exist – try this link..

Its not just straws and turtles, plastic trash is implicated in the maiming and death of hundreds of animals, birds and marine life. Check out the reports here.

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Degradable, biodegradable or compostable

So most plastics are made from oil and most plastics do not biodegrade. See how and why here…

And yet you will find plastics described as

  • degradable
  • biodegradable
  • compostable

What do these terms actually mean when applied to plastic?

Remember that

  • Most traditional, oil-based plastics do not biodegrade.
  • Biodegradable products break down as the result of the actions of naturally occurring microorganisms, such as fungi or bacteria, over a time.
  • Plastic breaks, tears and cracks. It weathers and sunlight makes it brittle, It falls apart – it degrades – but only into smaller pieces of plastic.
  • Find out more about the lifecycle of plastic here.

Degradable Plastic

All plastic degrade – i.e. they fall apart into smaller pieces of plastic. BUT when a plastic is described as degradable it could just describe the falling part process  OR it could mean t a degradation initiator has been added to make it fall apart faster.

Degradation Initiators and Bio-Degradable Plastics

But suppose there was a way of making plastic biodegradable? The industry argue that they can do just that by means of chemical additives known as degradation initiators. Very basically, these additives break the long unnatural plastic polymers into shorter recognisable polymers that microbes can attack and digest – or biodegrade (N.B. lots more research need to be done on this. It is by no means proven).

Because the degradation initiators are biologically  based they are sometimes described as biodegradable. So some traditional plastic bags have been labelled biodegradable.

This is  at best confusing if not deliberately misleading. This  is not the same process as natural biodegrading. Unlike truly biodegradable products they don’t always break down into harmless substances and may leave behind a toxic residue.

More so as  there are some compostable plastics which are also described (correctly) as  biodegradable which do actually compost down into biomass.

Read more about degradation initiators here.

Compostable Biodegradable Plastics

Truly biodegradable plastics are compostable.

Biodegradable products break down through a naturally occurring microorganism into simple, stable compounds which can be absorbed into the ecosystem. To be classed compostable, items must biodegrade within a certain time (around the rate at which paper biodegrades) For a man-made product to be sold as compostable, it has to meet certain standards. One such is the European Norm EN13432.

Compostable Plastics  meet all of these criteria. You can find out more here.

Infographic

Yes they have a vested interest making as they do compostable plastic goods but the info still stands.

Vegware factsheet

 

 

 

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Compostable Plastics Index

Plastic was the name given to early synthetic products such as cellophane,  that were derived from cellulose. These plastics  were biodegradable. Then they learnt how to make similar products from oil. Or rather from the bits of crude left over after they had finished making petrol. The same name was then given the oil derived product. But there were crucial differences. This new product was  made in a very different way and did NOT biodegrade.Since then yet more “plastics” have hit the market. Made from all kinds of things. Some from plant starch and some are certified compostable.

To conclude;
Currently, non- biodegradable, oil derived plastics are the most commonly used and so we tend to ascribe their qualities to all types of plastic.
In fact plastics can be made in a variety of ways from a variety of materials; shale gas, oil, plants even chicken feathers;
And different plastics have very different qualities. Some plastics do biodegrade and are certified compostable
Want to know more about plastic? Read up here

Biodegradable, Compostable Plastics

Just to remind you:
What is biodegradable? Biodegradable products break down through a naturally occurring microorganism into simple, stable compounds which can be absorbed into the ecosystem. More about biodegrading here
What is compostable? To be classed compostable, items must biodegrade within a certain time (around the rate at which paper biodegrades), and the resulting biomass must be free of toxins, able to sustain plant life and be used as an organic fertilizer or soil additive.
For a man-made product to be sold as compostable, it has to meet certain standards. One such is the European Norm EN13432.
You can find out more here.

Home Or Industrial Compostable?

Composting can be done at home, by community or on a much larger scale by the council

Home Composting
Composting is usually done on a small scale and most people will be familiar with the concept of a backyard heap or garden compost where household waste is rotted down into garden mulch.

Composting Plastic At Home
While most agree that PLA plastic is indeed compostable, many say that it can only composted in large scale municipal schemes.
They are wrong. I have been composting plastics for years.
Read more HERE

To be sure you are using a compostable plastic get one that has been certified compostable. Check out the logo.

Compostable Plastic Products

See a wide range HERE

Industrial composting
However large-scale schemes are becoming increasingly popular. In the UK communities band together to compost a whole street is worth of waste. Even city councils are getting in on the act.
These larger projects are sometimes called industrial composting

The difference is is that industrial composting is a lot hotter and can work more quickly.

Composting On A Larger Scale

Case Study – A Cafe
Cute Boscastle National Trust Cafe uses compostable disposables and composts them. Read more HERE

Other options include Community Composting
Community composting is where local community groups share the use and management of a common composting facility.
And Municipal or Industrial Comosting
Read more HERE
How councils compost on a large scale – read more HERE

Compostable Plastic Products

These compostable plastics, like oil derived, are extremely versatile.
They can be thin and flimsy which means they can be used to make

PLA Compostable Plastic Bags

And longer lasting products like phone cases

See a wide range of compostable products HERE

Compostable Plastics Types
Cellulose derived plastics such as Cellophane.
Starch based PLA plastics. They are certified compostable.
Polyhydroxyalkanoates or PHAs  are linear polyesters produced in nature by bacterial fermentation of ­sugar or lipids.
chicken feathers bioplastic.

 

A Note On Bioplastics
Most compostable plastics are also bioplastics. Bioplastics are made from natural materials such as corn starch.
However not all are compostable. For example ethane based plastics as used Coca-Cola’s PlantBottle which replaces 30 percent of the ethanol in their normal polyethylene terephthalate (PET) plastic bottle with 30 percent plant-derived ethanol. This means the bottle is still considered PET and can be recycled but is NOT biodegradable. Find out more here.

Other Plastics
There is research being done into developing a compostable, oil-derived plastic. Watch this space BUT don’t fall for the old *biodegradable plastic bag trick see below.

*Compostable versus biodegradable plastics
You might see some plastics labelled described as biodegradable. You could be forgiven for thinking that this is the same as compostable plastic. It is not. Some “biodegradable plastics” are oil derived plastics with a degrading initiator added to make them fall apart (degrade) more  quickly. Unlike compostable plastics they don’t always break down into harmless substances and may leave behind a toxic residue. Read more here

Compostable Plastic Products

Sponge Cloth Biodegradable

Oh joy - just sourced some plastic free sponge cloths. I love these things. Sponge cloths are  extremely porous and great for ...
Read More

Glitter biodegradable

Yes you can get biodegradable glitter and this Etsy company sell it in compostable packaging. Yay! Overview Handmade item Materials: ...
Read More

Vegware – compostable fast-food disposables

Vegware is the UK's first and only completely compostable packaging company. Vegware is forging and leading its own new sector – combining ...
Read More

Pet bowls biodegradable

For the plastic free pooch in your life, a biodegradable plastic food bowl! "Eco-friendly and functional, Becothings are tough and ...
Read More

Cardboard Cups & Pots

So you find what looks like a cardboard container full of yummy ice cream or you see that your favourite ...
Read More

Dog poop disposal

This is something I really hate …. plastic bags of dog @*%! hanging from the bushes. But then plastic bags ...
Read More

Disposable Cups

Disposable cups are made from plastic lined paper, polystyrene or plastic. To make paper cups water proof they are laminated with polyethylene, ...
Read More

Straws Compostable

The picture shows a turtle with a plastic straw stuck in its nose (You can watch the video in full ...
Read More

Snact in compostable packaging

Snacks... so good when trekking, so hard to source plastic free. The best we have is loose nuts as sold ...
Read More

Greencane Tissues/ Paper Productsd

A while ago a company called Greencane sent me some tissues through the post. Not just tissues but toilet paper and kitchen ...
Read More

Plant Pots Compostable

Took this form a very interesting article here. I will be looking into them more closely in the future Low-‘e’ ...
Read More

Cutlery – disposable & compostable

Though it's not the greenest option there are times when disposable partyware is the only choice. For our last big bash, ...
Read More

PLA Starch Bags – compostable plastic bags.

PLA starch bags are described as a compostable plastic.Which can be confusing as they are a very different product from ...
Read More

Pots – PLA compostable

These  deli pots are  made from  PLA plastic. This looks and acts just like plastic but is made from corn starch ...
Read More

Companies using compostable plastic.

Snact

Our new innovative packaging, developed by Israeli start-up TIPA, is just as durable and impermeable as ordinary plastic – but it biologically decomposes within just 180 days and becomes a fertiliser for soil, behaving similarly to an orange peel. Read more here.

Vegware
A while ago I got sent some Vegware stuff to review. Vegware make disposable, compostable packaging for the fast-food industry. Hooray for them …. but I am not in fast food. So what would I be using them for? For starters…

Eco For Life 
If you must drink bottled water this might interest you; water packaged in PLA compostable plastic bottles

More

Remember, not all bio- plastics can be composted and some are not as green as they sound

Check out all our composting posts HERE
Want to know more about plastic? Read up here
See our big list of plastic types here

N.B.

lines changes, products get removed. For more information why not ask the Plastic Is Rubbish FB group for updates. They are a great source of tidbits, personal experience and the latest news. Why not join them and share the plastic free love x

And before you go…

If you have found the #plasticfree information useful, please consider supporting us. It all goes to financing the project (read more here) or

Buy Me a Coffee at ko-fi.com

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Fibres, Fabrics & Clothing – stats & info

Fibres are short fine hairs.
Fibres can be can be natural, synthetic or chemically produced hybrid called regenerated fibres.
Fibres can be twisted or spun into longer thread or yarn.
Threads can be woven or knitted into fabric.
The fabric often takes the name of the fibre such as cotton or wool.
It can also go under a trade name such as nylon.

Know Your Fibres

Fibres (and then yarns and ultimately fabrics) can be can be natural, synthetic or chemically produced hybrid called regenerated fibres.
Natural fibres
Are derived from plants like cotton or animals like wool and silk
Synthetic fibres
are man-made from chemicals many of which are petroleum derived.
Regenerated Fibres
The base material is cellulose that can be obtained from a range of sources including wood, paper, cotton fiber, or  bamboo. It is then converted through a chemical process into fibres.

Fabrics

Threads can be woven or knitted into fabric.
Blended Fabrics
Mixing synthetic and natural fibres such as poly cotton a mix of natural cotton and synthetic polyester.

Clothing

Clothes are then made out of woven/knitted fabrics or knitted yarn.

MORE

Read more about fibres and fabrics HERE.

fibre pie chart

Statistics

Fibre Production

2013 figures

Global 2013 fibre production estimated at 85.5 million tons

• Global 2013 synthetic fibre production estimated at 55.8 million tons (i.e. excluding cotton, cellulosics and wool)

Natural Fibres
Cotton 25 million tons
wool production is around 2.1 million tonnes.
Silk 150 000 tonnes in 2006
Linen 147 000 tonnes of flax fibre 2007,
Alpaca 6 500 tonnes
Cashmere” after scouring and dehairing 6 500 tonnes
Mohair is estimated at around 5 000 tonnes a year, down from a high of 25 000 tonnes in the 1990s,
Angora is estimated at 2 500 to 3 000 tonnes
2009 figures  only – google let me down!

Clothing Production

Clothes consumption has gone crazy. The introduction of cheap, synthetic fibres has meant that the price of new duds is dropping. This has had all kinds of consequences. here are some reports on the subject….

Cambridge University report issued 2006 titled Well Dressed? The Present and Future Sustainability of Clothing and Textiles in the United Kingdom
The followed statistics have been culled from the above report and have been lightly edited.
In 2000 the world’s consumers spent around US$1 trillion worldwide buying clothes. Around one third of sales were in Western Europe, one third in North America and one quarter in Asia.
Output from the sector is growing in volume, but prices are dropping, as is employment, as new technology and vertically integrated structures support improved productivity.
Growth in volumes is almost entirely associated with polyester – volumes of natural fibre production and use having remained approximately constant for several years.
3.25 million tonnes of clothing and textiles flow through the UK each year – approximately 55kg per person.
Approximately two thirds of the imports of fibres, yarns and fabrics to the UK are man-made.
Consumers in the UK spend about £780 per head per year, purchasing around 2.15 million tonnes (35kg per person) of which one eighth is sent for re-use through charities and the rest is discarded.
UK consumption of clothing and textile products Total consumption: 2,156 thousand tonnes About 50% clothing and 50% textiles
The major products consumed were: 420 thousand tonnes of trousers, T-shirts and pullovers 530 thousand tonnes of carpets
From 2001 to 2005 spending on women’s clothing grew by 21% and that on men’s by 14%. During the same time – as the end of the quota arrangement approached in 2005 – prices actually dropped by 14%
Consumers in the UK spend about £780 per head per year, purchasing around 2.15 million tonnes (35kg per person) of which one eighth is sent for re-use through charities and the rest is discarded.

You can download a copy for free here

WRAP have also been researching.
WRAP’s ground breaking report provides the first big picture look at the financial and environmental impacts of clothing.
Key findings include:
the average UK household owns around £4,000 worth of clothes – and around 30% of clothing in wardrobes has not been worn for at least a year;
the cost of this unused clothing is around £30 billion;
extending the average life of clothes by just three months of active use would lead to a 5-10% reduction in each of the carbon, water and waste footprints; and
an estimated £140 million worth (around 350,000 tonnes) of used clothing goes to landfill in the UK every year.

You can download valuing clothes report here

The Telegraph has something to say on the subject…
While every other waste streams going to landfill is reducing, the amount of textiles being buried in the ground has shot up by a third in recent years as people buy more cheap clothing than ever before as a result of the so-callled ‘Primark effect’.
Around 60 per cent of clothing sent for recycling is sold to other countries for re-use, mostly Africa and Eastern Europe, another 35 per cent is re-used as mattress stuffing or insulation and under five per cent is such low quality it is sent to landfill. Telegraph

Carbon footprint

O Ecotextiles

The estimated energy and water needed to produce that amount of fabric boggles the mind:

  • 1,074 billion kWh of electricity  or 132 million metric tons of coal and
  • between 6 – 9 trillion liters of water[3]

A study done by the Stockholm Environment Institute on behalf of the BioRegional Development Group  concludes that the energy used (and therefore the CO2 emitted) to create 1 ton of spun fiber is much higher for synthetics than for hemp or cotton:

KG of CO2 emissions per ton of spun fiber:
crop cultivation fiber production TOTAL
polyester USA 0.00 9.52 9.52
cotton, conventional, USA 4.20 1.70 5.90
hemp, conventional 1.90 2.15 4.05
cotton, organic, India 2.00 1.80 3.80
cotton, organic, USA 0.90 1.45 2.35

The table above only gives results for polyester; other synthetics have more of an impact:  acrylic is 30% more energy intensive in its production than polyester [7] and nylon is even higher than that.

Estimating the Carbon Footprint of Fabrics

today’s textile industry is one of the biggest sources of greenhouse gasses on Earth, due to the huge size and scope of the industry as well as the many processes and products that go into the making of textiles and finished textile products. (See Vivek Dev, “Carbon Footprint of Textiles”, April 3, 2009, http://www.domain-b.com/environment/20090403_carbon_footprint.html)

Ethical Fashion Forum

The largest climate change impact from clothing is the energy wasted in washing, tumble-drying and ironing. In the lifespan of an average T-shirt 50% of the global climate change impact comes from the washing process after it has ben purchased. This impact can be reduced simply by lowering the washing temperature and eliminating tumble drying and ironing. (Allwood et al. 2006)

Click to access Jungmichel._Systain.pdf

According to Procter & Gamble Co., the average American family does about 300 loads of laundry per year, or about six loads per week. That suggests a per-family carbon footprint from doing laundry of about 480 pounds per year, or about 10 pounds per week. And that doesn’t include running the dryer.

Key findings include:

  • the average UK household owns around £4,000 worth of clothes – and around 30% of clothing in wardrobes has not been worn for at least a year;
  • the cost of this unused clothing is around £30 billion;
  • extending the average life of clothes by just three months of active use would lead to a 5-10% reduction in each of the carbon, water and waste footprints; and
  • an estimated £100 million worth (based on 2015 prices) or around 350,000 tonnes of used clothing goes to landfill in the UK every year.

Micro Fibres

Traditional plastics degrade rather than biodegrade, which means they simply break up and fall apart into smaller pieces. The plastic has not changed its structure as such – merely fragmented. And it seems the process can continue indefinitely. Particles of plastic of 20 microns in diameter (a width thinner than a human hair) have been identified.

Sources of micro plastics are
Synthetic clothing that release thousands of plastic fibres every wash.
Read more here

Pollution

In November 2012, Greenpeace International investigated the use of hazardous chemicals used in dyes and they discovered that 63 percent of the clothing items they tested showed high traces of nonylphenol ethoxylates (NPEs), and others had highly toxic phthalates and carcinogenic amines.

report found that water pollution in China over the past few years has grown, with the textile industry responsible for pumping out 2.5 billion tons of wastewater per year.

Read the rest for yourself … it’s just as bad.

By Fibre

Cotton

Cotton represents nearly half the fibre used to make clothes and other textiles worldwide.

About 20 million tones of cotton are produced each year in around 90 countries.

China, United States, India, Pakistan, Uzbekistan and West Africa account for over 75% of global production.

Cotton represents nearly half the fibre used to make clothes and other textiles worldwide ( the rest is synthetic fibres)It can take more than 20,000 litres of water to produce 1kg of cotton; equivalent to a single T-shirt and pair of jeans. (Surely there is more cotton in jeans than in a tee shirt?)

Here are some more facts about cotton taken from this article in GOOD

textile mills consume 4.5 million bales of cotton yearly

a quarter of the total worldwide pesticide use occurs in cotton farming.

Each year, the World Health Organization estimates that three million people are poisoned by pesticide use

More

Read all our fabrics, clothes and related posts, HERE.

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Fabrics, Fibres & Yarns Index

Index

  • Natural fibres for rope, string, sacking, industrial uses, delicate fabrics and yarn  HERE
  • Synthetic fibres  Read more HERE
  • Regenerated Fibres Read more HERE

Yarns

Fabrics

Clothing
See all textile & wardrobe related posts HERE.

Stats on fibre production

Introduction to Fibres & Fabrics

Definitions

  • Fibres are short fine hairs.
  • Fibres can be can be natural, synthetic or chemically produced hybrid called regenerated fibres.
  • Fibres can be twisted or spun into longer thread or yarn.
  • Threads can be woven or knitted into fabric.

 

Natural Fibres

These are plant or animal derived and they biodegrade.

Coarse Fibres Are used for rope, string, sacking and industrial uses. They include

  • Abaca for rope,
  • coir from coconuts has a wide range of applications,
  • jute is used for sack cloth and
  • sisal for string.

Fibres used for finer fabrics and yarn include

  • Cotton used to make cotton
  • Flax is used to make linen. It is one of the strongest vegetable fibres. Other vegetable fibres include hemp and nettles.
  • Wool and other animal hair 
  • Silk strong and light weight.
  • Read more  HERE

Synthetic fibres

  • These are man-made from chemicals many of which are petroleum derived.
    Most do not biodegrade.
  • Acrylic, nylon and polyester  are the most common. They are made from oil and coal.
  • Read more HERE

Regenerated Fibres

  • The base material is cellulose that can be obtained from a range of sources including wood, paper, cotton fibre, or  bamboo. It is then converted through a chemical process into a fibre.

    Some it is claimed are biodegradable. Some are not.

    They usually go under the trade names such as 

    • Rayon
    • Bamboo Rayon
    • Viscose,
    • Modal
    • Tencel (lyocell)
    • Read more HERE

Mixed Fibre

Where different fibres are mixed together like a wool/ silk mix  popular for suits or natural and synthetic eg polycotton. 

Then there are other more specialist mixes  where natural fibres are mixed with elasticine added to make fabric stretchy.

 

Yarns, Threads and Ropes

Yarns and threads usually take the name from the fibre in which they are spun. They range from thin threads for sewing to thick ropes. 

Here are the ones we use.

 

Fabrics

Threads can be woven or knitted into fabric.

They may be named after then yarn type. So cotton can be the fibre the yarn or the fabric. They may be named after the trade name like Modal.

But fabrics can also be subdivided into a huge number of additional categories. For example cotton fabric can be described as denim, lawn or muslin.

Fabric may also be described by the technique used to make it. So jersey is a knitted fabric that could be made from cotton, silk or polyester.

Clothing

Clothes can now be made out of woven/knitted fabrics or knitted yarn.

See all textile & wardrobe related posts HERE.

Fibre Production

fibre pie chart

2013 figures

Global 2013 fibre production estimated at 85.5 million tons

• Global 2013 synthetic fibre production estimated at 55.8 million tons (i.e. excluding cotton, cellulosics and wool)

Natural Fibres
Cotton 25 million tons
wool production is around 2.1 million tonnes.
Silk 150 000 tonnes in 2006
Linen 147 000 tonnes of flax fibre 2007,
Alpaca 6 500 tonnes
Cashmere” after scouring and dehairing 6 500 tonnes
Mohair is estimated at around 5 000 tonnes a year, down from a high of 25 000 tonnes in the 1990s,
Angora is estimated at 2 500 to 3 000 tonnes
2009 figures  only – google let me down!

Carbon footprint

A study done by the Stockholm Environment Institute on behalf of the BioRegional Development Group  concludes that the energy used (and therefore the CO2 emitted) to create 1 ton of spun fiber is much higher for synthetics than for hemp or cotton:
KG of CO2 emissions per ton of spun fiber:

KG of CO2 emissions per ton of spun fiber:

 

crop cultivation

fiber production

TOTAL

polyester USA

0.00

9.52

9.52

cotton, conventional, USA

4.20

1.70

5.90

hemp, conventional

1.90

2.15

4.05

cotton, organic, India

2.00

1.80

3.80

cotton, organic, USA

0.90

1.45

2.35

Lots more great info on the carbon footprint of fabrics can be found here on this great blog.

More Information

Lots of outrageous statistics HERE

Read all our fabrics, apparel and yarn related posts HERE.

Corals & Micro Plastics

Corals such as those found on the Great Barrier Reef are at risk from the estimated 5tn pieces of plastic in the world’s oceans because researchers have discovered they digest tiny fragments of plastic at a significant rate.

A study led by the ARC centre of excellence for coral reef studies at James Cook University found that corals consumed “microplastics” – plastics measuring under 5mm – about the same rate as their normal food.

From the Guardian

Read more about micro plastic pollution here

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Charity Shop Issues

A reason not to buy in charity shops can be found on the Woven website about the second hand clothing trade in AFRICA

The following has been taken from the website

Africa is the fastest growing population center in the world. It currently has 1.1 billion people. That numbers nearly quadruples to 4.1billion by 2100.
The continent has the highest unemployment rates in the world in spite of having six of the worlds fastest growing economies.

“Probably 90% of the clothing people are buying in the whole country are second-hand clothes.” Sylvia Owori, Ugandan fashion designer.

SECOND-HAND CLOTHES IN AFRICA
Everyday before sunrise vendors line up to get first dibs on the huge pallets of compressed clothes as they come off trucks. They have absolutely no idea what’s inside.

BUYING THEMSELVES POOR
How much do you think someone living in Africa (the poorest continent on Earth) pays for a pair of second-hand jeans?
Places where over 80% of people make less than $2 a day (the UN global poverty benchmark). $1? $2? $3, more than a days wage? Guess again:
$5 to $7. Over two or three times what they earn in a day. But wait, there’s more.
All but a fraction of that money leaves the continent. Why? Because vendors purchase these bundles from international “clothing recyclers” that buy 97% the clothes you and I donate to charities like Goodwill, The Salvation Army and The Cancer Society. Vendors in the developing world pay up to a 1,000% markup for bundled clothes, lining these international companies pockets with huge profits–$3 billion a year huge–and none of that money supports the causes we thought we were.

This isn’t to blame the charities we donated to. In all honesty they do their best and if they could sell more donated clothes locally they would–they’d make more money that way. The truth is people don’t want to buy second-hand clothes in the developed world and charities that accept clothes have no other choice but to sell clothes they can’t sell locally to clothing recyclers.]

THE POOR GET POORER

The impact is devastating:  50% loss in jobs and a 40% decline in industry over two decades.
Textile and clothing employment along with other support work offer valuable entry level jobs in fledgling economies. Ghana and Nigeria are among the hardest hit losing 80% and over 95% of their textile employment respectively.

TEXTILES: END OF LIFE IS JUST AS IMPORTANT AS MANUFACTURING

Most people understand what’s happening on the production side of the textile industry (i.e. sweatshops, etc) but few realize what’s happens to their clothes at the end of life when they donate them and they think they are doing some good.
Before I started looking into this I thought that clothes I donated were helping people in my local community by providing affordable clothes to less fortunate families. I was shocked to learn that only 3% of the clothes donated are ever resold locally. That’s three items for every 100 donated.
I was even more shocked to hear that the nonprofit I donate my clothes to only earns between $0.10 and $0.25 per pound. That’s about $0.20 to $0.50 for a pair of jeans.

More posts on this subject here 

 

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Whats that dot mean?

The Green Dot is a symbol used on packaging in many European countries.

It looks like a recycling logo but is not.

It is a trademark.

It is not always green. Sometimes it is black and white!

In the UK but has no specific meaning for UK consumers.

In Europe howeve it indicates that a packaging producer has paid the have a proportion of their packaging collected and recycled.

They have to. The European “Packaging and Packaging Waste Directive – 94/62/EC”  This applies to all companies whose products use packaging. It states that manufacturers have to collect any recyclable packaging they use.

Obviously most do not do this. Instead they pay a company to do it for them. They can then display the green dot on their packaging.

Frequently asked questions about the Green Dot® program.

Which companies need to comply with the Packaging Waste Directive?
All companies need to comply with the Directive if their products include nearly any type of packaging.

Can I come up with my own packaging recovery plan and avoid joining Green Dot®?
Yes, you can present your own plan for packaging recovery. This may make sense if you are very low volume producer with very few customers.

Am I required to join the Green Dot® scheme?
No. You are not required to join a program such as Green Dot®. However, the Packaging Directive requires manufacturers to recover their own packaging. Most companies find this impractical and participating in the Green Dot® Program is one way to meet these requirements.

You can find this very useful Q&A post here

To conclude

  • A licence fee is paid by manufactorers towards the cost of collection and recycling.
  • The amount paid depends on the material used in packaging (e.g. paper, plastic, metal, wood, cardboard).
  • Different countries pay diferent amounts for joining the the scheme.
  • Fees take into account the cost of collection, sorting and recycling methods.
  • A reduction in packaging means a reduction in the liscence fee.
  • Once the fee is paid the company can then display the green dot on their packaging and consumers will know that the manufacturer contributes to the cost of recovery and recycling.

We do not use this system in the UK. The Green Dot is not used as a compliance mark in the UK, but it is still a trademark. Anyone who produces packaging with a Green Dot, which is then sold in the UK, must pay a UK licence fee through Valpak Ltd.

Find  more on this and other international packaging signs here.

Better still buy unpackaged and take your own reusable bags

Biodegradation of polyethylene

Polyethylene

This is the most common plastic. The annual global production of polythene is approximately 80 million tonnes.

http://pubs.acs.org/doi/abs/10.1021/es504038a

Jun Yang, Yu Yang, Wei-Min Wu, Jiao Zhao, and Lei Jiang
Evidence of Polyethylene Biodegradation by Bacterial Strains from the Guts of Plastic-Eating Waxworms
Environ. Sci. Technol., 2014, 48 (23), pp 13776–13784
DOI: 10.1021/es504038a

Abstract
Polyethylene (PE) has been considered nonbiodegradable for decades. Although the biodegradation of PE by bacterial cultures has been occasionally described, valid evidence of PE biodegradation has remained limited in the literature. We found that waxworms, or Indian mealmoths (the larvae of Plodia interpunctella), were capable of chewing and eating PE films. Two bacterial strains capable of degrading PE were isolated from this worm’s gut, Enterobacter asburiae YT1 and Bacillus sp. YP1. Over a 28-day incubation period of the two strains on PE films, viable biofilms formed, and the PE films’ hydrophobicity decreased. Obvious damage, including pits and cavities (0.3–0.4 μm in depth), was observed on the surfaces of the PE films using scanning electron microscopy (SEM) and atomic force microscopy (AFM). The formation of carbonyl groups was verified using X-ray photoelectron spectroscopy (XPS) and microattenuated total reflectance/Fourier transform infrared (micro-ATR/FTIR) imaging microscope. Suspension cultures of YT1 and YP1 (108 cells/mL) were able to degrade approximately 6.1 ± 0.3% and 10.7 ± 0.2% of the PE films (100 mg), respectively, over a 60-day incubation period. The molecular weights of the residual PE films were lower, and the release of 12 water-soluble daughter products was also detected. The results demonstrated the presence of PE-degrading bacteria in the guts of waxworms and provided promising evidence for the biodegradation of PE in the environment.

Thanks to Fabiano of www.globalgarbage.org for keeping us well informed.

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Polyurethane

Polyurethane is a general term used for a class of polymers derived from the condensation of polyisocyanates and polyalcohols.

Polyeurothenes are are petrochemical-based derived polymer and (man) made like all the other synthetic polymers featured in this blog.

Polyurethane is made by reacting polyols and diisocyanates,

Polyols and diisocyanates are derived from crude oil and removed during the refining process just like gasoline.

Polyurethane foam can be flexible or rigid. Each form of polyurethane has many uses.

Most polyurethanes do not melt when heated but there are some (thermoplastic polyurethanes) that do.

Polyurethane formulations cover an extremely wide range of stiffness, hardness, and densities. These materials include:

Low-density flexible foam used in upholstery, bedding, and automotive and truck seating
Low-density rigid foam used for thermal insulation and RTM cores
Soft solid elastomers used for gel pads and print rollers
Low density elastomers used in footwear
Hard solid plastics used as electronic instrument bezels and structural parts
Flexible plastics used as straps and bands
lining the cups of brassieres.

Wikkipedia

Carbon dioxide is used as a blowing agent to create the soft, comfortable feel of a mattress or sofa. The more blowing agent is used, the softer the resulting foam.
In rigid foams, a gas such as pentane is “trapped” in the closed cells of the foam, optimising its insulation capacity.
Rollerblade wheels, on the other hand, do not require a blowing agent and instead have a dense and hardwearing consistency.

Is polyeurothene a plastic?
this answer from Quora is a useful read

There is thermoset and thermoplastic polyurethane polymers. Both can be considered as “plastics”.

Actually “Plastics” is more a shortcut / a general public word. It refer to the fact that most of these materials have a high plasticity (ability to be permanently deform without breaking) under certain conditions. Not to a chemical composition. Specialists prefer to speak of polymers and composites.

In general language, most of common polymers compounds that can be injected/extruded are generally referred as plastics.

When it comes to Carbone/glass fiber reinforced Polyamide or to the Aramids family (including Kevlar and Grivory brands), you will rarely see the word “plastic” used because it would be devaluating for these high performance composites. Yet actually these materials can be extruded or injected quite the same way as generic plastics like PE or PP. So that these are fitting perfectly in the “plastics” category.
So that it is correct to say that thermoplastic and thermoset polymers are plastics. Including PU.

Polyurethanes are polymers. Polymers are best thought of as chains of three-dimensional structures made up of long, repeating smaller units called monomers. These monomers contain carbon, hydrogen, oxygen and nitrogen. To form the chains, the smaller links are “polymerised” or hooked together.

There are thousands of naturally occurring and man-made polymers. The first man-made polymer to be produced was Bakelite in 1909. Rayon, the first man-made fibre polymer, was developed in 1911. Other well known polymers include nylon, silicon, polyethylene, polypropylene and polystyrene.

Read more.

Common polyurethane applications include:
Building insulation
Refrigerators and freezers
Furniture and bedding
Footwear
Automotive
Coatings and adhesives
Other applications read more here.

Polyurethane is the most common solvent used in modern varnishes.

Despite its xenobiotic origins, polyurethane has been found to be susceptible to biodegradation by naturally occurring microorganisms. Microbial degradation of polyurethanes is dependent on the many properties of the polymer such as molecular orientation, crystallinity, cross-linking and chemical groups present in the molecular chains which determine the accessibility to degrading-enzyme systems. Esterase activity (both membrane-bound and extracellular) has been noted in microbes which allow them to utilize polyurethane. Microbial degradation of polyester polyurethane is hypothosized to be mainly due to the hydrolysis of ester bonds by these esterase enzymes.

Isocyanates are compounds containing the isocyanate group (-NCO). They react with compounds containing alcohol (hydroxyl) groups to produce polyurethane polymers, which are components of polyurethane foams, thermoplastic elastomers, spandex fibers, and polyurethane paints. Isocyanates are the raw materials that make up all polyurethane products. Jobs that may involve exposure to isocyanates include painting, foam-blowing, and the manufacture of many Polyurethane products, such as chemicals, polyurethane foam, insulation materials, surface coatings, car seats, furniture, foam mattresses, under-carpet padding, packaging materials, shoes, laminated fabrics, polyurethane rubber, and adhesives, and during the thermal degradation of polyurethane products.

Health effects of isocyanate exposure include irritation of skin and mucous membranes, chest tightness, and difficult breathing. Isocyanates include compounds classified as potential human carcinogens and known to cause cancer in animals. The main effects of hazardous exposures are occupational asthma and other lung problems, as well as irritation of the eyes, nose, throat, and skin. https://www.osha.gov/SLTC/isocyanates/index.html

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Plastic in the Sea – Studies

Latest reports and news stories about plastic in the sea can be found here, (reports and statistics about other plastic related issues can be found here)

Thanks to Fabiano of www.globalgarbage.org for keeping us well informed.

Try schnews for the nasty nurdles

billions of tiny plastic pellets, called nurdles – the raw materials for the plastic industry – are lost or spilled every year, many ending up in the sea. These act like chemical sponges, soaking up other toxic man-made chemicals, all artificial pollutants (for toxicity think DDT pesticide etc), concentrating them up to a million times more than in normal sea water.

Chris Wilcox, Nicholas J. Mallos, George H. Leonard, Alba Rodriguez, Britta Denise Hardesty, Using expert elicitation to estimate the impacts of plastic pollution on marine wildlife, Marine Policy, Volume 65, March 2016, Pages 107-114, ISSN 0308-597X,http://dx.doi.org/10.1016/j.marpol.2015.10.014.
(http://www.sciencedirect.com/science/article/pii/S0308597X15002985)
Abstract: Marine litter is a growing environmental concern. With the rapid increase in global plastics production and the resulting large volume of litter that enters the marine environment, determining the consequences of this debris on marine fauna and ocean health has now become a critical environmental priority, particularly for threatened and endangered species. However, there are limited data about the impacts of debris on marine species from which to draw conclusions about the population consequences of anthropogenic debris. To address this knowledge gap, information was elicited from experts on the ecological threat (both severity and specificity) of entanglement, ingestion and chemical contamination for three major marine taxa: seabirds, sea turtles and marine mammals. The threat assessment focused on the most common types of litter that are found along the world’s coastlines, based on data gathered during three decades of international coastal clean-up efforts. Fishing related gear, balloons and plastic bags were estimated to pose the greatest entanglement risk to marine fauna. In contrast, experts identified a broader suite of items of concern for ingestion, with plastic bags and plastic utensils ranked as the greatest threats. Entanglement and ingestion affected a similar range of taxa, although entanglement was rated as slightly worse because it is more likely to be lethal. Contamination was scored the lowest in terms of impact, affecting a smaller portion of the taxa and being rated as having solely non-lethal impacts. This work points towards a number of opportunities both for policy-based and consumer-driven changes in plastics use that could have demonstrable affects for a range of ecologically important taxa that serve as indicators of marine ecosystem health.
Keywords: Chemical contamination; Elicitation survey; Entanglement; Ingestion; Marine debris; Marine mammal; Plastic pollution; Seabird; Turtle

http://www.sciencedirect.com/science/article/pii/S0308597X15002985/pdfft?md5=7c0e5ccdd43e09e0d0d1303741c421c1&pid=1-s2.0-S0308597X15002985-main.pdf

Jan Zalasiewicz, Colin N. Waters, Juliana Ivar do Sul, Patricia L. Corcoran, Anthony D. Barnosky, Alejandro Cearreta, Matt Edgeworth, Agnieszka Gałuszka, Catherine Jeandel, Reinhold Leinfelder, J.R. McNeill, Will Steffen, Colin Summerhayes, Michael Wagreich, Mark Williams, Alexander P. Wolfe, Yasmin Yonan, The geological cycle of plastics and their use as a stratigraphic indicator of the Anthropocene, Anthropocene, Available online 18 January 2016, ISSN 2213-3054, http://dx.doi.org/10.1016/j.ancene.2016.01.002.
(http://www.sciencedirect.com/science/article/pii/S2213305416300029)
Abstract: The rise of plastics since the mid-20th century, both as a material element of modern life and as a growing environmental pollutant, has been widely described. Their distribution in both the terrestrial and marine realms suggests that they are a key geological indicator of the Anthropocene, as a distinctive stratal component. Most immediately evident in terrestrial deposits, they are clearly becoming widespread in marine sedimentary deposits in both shallow- and deep-water settings. They are abundant and widespread as macroscopic fragments and virtually ubiquitous as microplastic particles; these are dispersed by both physical and biological processes, not least via the food chain and the ‘faecal express’ route from surface to sea floor. Plastics are already widely dispersed in sedimentary deposits, and their amount seems likely to grow several-fold over the next few decades. They will continue to be input into the sedimentary cycle over coming millennia as temporary stores – landfill sites – are eroded. Plastics already enable fine time resolution within Anthropocene deposits via the development of their different types and via the artefacts (‘technofossils’) they are moulded into, and many of these may have long-term preservation potential when buried in strata.
Keywords: Anthropocene; Plastics; Stratigraphy

http://www.globalgarbage.org.br/mailinglist/S2213305416300029_In_Press_Accepted_Manuscript.pdf

Note to users:
Accepted manuscripts are Articles in Press that have been peer reviewed and accepted for publication by the Editorial Board of this publication. They have not yet been copy edited and/or formatted in the publication house style, and may not yet have the full ScienceDirect functionality, e.g., supplementary files may still need to be added, links to references may not resolve yet etc. The text could still change before final publication.

Although accepted manuscripts do not have all bibliographic details available yet, they can already be cited using the year of online publication and the DOI, as follows: author(s), article title, Publication (year), DOI. Please consult the journal’s reference style for the exact appearance of these elements, abbreviation of journal names and use of punctuation.

When the final article is assigned to volumes/issues of the Publication, the Article in Press version will be removed and the final version will appear in the associated published volumes/issues of the Publication. The date the article was first made available online will be carried over.

Jongmyoung Lee, Sunwook Hong, Young Kyung Song, Sang Hee Hong, Yong

Chang Jang, Mi Jang, Nak Won Heo, Gi Myung Han, Mi Jeong Lee, Daeseok
Kang, Won Joon Shim, Relationships among the abundances of plastic
debris in different size classes on beaches in South Korea, Marine
Pollution Bulletin, Volume 77, Issues 1–2, 15 December 2013, Pages
349-354, ISSN 0025-326X, http://dx.doi.org/10.1016/j.marpolbul.2013.08.013.
(http://www.sciencedirect.com/science/article/pii/S0025326X13004657)
Abstract: Plastic debris on six beaches near the Nakdong River Estuary, South Korea, was sampled in May and September 2012 and classified into three size classes, large microplastics (1–5 mm), mesoplastics (5–25mm), and macroplastics (>25 mm). The relationships among the abundances of the size classes were then examined. The abundances of each size category in May (before rainy season) and in September (after rainy season) were 8205 and 27,606 particles/m2 for large microplastics, 238 and 237 particles/m2 for mesoplastics, and 0.97 and 1.03 particles/m2 for macroplastics, respectively. Styrofoam was the most abundant item both in microplastic and mesoplastic debris, while intact plastics were most common in macroplastic debris. The abundances of meso- and micro-plastics were the most strongly correlated. There was a higher correlation between the abundances of macro- and meso-plastics than between macro- and micro-plastics.

 

Rui P. Vieira, Isabel P. Raposo, Paula Sobral, Jorge M.S. Gonçalves, Katherine L.C. Bell, Marina R. Cunha, Lost fishing gear and litter at Gorringe Bank (NE Atlantic), Journal of Sea Research, Available online 13 October 2014, ISSN 1385-1101, http://dx.doi.org/10.1016/j.seares.2014.10.005.
(http://www.sciencedirect.com/science/article/pii/S1385110114001774)
Abstract: Studies concerning marine litter have received great attention over the last several years by the scientific community mainly due to their ecological and economic impacts in marine ecosystems, from coastal waters to the deep ocean seafloor. The distribution, type and abundance of marine litter in Ormonde and Gettysburg, the two seamounts of Gorringe Bank, were analyzed from photo and video imagery obtained during ROV-based surveys carried out at 60–3015 m depths during the E/V Nautilus cruise NA017. Located approximately 125 nm southwest of Portugal, Gorringe Bank lays at the crossroad between the Atlantic and the Mediterranean and is therefore characterized by an intense maritime traffic and fishing activities. The high frequency of lost or discarded fishing gear, such as cables, longlines and nets, observed on Gorringe Bank suggests an origin mostly from fishing activities, with a clear turnover in the type of litter (mostly metal, glass and to a much lesser extent, plastic) with increasing depth. Litter was more abundant at the summit of Gorringe Bank (ca. 4 items·km− 1), decreasing to less than 1 item·km− 1 at the flanks and to ca. 2 items·km− 1 at greater depths. Nevertheless, litter abundance appeared to be lower than in continental margin areas. The results presented herein are a contribution to support further actions for the conservation of vulnerable habitats on Gorringe Bank so that they can continue contributing to fishery productivity in the surrounding region.
Keywords: Marine Litter; Fisheries; Impacts; Gorringe Bank; NE Atlantic; Seamounts

Note to users: Corrected proofs are Articles in Press that contain the authors’ corrections. Final citation details, e.g., volume and/or issue number, publication year and page numbers, still need to be added and the text might change before final publication.

Although corrected proofs do not have all bibliographic details available yet, they can already be cited using the year of online publication and the DOI , as follows: author(s), article title, Publication (year), DOI. Please consult the journal’s reference style for the exact appearance of these elements, abbreviation of journal names and use of punctuation.

When the final article is assigned to an volumes/issues of the Publication, the Article in Press version will be removed and the final version will appear in the associated published volumes/issues of the Publication. The date the article was first made available online will be carried over.

http://www.ivm.vu.nl/en/Images/Plastic%20ingredients%20in%20Cosmetics%2007-2014%20FINAL_tcm53-409859.pdf

Review of Microplastics in Cosmetics
Scientific background on a potential source of plastic particulate marine litter to support decision-making
H.A. Leslie, PhD

http://www.americanchemistry.com/Media/PressReleasesTranscripts/ACC-news-releases/Global-Plastics-Meeting.html

World’s Plastics Associations Promote Sustainability and Resource Recovery, and Renew Commitments to Marine Litter Solutions

ACC Contact: Jennifer Killinger (202) 249-6619
E-mail: jennifer_killinger@americanchemistry.com

PlasticsEurope Contact: Hanane Taidi, 32 2 676 17 40
E-mail: hanane.taidi@plasticseurope.org

PPIA Contact: Peter T. Quintana
E-Mail: secretariat.ppia@gmail.com

“World’s Plastics Associations Renew Commitments to Improve Sustainability”

Manila (December 12, 2014) – At the 25th annual Global Meeting on Plastics and Sustainability, held in Manila, Philippines (Dec. 8 – 10), executives from the world’s leading plastics associations met to discuss and advance sustainability, and to promote solutions to plastic waste management and marine debris. At the meeting, delegates noted strong progress and growth in activities undertaken as part of the Declaration of the Global Plastics Associations for Solutions on Marine Litter. Under that program, 60 associations from more than 30 countries have launched 185 separate projects to combat plastic marine debris.

At the meeting, participants also discussed strategies to address sustainability by improving the collection, recycling and recovery of energy from used plastics. Delegates heard from Doug Woodring of the NGO Ocean Recovery Alliance, who challenged the industry to work with other stakeholders and to deploy new technologies to better understand where litter is entering our rivers and waterways.

In addition to leading Philippine companies, meeting participants included plastics associations from the Philippines, Malaysia, Thailand, Japan, Brazil, the Gulf, Europe, South Africa, and the United States, who analyzed current projects to prevent litter and increase recycling of plastic.

http://www.earthcarers.org.au/blog/article/plasticfree-summer-festival-1617-jan-2015/127/

Plastic-Free Summer Festival (16&17 Jan 2015)

Friday 12th of December 2014

Did you know over five trillion pieces of plastic are floating in our oceans according to the most comprehensive study to date on plastic pollution around the world? It’s not just a problem overseas but also around Australia’s coastlines, and the sources are alarming.

Marine biologist Dr Jennifer Lavers has studied seabirds around the world, in particular looking at the impact of ingesting this plastic. As seen on the ABC Catalyst program Dr Lavers is a lead scientist looking at the impacts plastic pollution is having on wildlife in our oceans. Find out more about the problem, discuss solutions and be part of the change needed.

Organised by the WMRC Earth Carers, the City of Fremantle, Fremantle BID and the Town of Cottesloe this free 2 day community festival offers events for all ages.

http://www.marlisco.eu/news-detail.en/items/marlisco-e-course-about-marine-litter-second-edition.html

MARLISCO e-course about Marine Litter – second edition

2014-12-11 20:21
The second edition of the MARLISCO electronic course about marine litter, “Know, feel, act! to stop Marine Litter”, has been launched. It will run from the 09/01/2015 to the 20/01/2015.
The course is based on the educational material “Know, feel, act! to stop Marine Litter”, a MARLISCO product to be translated and applied in 15 countries by 2015. It contains 17 educational activities examining the characteristics, sources, effects and possible ways to tackle the problem, addressing it from an environmental, societal, cultural and economic point of view. It has been designed to primarily serve middle school level, but can be used also by educators outside the formal schooling system. The e-course serves as a substitute for a 1.5 day face-to-face seminar aiming to train participants on effective ways of teaching about marine litter issues.

http://www.abc.net.au/pm/content/2014/s4147069.htm

Scientists warn nearly 270,000 tonnes of plastic may be floating in world’s oceans

Stephanie Smail reported this story on Thursday, December 11, 2014 18:36:00

MARK COLVIN: It’s floating on the surface, bobbing just under the waves, strangling seabirds and killing fish. It’s plastic in the ocean, and a new study says there’s nearly 270,000 tonnes of it.

International scientists have counted and weighed tiny pieces of plastic, and bigger pieces like plastic bottles and six-pack holders, for the past six years.

Their research has found plastic pollution isn’t just a problem in the well-known garbage patches in remote areas. It’s also lurking close to coastlines, as Stephanie Smail reports.

http://mpegmedia.abc.net.au/news/audio/pm/201412/20141211-pm07-plasticsea.mp3

http://www.abc.net.au/environment/articles/2014/12/11/4146817.htm

No part of the ocean untouched by plastic rubbish

BY CHRISTOPHER DOYLE

ABC Environment 11 DEC 2014

A new study has found that plastic rubbish reaches into almost every corner of the ocean.

VIRTUALLY NO PART of the ocean surface remains untouched by plastic debris, a team of international scientists has found.

Nearly 269,000 tonnes of plastic debris is floating on the surface of the world’s oceans, with some of it occurring in some of the most remote regions of the planet, the scientists report today in the open-access journal PLoS One.

“There are areas of the ocean that have very little plastic, but I don’t think you will find plastic-free seas anywhere in the world today,” said Dr Marcus Eriksen, lead author of the study and Director of Research for the 5 Gyres Institute.

http://www.americanchemistry.com/Media/PressReleasesTranscripts/ACC-news-releases/Americas-Plastics-Makers-Support-Calls-to-Address-Litter-in-Worlds-Oceans.html

America’s Plastics Makers Support Calls to Address Litter in World’s Oceans

Contact: Jennifer Killinger (202) 249-6619
Email: jennifer_killinger@americanchemistry.com

WASHINGTON (December 10, 2014) – The Five Gyres Institute today released a study that estimates the quantities of plastics in the world’s oceans (“Plastic Pollution in the World’s Oceans: More than 5 Trillion Plastic Pieces Weighing over 250,000 Tons Afloat at Sea”).

The American Chemistry Council (ACC) issued the following statement:

“America’s plastics makers wholeheartedly agree that littered plastics of any kind do not belong in the marine environment. Every day, plastics contribute to sustainability by enabling us to reduce, reuse, recycle, and recover more of the resources that we rely on—and by helping to lower energy use and greenhouse gas emissions. Even after plastics have fulfilled their initial purpose, these materials should be treated as valuable resources and recycled whenever possible or recovered for their energy value when they cannot.

“Recent multi-stakeholder efforts to develop solutions for marine litter—including a brochure (2014) produced by the Joint Group of Experts on the Scientific Aspects of Marine Environmental Protection (GESAMP, an advisory group to the United Nations) and the Honolulu Strategy (2011)—have highlighted the importance of using modern, integrated waste management infrastructure and practices to combat marine litter throughout the globe. This includes recycling and energy recovery, and the American Chemistry Council’s Plastics Division and its member companies support these recommendations.

http://www.washingtonpost.com/blogs/wonkblog/wp/2014/12/10/good-job-humans-the-ocean-now-contains-5-trillion-pieces-of-floating-plastic/

Good job, humans: The oceans now contain 5 trillion pieces of floating plastic

By Chris Mooney December 10

A major new study of the world’s oceans has reached a shocking conclusion: Thanks to humans, there are now over 5 trillion pieces of plastic, weighing more than 250,000 tons, floating in water around the world.

With a global population of about 7.2 billion, that’s nearly 700 pieces per person.

The study, published in the journal PLOS One by Marcus Eriksen of the Five Gyres Institute in Los Angeles and a large group of colleagues, is based on data from 24 separate ocean expeditions, conducted between 2007 and 2013, to sample plastic pollution. Plastic was either observed from boats, or hauled up from the ocean by nets, in 1,571 locations. The data were then used to run an ocean model to simulate the amount and distribution of plastic debris.

The result not only yielded the estimate of over 5 trillion pieces of plastic in the global ocean — it also cast light on how plastic changes within the ocean (breaking down into smaller pieces) and circulates around the globe. Pieces between 1 millimeter and 4.75 millimeters in size were by far the most prevalent class of plastic in the ocean. However, by weight, really large pieces of plastic, greater than 200 millimeters in size, were the most significant.

http://www.nytimes.com/2014/12/11/science/new-research-quantifies-the-oceans-plastic-problem.html

Study Gauges Plastic Levels in Oceans

By JOHN SCHWARTZ DEC. 10, 2014

It is no secret that the world’s oceans are swimming with plastic debris — the first floating masses of trash were discovered in the 1990s. But researchers are starting to get a better sense of the size and scope of the problem.

A study published Wednesday in the journal PLOS One estimated that 5.25 trillion pieces of plastic, large and small, weighing 269,000 tons, could be found throughout the world’s oceans, even in the most remote reaches.

The ships conducting the research traveled the seas collecting small bits of plastic with nets and estimated worldwide figures from their samples using computer models. The largest source of plastic by weight comes from discarded fishing nets and buoys, said Marcus Eriksen, the leader of the effort and co-founder of the 5 Gyres Institute, a nonprofit group that combines scientific research with antipollution activism.

http://www.theguardian.com/environment/2014/dec/10/full-scale-plastic-worlds-oceans-revealed-first-time-pollution

Full scale of plastic in the world’s oceans revealed for first time

Over five trillion pieces of plastic are floating in our oceans says most comprehensive study to date on plastic pollution around the world

Oliver Milman
Wednesday 10 December 2014 19.00 GMT

More than five trillion pieces of plastic, collectively weighing nearly 269,000 tonnes, are floating in the world’s oceans, causing damage throughout the food chain, new research has found.

Data collected by scientists from the US, France, Chile, Australia and New Zealand suggests a minimum of 5.25tn plastic particles in the oceans, most of them “micro plastics” measuring less than 5mm.

The volume of plastic pieces, largely deriving from products such as food and drink packaging and clothing, was calculated from data taken from 24 expeditions over a six-year period to 2013. The research, published in the journal PLOS One, is the first study to look at plastics of all sizes in the world’s oceans.

Large pieces of plastic can strangle animals such as seals, while smaller pieces are ingested by fish and then fed up the food chain, all the way to humans.

http://time.com/3628392/microbead-ban-states/

Environmentalists Go to Battle Over Face Wash

Katy Steinmetz @katysteinmetz
Dec. 10, 2014

Environmentalists are hoping a landmark report about how much plastic is in the world’s oceans will help get bans on small plastics passed

Face washes claiming to be “blackhead erasers” or “superfruit scrubs” may seem appealing for scrubbing your way to a fresh new face, but some of them also contain an ingredient that environmental advocates and lawmakers are trying to ban. Tiny, round bits of plastic known as microbeads, no bigger than a grain of couscous, may pose hazards in the natural world.

These little orbs, introduced to replace harsher exfoliants like pumice, are so small that after they’re washed down the sink or tub, they sneak through sifters at water treatment plants and end up in the ocean and other bodies of water. Once in the ocean, researchers have found, these plastics act like sponges for toxins, and can be accidentally ingested by fish, thus ending up in the food chain.

Several states considered bills to ban microbeads last session, but only Illinois passed a law, becoming the first state to do so. Now lawmakers in at least three states are gearing up for another go in 2015.

http://www.abc.net.au/news/2014-11-28/autopsy-finds-plastic-bag-in-dolphin-stomach/5926650

Autopsy finds plastic bag in dolphin’s stomach after failed rescue

By Nonee Walsh
Posted 28 Nov 2014, 7:34am

A dolphin rescued off Sydney’s northern beaches earlier this week has been euthanased after becoming stranded for a second time.

It took six men to refloat the three-metre Risso’s dolphin after they found it in trouble on Curl Curl Beach on Monday.

The mature female dolphin went back out to sea but became stranded again at Kurnell, in Sydney’s south, on Tuesday evening.

An autopsy performed at Taronga Zoo revealed a plastic bag was blocking its stomach, Organisation for the Rescue and Research of Cetaceans in Australia (ORRCA) president Ronnie Ling said.