Our response to the Flint water crisis

22 06 2016


An editorial by Nicholas Kristof was published in the February 13, 2016, issue of the New York Times entitled: “Are you a Toxic Waste Disposal Site?” We think Mr. Kristof makes some great points, so we’ve published the entire editorial below:

EVEN if you’re not in Flint, Mich., there are toxic chemicals in your home. For that matter, in you.

Scientists have identified more than 200 industrial chemicals — from pesticides, flame retardants, jet fuel — as well as neurotoxins like lead in the blood or breast milk – of Americans, indeed, in people all over our planet.

These have been linked to cancer, genital deformities, lower sperm count, obesity and diminished I.Q. Medical organizations from the President’s Cancer Panel to the International Federation of Gynecology and Obstetrics have demanded tougher regulations or warned people to avoid them, and the cancer panel has warned that “to a disturbing extent, babies are born ‘pre-polluted.’”

They have all been drowned out by chemical industry lobbyists.

So we have a remarkable state of affairs:

■ Politicians are (belatedly!) condemning the catastrophe of lead poisoning in Flint. But few acknowledge that lead poisoning in many places in America is even worse than in Flint. Kids are more likely to suffer lead poisoning in Pennsylvania or Illinois or even most of New York State than in Flint. More on that later.

■ Americans are panicking about the mosquito-borne Zika virus and the prospect that widespread infection may reach the United States. That’s a legitimate concern, but public health experts say that toxic substances around us seem to pose an even greater threat.

“I cannot imagine that the Zika virus will damage any more than a small fraction of the total number of children who are damaged by lead in deteriorated, poor housing in the United States,” says Dr. Philip Landrigan, a prominent pediatrician and the dean for global health at the Icahn School of Medicine at Mount Sinai. “Lead, mercury, PCBs, flame retardants and pesticides cause prenatal brain damage to tens of thousands of children in this country every year,” he noted.

Yet one measure of our broken political system is that chemical companies, by spending vast sums on lobbying— $100,000 per member of Congress last year — block serious oversight.[1] Almost none of the chemicals in products we use daily have been tested for safety.

Maybe, just maybe, the crisis in Flint can be used to galvanize a public health revolution.

In 1854, a British doctor named John Snow started such a revolution. Thousands were dying of cholera at the time, but doctors were resigned to the idea that all they could do was treat sick patients. Then Snow figured out that a water pump on Broad Street in London was the source of the cholera[2]. The water company furiously rejected that conclusion, but Snow blocked use of the water pump, and the cholera outbreak pretty much ended. This revelation led to the germ theory of disease and to investments in sanitation and clean water. Millions of lives were saved.

Now we need a similar public health revolution focusing on the early roots of many pathologies.

For example, it’s scandalous that 535,000 American children ages 1 to 5 still suffer lead poisoning, according to the Centers for Disease Control and Prevention[3]. The poisoning is mostly a result of chipped lead paint in old houses or of lead-contaminated soil being tracked into homes, although some areas like Flint also have tainted tap water. (Note:  fabrics often contain lead in the dyes used and as a catalyst in the dyeing process.)

lead paint

While the data sets are weak, many parts of America have even higher rates of child lead poisoning than Flint, where 4.9 percent of children tested have had elevated lead levels in their blood. In New York State outside New York City, it’s 6.7 percent. In Pennsylvania, 8.5 percent. In parts of Detroit, it’s 20 percent. The victims are often poor or black.[4]

Infants who absorb lead are more likely to grow up with shrunken brains and diminished I.Q.[5] They are more likely as young adults to engage in risky sexual behavior, to disrupt school and to commit violent crimes. Many researchers believe that the worldwide decline in violent crime beginning in the 1990s is partly a result of lead being taken out of gasoline in the late 1970s. The stakes are enormous, for individual opportunity and for social cohesion.

Fortunately, we have some new Dr. Snows for the 21st century.

A group of scholars, led by David L. Shern of Mental Health America, argues that the world today needs a new public health revolution focused on young children, parallel to the one mounted for sanitation after Snow’s revelations about cholera in 1854. Once again, we have information about how to prevent pathologies, not just treat them — if we will act.

The reason for a new effort is a vast amount of recent research showing that brain development at the beginning of life affects physical and mental health decades later. That means protecting the developing brain from dangerous substances and also from “toxic stress”— often a byproduct of poverty — to prevent high levels of the stress hormone cortisol, which impairs brain development.

A starting point of this public health revolution should be to protect infants and fetuses from toxic substances, which means taking on the companies that buy lawmakers to prevent regulation. Just as water companies tried to obstruct the 19th-century efforts, industry has tried to block recent progress.

Back in 1786, Benjamin Franklin commented extensively on the perils of lead poisoning, but industry ignored the dangers and marketed lead aggressively. In the 1920s, an advertisement for the National Lead Company declared, “Lead helps to guard your health,” praising the use of lead pipes for plumbing and lead paint for homes. And what the lead companies did for decades, and the tobacco companies did, too, the chemical companies do today.


Lead poisoning is just “the tip of the iceberg,” says Tracey Woodruff, an environmental health specialist at the University of California at San Francisco. Flame-retardant chemicals have very similar effects, she says, and they’re in the couches we sit on.

The challenge is that the casualties aren’t obvious, as they are with cholera, but stealthy and long term. These are silent epidemics, so they don’t generate as much public alarm as they should.

“Industrial chemicals that injure the developing brain” have been linked to conditions like autism and attention deficit hyperactivity disorder, noted The Lancet Neurology, a peer-reviewed medical journal. Yet we still don’t have a clear enough sense of what is safe, because many industrial chemicals aren’t safety tested before they are put on the market. Meanwhile, Congress has dragged out efforts to strengthen the Toxic Substances Control Act and test more chemicals for safety.

The President’s Cancer Panel recommended that people eat organic if possible, filter water and avoid microwaving food in plastic containers. All good advice, but that’s like telling people to avoid cholera without providing clean water.

And that’s why we need another public health revolution in the 21st century.


[1] http://www.opensecrets.org/lobby/indusclient.php?id=N13&year=2015

[2] http://www.bbc.co.uk/history/historic_figures/snow_john.shtml

[3] http://www.cdc.gov/mmwr/preview/mmwrhtml/mm6213a3.htm

[4] http://www.nytimes.com/2016/02/07/opinion/sunday/america-is-flint.html

[5] http://journalistsresource.org/studies/society/public-health/lead-poisoning-exposure-health-policy?utm_source=JR-email&utm_medium=email&utm_campaign=JR-email&utm_source=Journalist%27s+Resource&utm_campaign=63b82f94eb-2015_Sept_1_A_B_split3_24_2015&utm_medium=email&utm_term=0_12d86b1d6a-63b82f94eb-79637481


Is there a safe stain repellent?

25 05 2016

Have a look at our new retail website, http://www.twosistersecotextiles.com!

We haven’t talked about stain repellents for a few years (we last published a blog on the subject 4 years ago) and think it’s time to revisit the topic because of all the claims that some companies are making about “safe” stain repellents.

Here’s why stain repellents are simply doing us no good: All stain repellent finishes used in textiles are based on fluorotelomer chemistry – which means it pertains to chemicals which become  perfluorocarbons (PFCs) when they are released into the environment.   PFC’s  break down in the body and in the environment to  perfluorooctanoic acid (PFOA), perfluorooctanyl sulfate (PFOS) and similar chemicals.  These are among the most persistent synthetic chemicals known to man. Scientists noticed in the 1970s that PFOS  was showing up everywhere: in polar bears, dolphins, baby eagles, tap water and human blood. So did its cousin PFOA.    These two man-made perfluorochemicals (PFOS and PFOA) don’t decompose in nature. They kill laboratory rats at higher doses, and are toxic to humans, with health effects ranging from birth or developmental effects, to the brain and nervous system, immune system (including sensitization and allergies) and some forms of cancer.  Once they are in the body, it takes decades to get them out – assuming you are exposed to no more. According to Our Stolen Future, the “PFOS story is likely to emerge as one of the apocryphal examples of 20th century experimentation with widespread chemical exposures: prolific use and almost no testing for safety, until unexpectedly and almost serendipitously, it is discovered as a contaminant virtually everywhere. And as is often the case in these stories, the company producing PFOS products possessed information hinting at its risks but chose not to share their data with regulators or the public for years.”[1]

Every American who has been tested for these chemicals have these hyper-persistent, toxic chemicals in their blood.[2] A growing number of researchers believe that fabric-based, stain-resistant coatings, which are ubiquitous, may be the largest environmental source of this controversial chemical family of PFCs. So now you will find companies advertising that they can provide stain repellents that “are free of harmful levels of” PFOS (perfluorooctane sulphonate) or PFOA (perfluorooctanoic acid). What does that mean?

The PFC family is a group of man-made chemicals created using perfluoroalkyl acids (PFAA), all of which have a carbon backbone, with atoms of fluorine attached to them.  The PFAA’s are known as C4 to C14:   the numbers denote how many carbon atoms are present. Those with 8 or more carbon atoms are known as the “long-chain” PFC’s; PFOS and PFOA are two of the most common C8s. Those with fewer than 8 carbon atoms are called “short-chain” PFCs. The carbon-fluorine bonds in these chemicals are very, very strong and are resistant to high temperatures, acidic and alkaline solutions, and other environmental factors. In general, the longer the carbon chain, the more potent and persistent the chemical. The same chemistry that makes these chemicals so potent and useful also means they stick around for a long time in the environment and have the potential for wide-ranging and long-term health and environmental effects.

In January 2006, the U.S. Environmental Protection Agency (EPA) approached the eight largest fluorocarbon producers and requested their participation in the 2010/15 PFOA Stewardship Program. They wanted these manufacturers to commit to reduce PFOA and related chemicals globally in both facility emissions and product content by 95% by 2010, and 100% by 2015. Although the amount  of PFOA in finishing formulations has been greatly diminished and continues to go down, even parts per trillion are detectable.

So finishing formulators continue to evaluate new materials which can eliminate PFOA while maintaining performance – but a solution is still over the horizon.  One critical piece in this puzzle is that PFOA is also produced indirectly through the gradual breakdown of fluorotelomers – so a stain resistant finish may be formulated with no detectable amounts of PFOA yet STILL produce PFOA when the chemicals begin to decompose.

Since the EPA mandated that textile treatments can no longer contain these specific compounds, the industry is now using “short-chain” PFCs – C6 and C4 chemistries. These chemicals are considered safer because they are not as persistent or bioaccumulative as C8 – but there is little human data to support these contentions. Because these chemicals haven’t received as much scrutiny as their cousins, environmentally aware designers may wonder if we are substituting the devil we don’t know for the devil we know.

3M, which produces Scotchgard, was the first company to switch to the new C4 chemistry by using perfluorobutane sulfonate (PFBS). According to 3M, the results show that under federal EPA guidelines, PFBS isn’t toxic and doesn’t accumulate the way the old chemical did. It does persist in the environment, but 3M concluded that isn’t a problem if it isn’t accumulating or toxic. PFBS can enter the bloodstream of people and animals but “it’s eliminated very quickly” and does no harm at typical very low levels, said Michael Santoro, 3M’s director of Environmental Health, Safety & Regulatory Affairs.[3]

But it’s also less effective, so more of the chemical has to be used to achieve the same result.  The smaller the fluorocarbon, the more rapidly it breaks down in the environment.  Unfortunatley, the desired textile performance goes down as the size of the perfluorocarbon goes down. Now most textiles are finished with C6 chemistry, which produces a by-product called PFHA (perfluorohexanoic acid), which  is supposed to be 40 times less bioaccumulative than PFOA.  “C6 is closest chemically to C8, and it contains no PFOA. It breaks down in the environment – a positive trait – but it doesn’t stick as well to outerwear and it doesn’t repel water and oil as well as C8, which means it falls short of meeting a vague industry standard, as well as individual company standards for durability and repellency.”[4]

PFCs are available as branded products, such as Crypton Green, or generic, unbranded treatments sold through fabric finishers.   Nanotechnology is one way to increase the performance of a fabric; Nano-Tex, Nano-Sphere and GreenShield all use C6 chemistry that is engineered using nanotechnology.

An aside about Crypton Green:  Crypton Green is simply the same chemicals as are used in normal Crypton finishes, but they must be applied to what they consider “green” fiber choices:

  • 50-100% recycled polyesters (with no requirement that they be certified GRS fibers)
  • 100% heavy metal free polyester
  • 100% wool dyed using metal free dyes
  • 100% polypropylene.

Crypton Green uses an immersion bath of C6 PFCs and silver ion technology (a form of nano engineering). After heat curing, the fabrics are then coated twice with an acrylic-based backing that contains stain blockers and biocides. This is bad for human health in so many ways:

  • The key ingredient of acrylic fiber is acrylonitrile, (also called vinyl cyanide). It is a carcinogen (brain, lung, bowel and breast cancers[5]) and a mutagen, targeting the central nervous system.  According to the Centers for Disease Control and Prevention, acrylonitrile enters our bodies through skin absorption, as well as inhalation and ingestion. 
    • Acrylic manufacturing involves highly toxic substances which require careful storage, handling, and disposal. The polymerization process can result in an explosion if not monitored properly. It also produces toxic fumes. Recent legislation requires that the polymerization process be carried out in a closed environment and that the fumes be cleaned, captured, or otherwise neutralized before discharge to the atmosphere.[6]
    • Acrylic is not easily recycled nor is it readily biodegradable. Some acrylic plastics are highly flammable and must be protected from sources of combustion.
  • The CDC has concluded that there is little evidence that biocides and antimicrobials (including silver ion technology) are effective in controlling disease and infection.[7] All manufacturers claim that their antimicrobials are safe for humans – but healthcare giant Kaiser Permanente no longer specifies carpet or textiles with antimicrobials.
  • The introduction of nano-engineering is a big question mark. We support the promises that nanotechnology can bring to us. And yet: The unknowns are great, and as Eric Drexler has said, the story involves a tangle of science and fiction linked with money, press coverage, Washington politics and sheer confusion.  Scientists and governments agree that the application of nanotechnology to commerce poses important potential risks to human health and the environment, and those risks are unknown. There are almost no publications on the effects of engineered nanoparticles on animals and plants in the environment. As a result of these concerns, in September, 2009,  the U.S. EPA  announced a study of the health and environmental effects of nanomaterials – a step many had been advocating for years.  And this isn’t happening any too soon:  more than 1,000 consumer products containing nanomaterials are available in the U.S. and more are added every day.

Back to our subject: The companies that make these new C6 treatments tout the safety of the new short-chain PFC, yet the Cradle to Cradle program no longer certifies any products which contain PFCs – of any number. By contrast, Chrstopher Lau, Ph.D., a leading biologist at the EPA, says ”what we’ve found is that short chains don’t have the PBT problems the longer chains have—they might be ‘P’ (persistent) but they are not ‘B’ (bioaccumulative) and definitely not ‘T’ (toxic)”. It may be too soon to write off bioaccumulation and toxicity altogether, though, according to Lau. He agrees that short-chain PFCs are not as bioaccumulative as C8s, but he cautions that there is little human data to draw other conclusions.

Given the fact that, despite industry assurances that the C6 chemistry is not toxic or bioaccumulative, it is nevertheless persistent in the environment. And given the number of times the EPA has failed to protect consumers – most recently regarding Monsanto’s Roundup (which the World Health Organization has deemed a “probable carcinogen”) – I think I’d rather err on the side of not putting a substance (such as C6 that needs more study to determine toxicity) on my sofa.


[1] http://www.ourstolenfuture.org/newscience/oncompounds/pfos/2001-04pfosproblems.htm ALSO see EPA assessment: http://www.chemicalindustryarchives.org/dirtysecrets/scotchgard/pdfs/226-0629.pdf#page=2

[2] https://www2.buildinggreen.com/article/chemicals-our-carpets-and-textiles

[3]Kaunig, James, et al., “Evaluation of the Chronic Toxicity and Carcinogenicity of Perfluorohexanoic Acid (PFHA) in Sprague-Dawley Rats”, Toxicologic Pathology, February 2015, vol. 43 no. 2; 209-220.

[4] PFOA Puzzle – Textile Insights — http://www.textileinsight.com/articles.php?id=37

[5] Occupational and Environmental Medicine 2010, 67:263-269 doi: 10.1136/oem.2009.049817  (abstract: http://oem.bmj.com/content/67/4/263.abstract)  SEE ALSO:  http://www.breastcancer.org/risk/new_research/20100401b.jsp AND http://www.medpagetoday.com/Oncology/BreastCancer/19321

[6] http://www.madehow.com/Volume-2/Acrylic-Plastic.html

[7] https://www2.buildinggreen.com/article/chemicals-our-carpets-and-textiles

To polyester or not to polyester

19 04 2016

Give our retail website, Two Sisters Ecotextiles, a look and let us know what you think.

We are pondering about whether to sell polyester fabrics – largely because people are insisting on it. And there is a lot of polyester being produced:

polyester production

But, when (or if) we sell polyester fabric or blends, we have determined that the fabric must be GRS Gold level certified polyester, because:

  1. GRS is to synthetics as GOTS is to natural fibers.  It is our assurance:
    1. that there is water treatment in place,
    2. that no toxic additives are used as process chemicals, and no finishes (such as fire retardants or stain repellants) are added to the fabric,
    3. and that workers have basic rights.
  2. GRS provides verified support for the amount of recycled content in a yarn. It provides a track and trace certification system that ensures that the claim a fabric is made from recycled polyester can be officially backed up. Today, the supply chains for recycled polyester are not transparent, and if we are told that the resin chips we’re using to spin fibers are made from bottles – or from industrial scrap or old fleece jackets  – we have no way to verify that.  Once the polymers are at the melt stage, it’s impossible to tell where they came from.  So the yarn/fabric could be virgin polyester or it could be recycled.   Many so called “recycled” polyester yarns may not really be from recycled sources at all because – you guessed it! – the  process of recycling is much more expensive than using virgin polyester.  Unfortunately not all companies are willing to pay the price to offer a real green product, but they sure do want to take advantage of the perception of green.   So when you see a label that says a fabric is made from 50% polyester and 50% recycled polyester – well, (until now) there was absolutely no way to tell if that was true. In addition,

The Global Recycle Standard (GRS), originated by Control Union and now administered by Textile Exchange (formerly Organic Exchange), is intended to establish independently verified claims as to the amount of recycled content in a yarn, with the important added dimension of prohibiting certain chemicals, requiring water treatment and upholding workers rights, holding the weaver to standards similar to those found in the Global Organic Textile Standard:

  • Companies must keep full records of the use of chemicals, energy, water consumption and waste water treatment including the disposal of sludge;
  • All prohibitied chemicals listed in GOTS are also prohibited in the GRS;
  • All wastewater must be treated for pH, temperature, COD and BOD before disposal (It’s widely thought that water use needed to recycle polyester is low, but who’s looking to see that this is true?  The weaving, however, uses the same amount of water (about 500 gallons to produce 25 yards of upholstery weight fabric) – so the wastewater is probably expelled without treatment, adding to our pollution burden)
  • There is an extensive section related to worker’s rights.

Polyester is much (much, much, much!) cheaper than natural fibers and it wears like iron – so you can keep your sofa looking good for 30 years. The real question is, will you actually keep that sofa for 30 years?

There is still a problem with the production of synthetics. Burgeoning evidence about the disastrous consequences of using plastic in our environment continues to mount. A new compilation of peer reviewed articles, representing over 60 scientists from around the world, aims to assess the impact of plastics on the environment and human health [1] But synthetics do not decompose: in landfills they release heavy metals, including antimony, and other additives into soil and groundwater. If they are burned for energy, the chemicals are released into the air.

Also please keep in mind, that, if you choose a synthetic, then you bypass the benefits you’d get from supporting organic agriculture, which may be one of our most potent weapons in fighting climate change, because:

    1. Organic agriculture acts as a carbon sink: new research has shown that what is IN the soil itself (microbes and other soil organisms in healthy soil) is more important in sequestering carbon that what grows ON the soil. And compared to forests, agricultural soils may be a more secure sink for atmospheric carbon, since they are not vulnerable to logging and wildfire. The Rodale Institute Farming Systems Trial (FST) soil carbon data (which covers 30 years) demonstrates that improved global terrestrial stewardship–specifically including regenerative organic agricultural practices–can be the most effective currently available strategy for mitigating CO2 emissions.
    2. It eliminates the use of synthetic fertilizers, pesticides and genetically modified organisms (GMOs) which is an improvement in human health and agrobiodiversity
    3. It conserves water (making the soil more friable so rainwater is absorbed better – lessening irrigation requirements and erosion)
    4. It ensures sustained biodiversity

We’re not great fans of synthetics: Polyester is made from crude oil, and is the terminal product in a chain of very reactive and toxic precursors.   The manufacturing process requires workers and our environment to be exposed to some or all of the chemicals produced during the manufacturing process. There is no doubt that the manufacture of polyester is an environmental and public health burden that we would be better off without.

But there is a great quantity of existing polyester on this Earth, and there is only so much farmland that is available for cotton and other fiber crops, even though we have enough land to grow all the food and fiber we like, at least in theory.[2]

The biggest drawback to polyester production is that it requires a lot of energy, which means burning fuel for power and contributing to climate change. But to put that in perspective, Linda Greer, director of the health program at the Natural Resources Defense Council, says you actually release more carbon dioxide burning a gallon of gas than producing a polyester shirt.

However factories where polyester is produced which do not have end-of-pipe wastewater treatment systems release antimony along with a host of other potentially dangerous substances like cobalt, manganese salts, sodium bromide, and titanium dioxide into the environment.

In theory, cotton is biodegradable and polyester is not. But the thing is, the way we dispose of clothing makes that irrelevant. For cotton clothes to break down, they have to be composted, which doesn’t happen in a landfill.

The bottom line is that while the rise of polyester is not good news for the planet, a big increase in cotton production wouldn’t be any better, according to many sources: Both fabrics are created in huge factory plants, both go trough multiple chemical processes to make the final product, and both will be shipped around the globe.         (https://www.sewingpartsonline.com/blog/411-cotton-vs-polyester-pros-cons/)

But we keep returning to one point: there are already polyester bottles in existence. World demand for polyester in 2014 was a bit more than 46 million tons.[3] Only a small percentage of that is used for bottles, but that’s still a lot of bottles – in the United States, more than 42 billion bottles of water (only water!) were produced in 2010.[4] Doesn’t it make sense to re-use some of these bottles?

Mulling over the possibilities. Let us know how you feel.

[1] “Plastics, the environment and human health”, Thompson, et al, Philosophical Transactions of the Royal Society, Biological Sciences, July 27, 2009

[2] Atkisson, Alan, “Food, Fuel and Fiber? The Challenge of Using the Earth to Grow Energy”, December 2008, worldchanging.com

[3] Carmichael, Alasdair “Man made Fibers Continue to Grow”, Textile World, http://www.textileworld.com/Issues/2015/_2014/Fiber_World/Man-Made_Fibers_Continue_To_Grow

[4] http://www.container-recycling.org/images/stories/BUfigures/figure-pngs-new/figure4.png

One journey

17 03 2016

We received this story from a reader, Stacey Skold, who is working on her PhD at the University of Nebraska-Lincoln.  Her area of study is Human Sciences. With the birth of her daughter, she learned about the impact of chemicals on children and our world generally. She subsequently applied environmental education to her studies in the Department of Textiles, Merchandising, and Fashion Design.  She will have an exhibition, “Canary Concepts and the Hidden Danger of Ubiquitous Things”  from April 11, 2016 through April 22 at the Hillestad Textiles Gallery at the University of Nebraska-Lincoln.   This is in partial fulfillment of her dissertation research, “Ecological Art as a Transformative Tool in Cultilvating Environmental Knowledge, Environmental Sensitivity, and Environmentally-Responsible Behaviors.”  But let her speak for herself:

The After:

…Like the albatross, we first-world humans find ourselves lacking the ability to discern anymore what is nourishing from what is toxic to our lives and our spirits. Choked to death on our waste, the mythical albatross calls upon us to recognize that our greatest challenge lies not out there, but in here.  Chris Jordan. February, 2011

There are events in life that are transformative…

They are a select few. They separate what was before from “the after”.  They change our lives so deeply that the world after is new…

You might be wondering what this has to do with textiles… It so happens that thinking critically about fabric, the textile industry, and the world in general has become a big part of “my after”…  For many, such events might be birth, death, or marriage… Or it might be something unexpected… My After event involves my oldest daughter.

She was an early bird. That is a light-hearted way of saying she was a preemie. At thirty-four weeks, her lungs needed more time. Having a baby in a neonatal intensive care unit (NICU) was an intense experience; her first days of life were close to death. It changed us as did the complexity of the neonatal experience overall.

Close to her due date, we brought her home—home with a heart monitor, oxygen tank, and a lot of love—love tempered with a certain amount of anxiety about caring for our baby girl whose needs were met exclusively by equipment and a team of NICU nurses her first month of life. We never learned exactly why she was early, and over time, she still had trouble breathing. Other things were challenging such as hearing, eating, talking, digesting, growing, and even recovering from a cold… We acquired multiple doctors and diagnoses. I grew not to care about the labels as long as they got us some kind of help. But nothing really seemed to help.

Her birth was certainly a transformative life experience. But for us, it was a blood test that turned our world upside down—it began “our after”…She had a lot of them. I didn’t keep track, and she didn’t even cry anymore… As always, I squeezed her free hand, smiled, and said “you are a tough cookie”. I was proud—very proud—very very proud of her. But truth-be-told, I was equally sad. I was the one who was going to cry. And many times I did when she was sleeping. Should one so young need to be so tough?

But this blood draw was different. These tests were different…

We hit that point.

Our before was filled with questions without answers even with a multitude of doctors. The antibiotics, steroids, and bronchodilators seemed to catalyze more of the same. It is a point when people begin to consider the other biomedical doctors. Their tests were new to me. They involved my daughter’s liver enzymes, her vitamin and minerals, her methylation pathway as well as heavy metals. We soon learned that her vitamin and mineral levels were down and other levels were up… others including antimony.

I wasn’t entirely sure what it was… or why she would have it in her body. I also wondered why it was up and why her minerals would be down. She was drinking prescribed pediatric drinks packed full of vitamins and minerals, and I certainly would not feed her anything that would hurt her or allow anything dangerous in our home… or so I thought. These were questions with answers. When it came to the antimony, I remember the doctor nonchalantly saying “…oh yeah, that’s the flame retardants….”

That was IT. That was our event—and so began “our after”…. 

His words inspired a new set of questions… What possibly could be wrong with something made to protect my daughter and the rest of my family from fire? I came to learn that flame retardants (FRs) are a class of chemicals added to or bonded to materials or their surfaces to meet flammability standards and to delay the spread of fire. I also came to learn their efficacy is in question and that some are quite toxic.

This is where my story becomes a little less like a story and a little more technical for a while. But to understand why a toddler would have antimony in her body, we must consider science (and the lack of it) as well as legislation and money. I do understand if you want to skip a few paragraphs—10 to be exact. I hope I don’t lose you completely…

Back to Antimony…

So, why did she have antimony among other undesirable things in her little body… Antimony trioxide is a FR synergist with halogenated materials (Grund, 2005). This means that the antimony enhances the effect of the halogenated FRs commonly found in electronics, polyurethane foam, building insulation, wire, and cable. This also means that the antimony is the tip of the toxic iceberg…

There are multiple different FR compounds. Two major types are Organohalogenated FRs (compounds in which carbon is bonded to bromine, chlorine, or fluorine) and organophosphorous FRs (compounds in which carbon is bonded to phosphorous). These FRs are especially dangerous, as they are not chemically bonded and easily fall off the objects in the form of dust, which is easily ingested or inhaled. According to the Green Science Policy Institute, these chemicals are often toxic, persistent, and bioaccumulative in our bodies and the environment. All 21 chemicals globally banned as Persistent Organic Pollutants under the Stockholm Convention are organohalogens. The health risks related to these FRs include cancer as well as impaired reproduction, fetal and child development, and neurologic and immune system function (Green Science Policy Institute, Flame Retardants, 2014). In addition, the brominated-flame retardants (BFRs) are considered endocrine disrupting chemicals (EDCs). The endocrine system is responsible for our hormones, which are vital to all functions of life. EDCs impact our naturally-occurring hormones including estrogen, testosterone, growth hormones, insulin, and thyroid hormones in a variety of ways. This can affect our immune system, development, bonding behaviors and a wide range of other bodily functions (Landrigan & Etzel, 2014). Billions of pounds of EDCs are manufactured per year and include bisphenal A (BPA), certain pesticides, as well as the BFRs (Endocrinedxisruption.org).

These chemicals are ubiquitous, as FRs are found in a vast range of everyday objects ranging from mattresses and furniture to TVs and toys. While FRs were developed to improve safety, much scrutiny exists regarding their efficacy and health impact (Green Science Policy Institute, Flame Retardants, 2014).

We are Pre-polluted

As a result, humans are being born “pre-polluted”… Babies are not born with a clean slate… Even before birth, they are facing the challenges of modern life. In addition, to being exposed to toxins while in the womb, humans are also exposed immediately after birth in the form of breastmilk, as outlined in the Environmental Defense Study “PRE-POLLUTED: A report on the toxic substances in the umbilical cord blood of Canadian newborns” (2013). In a 1999 groundbreaking study, Swedish scientists found that women’s breast milk contained poly brominated diphenyl ether (PBDE). What is even more troubling is that while this EDC FR had been phased out, it has been doubling every five years since 1972. Even when it is no longer produced, a FR such as the PBDE, can be tenacious and impact humans, animals, and the environment decades after exposure (Meironyte, et al.,1999).

So, why is this stuff in our stuff?

FRs are not new. They have been used throughout history. The Chinese utilized vinegar and alum on wood and the Egyptians soaked grass and reeds in salt water to attempt to control fire-related disasters (Horocks, 2001). But it was the US petro-chemical revolution with the development of synthetic fibers that prompted FR legislation and their use on a wide scale. Synthetic fabrics are derived from petrochemicals, and petroleum is a fire accelerant. This change in conjunction with the increase in cigarette smoking laid the groundwork for numerous regulations and legislation mandating FRs in our products. Rather than utilizing natural fabrics, many of which are naturally flame resistant such as wool, the approach to minimizing fire-related injuries was to mandate FRs. They were required in furniture, electronics, clothing, and cars. Ironically, FRs do not necessarily slow down or prevent fires and when FR products burn the gas and smoke they produce is more toxic—especially to firefighters. This is why standards are changing and certain FRs are banned. But even when FRs are not required, they can be found in products, as the manufacturers still include them.

If FRs are so dangerous, how can they be allowed in all of our stuff?

In my before, I felt that the system and our government protected us. I thought that anything mandated on such a scale had to be safe. Unfortunately, that is not the case. The Toxic Substances Control Act (ToSCA) is the 1976 United States law that sets standards for the industry and is supposed to regulate chemicals to protect us. Unfortunately, this law is ineffective and outdated. The primary problem with ToSCA is that the government has to provide actual harm in order to control or replace a dangerous chemical. This is in contrast to other countries who must demonstrate that their products are safe before they are available to the public. As a result, chemical companies have been spending an immense amount of money developing FRs that could be made cheaply while increasing their marketing and lobbying efforts related to FRs. Even when one FR such as PBDE is proven to be harmful and removed from the market, it can be replaced with chemicals that may be equally or more toxic (Safer Chemicals Healthy Families, 2014).

These hazardous and multigenerational, toxic chemicals are ubiquitous. Humans are ingesting and breathing FRs in their homes, workplaces, and cars. Even before my daughter was born, it seems they surrounded us in our newly-built home in the insulation, new couch and bed, electronics, and our dust. After she was born, there were even more. They were in her pajamas, her mattress, floor mats, and car seat. The dust from these objects lands on the floor where she crawled and on the toys she played with and mouthed. These chemicals are especially pervasive in infant and children’s products. If that weren’t enough, infants and children have a lower threshold for toxic chemicals. Fetuses, infants, and children are more susceptible to such exposures than adults.

Children are not little adults…. 

This concept is more widely acknowledged thanks to groundbreaking books such as Textbook of Children’s Environmental Health (2014). Doctor-epidemiologist authors Philip Landrigan and Ruth Etzel devote an entire chapter to children’s “exquisite vulnerability to environmental exposures”. They explain how fetuses, infants, and children have proportionately greater exposures than adults to toxic chemicals on a body-weight basis. This is for various reasons. For one, their metabolism is immature so their ability to metabolize and excrete toxic chemicals is different. In addition, infants and children spend time in different locations and are exposed to more dust and vapors near the floor. They also put their hands and other objects in their mouths more and wash their hands less (Landrigan & Etzel, 2014).

Our skin is a primary means of toxin absorption….

While most are aware of toxic exposures via digestion and the lungs, the high permeability of our skin is an under-appreciated source. Unlike toxins that enter the body via the mouth and end up in the intestines where they are transported by the blood into the liver—the body’s detoxifier, toxins absorbed via the skin bypass the liver. According to toxicology specialist, Dr. Samuel Epstein, who is cited in Killer Clothes (2011), our skin is a primary means of toxin absorption. It is more permeable than the intestines, and a child’s skin is even thinner and more permeable than an adult’s. This makes synthetic and flame retardant-fabric especially problematic for them (Clement, 2011).

Varying thresholds for toxins…

Other individual differences account for varying thresholds for toxin exposure. In addition to liver function, genetics and variations in the Methylation Cycle mean differences in susceptibility. The Methylation Cycle is a biochemical pathway that manages or contributes to a wide range of crucial bodily functions, including: immune function, maintaining DNA, energy production, mood balancing, controlling inflammation, as well as detoxification. While knowing one’s genomic profile can be empowering, realizing that FRs were just the beginning was was disheartening. We are surrounded by a multitude of harmful chemicals found in everyday things… I learned that after pumping for fourteen months, her baby bottles contained BPA (another EDC). In addition, many of the toys she played with and mouthed had BPA as well as FRs. The tubing and bags among other equipment in the NICU contained phthalates, and the recommended sanitizer contained triclosan. Unfortunately, the list goes on. These and other chemicals such as my terbutaline shots to attempt to stop early labor, my daughter’s fluoride drops, and synergistic lasix and gentamicin meds for her lungs and potential infection were all given with good intentions, but more than likely also caused harm. We truly live in a world where it has become hard to distinguish what is healthful from what is harmful. What we think is helping could be hurting… or both.

Thus began the work of the new after… 

The more I learned, the angrier I became and the more overwhelmed I felt. The FRs were everywhere, but I was not about to let these invaders continue to take over my child, my family, my home, or my life. Never underestimate the power of an angry mother—especially one with unlimited access to caffeine and the internet.

We became very conscientiousness consumers.  I learned about avoiding and removing FRs as well as other chemicals. The amount of time I spent researching and assessing objects and consequently trying to remove or mitigate what others were putting in or on products in our house was disheartening to say the least… Ultimately, many of the things we bought for our daughter ranging from pajamas to floor mats—items purchased with the intent to comfort and protect her—had great potential to contribute to her poor health and challenges. I had researched and ultimately removed most of her pajamas from our home as well as her boppy and blankets. Many such items were heartfelt-gifts from family and friends.

Building a bubble…

We changed many of her toys, bottles, clothes, bedding as well as our food, utensils, dishes, pans, soap, sanitizer, clothes, pillows, sheets, and stores. While I couldn’t rid the world of FRs and other toxic chemicals, I thought I could at least rid our house of them and create a safe bubble for my family—or at least I would try…

Shopping became less enjoyable and more stressful. I simply did not buy toys or clothing without some level of research. And rather than looking for infant child pajamas that indicated they were flame retardant, I had to look for infant and pajama labels identifying that they were not flame retardant. How ironic that one should expect neurotoxins in what they buy unless it is states otherwise.

Over time, I concluded that I simply could not keep my family in a bubble and that a bubble was inadequate anyway. I realized this as I was encasing our mattresses in 6 millimeter food-grade polyethylene sheeting (PVC-free of course). Given the high price of organic mattresses, this option is popular for health-minded consumers. Initially one might consider encasing a mattress in plastic to protect the mattress. But I encased the mattress in this non-toxic plastic to protect her from the off-gassing chemicals. Although unsustainable, the polyethylene sheeting doesn’t off-gas, and applied correctly can protect the sleeper from the toxic chemicals in the mattress. The directions even specify where to cut the holes in the bottom side so the gases can exit away from one’s face…  Exhausted, I sat on the floor staring at the mattress… The process of encasing a mattress was not for sissies,… and neither was “the after.” It was War. The idea of one’s home being a protective bubble was no more. I couldn’t keep the invisible enemies out of our house and needed a bubble in my bubble. While I couldn’t keep my family in a bubble, I was going to be happy to keep my mattress in one.

Happy is an overstatement.

Truth be told, I was sad. I had a hard time identifying it with all of the anger, but it was there. Ultimately, I realized I was grieving in the after…

I was grieving the loss of a normal birth experience, and yes a normal baby. She wasn’t what I expected… She was more. It turns out much of  “the after” has been a gift. It has made us stronger and more resilient.

I was grieving the loss of our “normal” life.  The changes one has to make in attempting to minimize exposure to harmful chemicals impacts everything and everybody. The “war on chemicals” impacted our marriage, our jobs, our time, our mental stamina, and our sleep—or lack of it.

I was grieving the loss of my old self. I was a different person in “the after”. The person people liked to talk to at cocktail parties was gone. The person who went to cocktail parties was gone. The person who people liked was gone.

Most of all, I was grieving my loss of trust—trust in products, trust in the system, and trust in the world around us.

Such is life in “the after”…

My before was very safe and filled with trust. “The after” was uncertain and full of new responsibilities. I couldn’t count on our products, our food, our clothing, or our furniture to be safe. I could only count on me, and I wasn’t sure if I was up for the challenge. I’m not sure any person is truly up to such a challenge—the challenge of discerning what is safe from what is harmful in our world with invisible pollution.

The “new normal” 

Slowly we are all healing. Our family has grown in many ways… Navigating our way through the stuff is routine in a world where health problems are the norm and chemical-free products are not. We have not accepted it, but are finding productive ways to deal with it. We celebrate changes….changes such as Technical Bulletin 117-2013 (TB 117-2013), a new standard that allows fire safety without the need for FRs. We celebrate the increase in awareness from a variety of sources including the documentary Toxic Hot Seat as well as Kaiser Permanente’s public announcement that it will stop buying furniture treated with flame retardant chemicals (Green Science Policy Institute, Furniture, 2014). We also celebrate the increase in state legislation related to toxic chemicals. As of March 2016, 24 states are considering 91 policies to protect people from toxic chemicals. 159 state policies have been adopted in 33 states. In regard to FRs, there are 18 current policies in 13 states and 30 adopted policies in 12 states (Safer States, 2016).

With such changes, I have gained more trust trust back in the world and in the integrity of our bubble. I have become increasingly satisfied with minimizing our exposure and with doing my best. This is the gift of “the after”… a renewed confidence and understanding about our world and our selves with a new passion to protect them both.

We also celebrate each success with our daughter. She continues to be a tough cookie during those blood tests in “the after.” The results have enabled us to help her more effectively. With many changes and interventions her vitamins and minerals are up and so is her weight. She is healthier and happier than she has ever been. While we may never know to what degree the antimony and other chemical exposures played a role in her challenges, it has become clear that such chemicals are harmful to humans, wildlife, and our planet.

Like Chris Jordan’s albatross birds who eat and feed plastic pollution to their young, my daughter was polluted albeit invisible to the naked eye. His tragic birds and my early bird showed me what I knew in my before, but didn’t see until “our after.”

It got personal…

In The Failure of Environmental Education and How We Can Fix It (2011), authors Saylan and Blumstein point out that learning about our environmental problems hasn’t been enough to change our behaviors. People need relevance… the world’s problems need to become personal.

In my before I heard about toxins and knew there were concerns for humans and the environment. But for me, and I suspect others, even after reading it, hearing it, and knowing it, it couldn’t have become real until that transformative event—that blood test. The number on the paper was a physical manifestation of the invisible pollution. It became all too real and impossible to ignore or to think about at a later date. It is very real in “our after.”

The problem got personal for me, for many others before me, and is going to get personal for many others in the future. They too will change. There will be greater environmental sensitivity and more responsible behaviors. But for how many, how much, and how soon? To change our system and revise ToSCA, environmentalism needs to transcend what is considered a political concern to be a human health concern. To more effectively address what many consider “environmental” issues, perhaps we need a more human-centered focus.

We have been talking about saving the planet for a long time. But it may be in our best interest and our planets’ best interest to talk about saving ourselves—not to mention our children. In doing so, more will understand that the problems in our environment are intertwined with human health. When we are getting sick so is our wildlife, and so is our planet and so are our resources… And slowly we will heal—we have to… the human race depends upon it.

We are trying to give our children the tools to live in “the after.” In The Green Boat, Mary Pipher writes  “…If we don’t sail carefully and tend to those on board, we will perish. If we manage to keep our boat afloat, our world can sail on, not as it is today, but in a more joyous, peaceful, and beautiful way….” (2013). It is my hope we are fixing it enough for them—and even more for their children. I long for a world more beautiful than my before and “my after”—a world with fewer and safer chemicals, better legislation, and a whole lot more trust. That is a beautiful world.

After Words

Thank you O Ecotextiles and Two Sisters Ecotextiles for giving me a reason to write my story. But more importantly, thank you for being a part of “our after” providing us with exquisite fabrics we can trust.


Clement, Anna Maria & Brian R. (2011). Killer Clothes: How Seemingly Innocent Clothing Choices Endanger Your Health… And How to Protect Yourself! Summertown, TN: Hippocrates Publications.

The Endocrine Disruption Exchange. Prenatal Origins of Endocrine Disruption: Critical Windows of Development. Retrieved from http://endocrinedisruption.org/prenatal-origins-of-endocrine-disruption/critical-windows-of-development/chemicals-in-the-timeline/bisphenol-a

Environmental Defense. (2013, June). Pre-Polluted: A Report on Toxic Substances in the Umbilical Cord of Canadian Newborns. Retrieved from http://environmentaldefence.ca/prepolluted

Green Science Policy Institute. Flame Retardants. Retrieved from http://greensciencepolicy.org/topics/flame-retardants/

Green Science Policy Institute. Furniture. Retrieved from http://greensciencepolicy.org/topics/furniture/

Green Science Policy Institute. San Antonio Statement. Retrieved from http://greensciencepolicy.org/?s=san+antonio

Grund, S. C.; Hanusch, K.; Breunig, H. J. & Wolf, H. U. (2005). Antimony and Antimony Compounds, Ullmann’s Encyclopedia of Industrial Chemistry. Hoboken, NJ: John Wiley & Sons.

Horocks, A. & Price, D. (Eds.) (2001).Fire Retardant Materials. Boca Raton, FL: Woodhead Publishing Ltd.

Landrigan, P. & Etzel, R. (Eds.) (2014). Textbook of Children’s Environmental Health. New York, NY: Oxford University Press.

Meironyte, et al., (1999) Analysis of Polybrominated Diphenyl Ethers in Swedish Human Milk: A Time-Related Trend Study, 1972-1997. Journal of Toxicological Environmental Health, 58, 329-341.

MTHFR.net. Retrieved from http://mthfr.net/mthfr-research/2012/01/27/

Peeples, L. (2014, June 3). Kaiser Permanente Pledges To Stop Buying Flame-Retardant Furniture. Huffington Post. Retrieved from


Pipher, M. (2013). The Green Boat: Reviving Ourselves in Our Capsized Culture. New York, NY: Riverhead Books.

Safer Chemicals, Healthy Families. What is TSCA? Retrieved from http://saferchemicals.org/get-the-facts/what-is-tsca/

Safer States. Bill Tracker. Retrieved from http://www.saferstates.org/bill-tracker/

Saylan, C. & Blumstein, D. (2011). The Failure of Environmental Education (And How We Can Fix It). Berkeley, CA: University of California Press.

Stockholm Convention. Retrieved from http://chm.pops.int/Countries/StatusofRatifications/PartiesandSignatories/tabid/252/Default.aspx

Textile certifications

14 03 2016

Don’t forget to take a look at our new retail website (Two Sisters Ecotextiles) and let us know what you think.  We’re still working out some kinks so your input is really appreciated.

In the textile industry, there are two third party certifications which are transparent and to which we certify our fabrics: the Global Organic Textile Standard (GOTS) and Oeko-Tex. Another logo you see on our site is the GreenSpec logo. To be listed by GreenSpec means that the products are best of class as determined by Environmental Building News.

What does it mean for a fabric to be GOTS certified?

 The Global Organic Textile Standard, GOTS, was published in 2006. It was brought about through the combined efforts of organic trade associations of the United States, Great Britain, Japan, and Germany. GOTS aims to define a universal standard for organic fabrics—from harvesting the raw materials, through environmentally and socially responsible manufacturing, to labeling—in order to provide credible assurance to consumers. Standards apply to fiber products, yarns, fabrics and clothes and cover the production, processing, manufacturing, packaging, labeling, exportation, importation and distribution of all natural fiber products.   GOTS provides a continuous quality control and certification system from field to shelf.  A GOTS certified fabric is therefore much more than just a textile which is made from organic fibers.

gots-logo-middle-thumb-495x506    To be GOTS certified:

  • a fabric must be made of from 70% (for label grade “made with organic”)  to 95% (for label grade “organic”) organic fiber – so 5%  or 30% of the fabric can be either:
    • regenerated fibers from certified organic raw materials, sustainable forestry management (FSC / PEFC) or recycled.
    • certified recycled synthetic fibers (recycled polyester, polyamide, polypropylene or polyurethane)
    • Our GOTS fabrics are all 100% organic fiber.
  • As the GOTS website explains, “As it is to date technically nearly impossible to produce any textiles in an industrial way without the use of chemical inputs, the approach is to define criteria for low impact and low residual natural and synthetic chemical inputs.   So in addition to requiring that   all inputs have to meet basic requirements on toxicity and biodegradability. GOTS also  prohibits entire classes of chemicals.  Why is this important?  Because rather than calling out specific prohibited chemicals.  What that means is that instead of prohibiting, for example lead and cadmium (and therefore allowing other heavy metals by default), GOTS prohibits ALL heavy metals.
  • Wastewater treatment must be in place before discharge to surface waters. This pertains to pH and temperature, as well as to biological and chemical residues in the water.
  • Labor practices are interpreted in accordance with the International Labor Organization (ILO – no forced, bonded, or slave labor; workers have the right to join or form trade unions and to bargain collectively; working conditions are safe and hygienic; there must be no new recruitment of child labor (and for those companies where children are found to be working, provisions must be made to enable him to attend and remain in quality education until no longer a child);  wages paid must meet, at a minimum, national legal standards or industry benchmarks, whichever is higher; working hours are not excessive and inhumane treatment is prohibited. These requirements are incredibly important as it is still the 19th century at many fabric spinners, mills and dye houses in the world.
  • Environmentally sound packaging requirements must be in place; PVC in packaging is prohibited; paper must be post-consumer recycled or certified according to FSC or PEFC.
  • GOTS has a dual system of quality assurance consisting of on-side annual inspection (including possible unannounced inspections based on risk assessment of the operations) and residue testing.

Our opinion is  that the GOTS standard is the most comprehensive and rigorous certification regarding textiles. It’s also quite hard to obtain!

GOTS, however, does not directly address the carbon footprint of an organization or its production practices, but we feel a GOTS certified fabric is the best choice in terms of carbon footprint, by far.  (Please note: the choice of a fabric made of organically raised natural fibers has been shown to have a much lower carbon impact than any fabric made of synthetic fibers including the much touted recycled polyester.  We touched on that in our some of our blog posts; click here and here to read them.

Fabric made from organic fibers which have been processed conventionally can be – and almost always are – full of residual toxic chemicals – and its production may have released literally tons of chemicals into the environment; its carbon footprint stinks and worker safety is suspect. Think of the organic applesauce analogy we use: if you start with organic apples, then cook them with preservatives, emulsifiers, Red Dye #2, and stabilizers, the final product cannot be called “organic”.   Same is true with fabrics.

Fabric made with “organic fiber” but processed conventionally

GOTS compliant fabric


Uses organic fibers only




Free of any known chemicals that can harm you or the ecosystem



Water is treated before release



Workers paid fair wages; working conditions hygenic



To read more about GOTS, go to: http://www.global-standard.org

What does it mean for a fabric to be Oeko-Tex certified?       OT3The goal of Oeko-Tex fabric safety standard is to ensure that fabrics pose no risk to human health.

The Oeko-Tex Standard, in use since 1992, prohibits the same long list of chemicals that GOTS prohibits; but Oeko-Tex addresses nothing else about the production steps. For example, wastewater treatment is not required, nor are workers rights addressed.   It is NOT an organic certification and products bearing this mark are not necessarily made from organically grown fibers – or from natural fibers at all. Plastic yarn (polyester, nylon, acrylic) is permitted. Oeko-Tex is only concerned with the safety of the use of the final product.

The Oeko-Tex 100 certification does emphasize thorough testing for a lengthy list of chemicals which are known or suspected to harm health, including lead, antimony, arsenic, phthalates, pesticides, and chlorinated phenols. The official table of limits for tested chemicals may be found on the Oeko-Tex website (click here).  Specifically banned are:

  • Azo dyes
  • All flame retardants
  • Carcinogenic and allergy-inducing dyes
  • Pesticides
  • Chlorinated phenols
  • Chloro-organic benzenes and toluenes
  • Heavy metals
  • Organotin compounds (TBT and DBT)
  • Formaldehyde

Oeko-Tex certified fabrics are required to have a skin friendly pH. If you remember your high school chemistry, pH is the indication of the level of acidity or base (salt). Skin’s natural pH is a tad acidic, and when it’s eroded your defenses are down, leaving you vulnerable to bacteria, moisture loss, and irritation. Oeko-Tex certified fabrics will not create these stresses. And the fabrics will feel lovely against your skin.

Textiles considered for this standard are classified into four categories, and each category has different test values for chemicals allowed in the product:

  • Product Class I: Products for Babies – all textile products and materials used to manufacture such textile products for children up to the age of 36 months (leather clothing is an exception)
  • Product Class II: Products with direct contact to Skin – worn articles of which a large surface touches the skin (i.e. underwear, shirts, pants)
  • Product Class III: Products without Direct Contact to Skin – articles of which only a small part of their surface touches the skin (i.e. linings, stuffings)
  • Product Class IV: Decoration Material – this may also be thought of as housewares, as this category includes table cloths, wall coverings, furnishing fabrics, curtains, upholstery fabrics, floor coverings, and mattresses.

Certification may be given to a finished product (such as a shirt), or to individual components (such as yarn, or fabric).

To read more about Oeko Tex, go to: https://www.oeko-tex.com/en/manufacturers/manufacturers.xhtml

What does it mean for a product to be GreenSpec listed? Green Spec

BuildingGreen.com is the publisher of Environmental Building News (EBN) and the GreenSpec directory. GreenSpec was developed as a way to find products with environmental benefits in mind: GreenSpec listed products are those that are considered the best-of-the-best green building products, according to Environmental Building News.   The products are independently selected by the researchers at BuildingGreen to ensure that the products contain unbiased, quality information. This certification is in a sort of grey area, because the staff of Environmental Building News does not have a stake in any of the companies producing the recommended products, so they do not have a vested interest. They do have an interest in promoting products which they consider to be harmless to people and the environment.

The criteria which the products must meet include:

  • Avoidance of hazardous ingredients
  • Low-emitting
  • Biobased and sustainably sourced
  • Produced by companies which have responsible corporate practices
  • Information transparency

All of the fabrics in the Two Sisters collection are GreenSpec listed.



What’s wrong with Red Lists?

19 02 2016

Google should be applauded for requiring that all products used in their workplaces be compliant with the Living Building Challenge Red List. Because textiles are, by weight, approximately 27% synthetic chemicals, and because they surround you from the time you wake in the morning and throughout the night, they are a major contributor to our chemical body burden (changing us in unknown and unforeseen ways).   Make no mistake, we think it’s critical that we begin to develop these lists, because we all need a baseline. As long as we need to eat and breathe, toxins should be an important consideration.

But using a Red List only to evaluate a fabric overlooks what we consider to be the biggest problem.

First, lists for the most part are developed on the basis of science that usually occurred five or 10 years ago, so they tend to be lagging indicators of safety to humans and the environment. (That’s a minor point, admittedly, but can be important.)

When using lists, it’s important to remember the concept of reactive chemistry: many of the chemicals, though possibly deemed to be benign themselves, will react with other chemicals to create a third substance which  is toxic. This reaction can occur during the production of inputs, during the manufacture of the final product, or at the end of life (burning at the landfill, decomposing or biodegrading). So isn’t it important to know the manufacturing supply chain and the composition of all the products – even those which do not contain any chemicals of concern on the list you’re using – to make sure there are no, let’s say, … dioxins created during the burning of the product at the landfill, for example?

It’s also important to remember that chemicals are synergistic – toxins can make each other more toxic. A small dose of mercury that kills 1 in 100 rats and a dose of aluminum that will kill 1 in 100 rats, when combined, have a striking effect: all the rats die. So if the product you’re evaluating is to be used in a way that introduces a chemical which might react with those in your product, shouldn’t that be taken into consideration?

The Red List (like other lists trying to do the same thing), by attempting to address all product types, does not mention many of the toxic chemicals which ARE used in textile processing. Chemicals which are commonly used in textile processing, and which are NOT included on the Red List but have been found to be harmful, include:

Chlorine (sodium hypochlorite NaOCL); registered in the Toxic Substances Control Act as hypochlorous acid ; sodium chlorite
Sodium cyanide; potassium cyanide
sodium sulfate (Na2SO4)
Sodium sulfide
APEOs ( Alkylphenolethoxylates)
Chromium VI (hexavalent chromium)
pentachlorophenol (PCP)
Dichloromethane (DCM, methylene chloride)
Tetrachloroethylene (also known as perchloroethylene, perc and PCE)
Methyl ethyl ketone
Toluene: toluene diisocyanate and other aromatic amines
Methanol (wood alcohol)
Chloroform; methyl chloroform
Phosphates (concentrated phosphoric acid)
Dioxin – by-product of chlorine bleaching; also formed during synthesis of certain textile chemicals
Benzenes and benzidines; nitrobenzene; C3 alkyl benzenes; C4 alkyl benzenes
Sulfuric Acid
Optical brighteners: includes several hundred substances, including triazinyl flavonates; distyrylbiphenyl sulfonate
ethylenediaminetetra acetic acid [EDTA]
diethylenetriaminepenta     acetic acid [DTPA]
Perfluorooctane sulfonates (PFOS)

In the case of arsenic (used in textile printing and in pesticides) and pentachlorophenol (used as a biocide in textile processing) – the Red List expressly forbids use in wood treatments only – so fabrics, by default, can contain these chemicals.

Perhaps we should manufacture with a “green list” in mind: substituting chemicals and materials that are inherently safer, ideally with a long history of use (so as to not introduce completely new hazards).

But as I said at the outset, using the Red List ignores what we consider to be the most important aspect needing amelioration in textile processing – that of water treatment.

The chemicals used by the textile industry include many that are persistent and/or bioaccumulative which can interfere with hormone systems in people and animals and may be carcinogenic and reprotoxic, and the industry often ignores water treatment even when it is required (chasing the lowest cost).  So the costs of dumping untreated effluent into our water is incalculable.

But indeed, it does not even have to be a “toxic” chemical which wreaks environmental havoc – salt is the most commonly used chemical in textile processing. And nobody will argue that it’s toxic. Yet, the sheer quantity of salt used and expelled in wastewater is enormous – in Europe alone 1 million tons of salt are expelled each year. [1] That much salt is bad in many ways beyond killing aquatic organisms.

And the textile industry uses a LOT of water – it’s the #1 industrial polluter of water on the planet.[2] In India alone textile effluent averages around 425,000,000 gallons per day, largely untreated[3].   The chemically infused effluent – saturated with dyes, de-foamers, detergents, bleaches, optical brighteners, equalizers and many other chemicals – is often released into the local river, where it enters the groundwater, drinking water, the habitat of flora and fauna, and our food chain. And we wonder why PBDE’s are found in practically every animal on earth?

Please refer to the  campaign by Greenpeace  on their efforts to clean up textile effluent (called “Dirty Laundry”: http://www.greenpeace.org/international/Global/international/publications/toxics/Water%202011/dirty-laundry-report.pdf), which points the finger at compliant corporations who support what they call the “broken system”. It asks corporations to become champions for a post toxic world, by putting in place policies to eliminate the use and release of all hazardous chemicals across a textile company’s entire supply chain based on a precautionary approach to chemicals management, to include the whole product lifecycle and releases from all pathways.

To our knowledge there are only three certifications which look at both the chemical toxicity of the inputs and which require water treatment:

  1. GOTS (Global Organic Textile Standard)
  2. Oeko Tex 100 Plus
  3. and GRS (Global Recycle Standard)

The Cradle to Cradle certification does not require water treatment at ANY level except Platinum – and even at that level, the requirement is written as follows: “(the company must) implement innovative measures to improve quality of water discharges”.   Not one textile has been awarded the Platinum certification from C2C to date.


[1] Dyeing for a change: Current Conventions and New Futures in the Textile Color Industry (2006, July) http://www.betterthinking.co.uk

[2] Cooper, Peter, “Clearer Communication”, Ecotextile News, May 2007

[3] CSE study on pollution of Bandi river by textile industries in Pali town, Centre for Science and Environment, New Delhi, May 2006 and “Socio-Economic, Environmental and Clean Technology Aspects of Textile Industries in Tiruppur, South India”, Prakash Nelliyat, Madras School of Economics. See also:  Jacks Gunnar et al (1995), “The Environmental Cost of T-Shirts”, Sharing Common Water Resources, First Policy Advisory Committee Meeting, SIDA, Madras Institute of Development Studies, Chennai.

Also: CSE: Down to Earth Supplement on Water use in India, “To use or to misuse”; http://www.cseindia.org/dte-supplement/industry20040215/misuse.htm

Something proactive you can do for the environment right now!

28 01 2016

In October, 2015, the National Oceanic and Atmospheric Administration (NOAA) raised the alarm about the terrible plight facing the Earth’s coral reefs. For the third time in history, the world is in the midst of a global coral bleaching event.[1]   Coral bleaching is triggered by stresses on coral reefs. During bleaching, the coral expel the algae that live within them, exposing the coral’s white skeleton. The symbiotic algae not only provide coral with its color, they also provide crucial nutrients. Without them, the coral eventually will starve.

Coral Reefs: Secret Cities of the Sea logo

“The coral bleaching and disease, brought on by climate change and coupled with events like the current El Niño, are the largest and most pervasive threats to coral reefs around the world,” said Mark Eakin, NOAA’s Coral Reef Watch coordinator. “As a result, we are losing huge areas of coral across the U.S., as well as internationally. What really has us concerned is this event has been going on for more than a year and our preliminary model projections indicate it’s likely to last well into 2016.”

The difference between the third coral bleaching event and the previous two is that the current study points to pollution as one of the sources that is undermining the health of the coral, making it unable to resist bleaching or recover from the effects.

Why the concern about coral reefs? Aren’t they just pretty playfields?

“Coral reefs are the litmus test of our oceans, a visual representation of the health of our seas,” said CNN anchor and meteorologist Derek Van Dam. “When coral becomes bleached or white in color, this sensitive ecosystem is negatively impacted, which creates a profound ripple effect on the world’s food chain.”[2] Think of coral reefs as being the underwater equivalent of rainforests – they are some of the most diverse and valuable ecosystems on Earth. Coral reefs support more species per unit area than any other marine environment, including about 4,000 species of fish, 800 species of hard corals and hundreds of other species. Scientists estimate that there may be another 1 to 8 million undiscovered species of organisms living in and around reefs. This biodiversity is “considered key to finding new medicines for the 21st century,” NOAA said. “Many drugs are now being developed from coral reef animals and plants as possible cures for cancer, arthritis, human bacterial infections, viruses and other diseases.”

Storehouses of immense biological wealth, reefs also provide economic and environmental services to millions of people. Coral reefs may provide goods and services worth $375 billion each year. This is an amazing figure for an environment that covers less than 1 percent of the Earth’s surface

Coral reefs also act as a buffer to adjacent shorelines from wave action and prevent erosion, property damage and loss of life. Reefs also protect the highly productive wetlands along the coast, as well as ports and harbors and the economies they support. Globally, half a billion people are estimated to live within 100 kilometers of a coral reef and benefit from its production and protection.

A new study published October 20, 2015 [3] brought the bad news about pollution and the world’s dying corals. According to researchers the oft-overlooked threat to reefs worldwide is sunscreen – specifically sunscreen which contains oxybenzone.

Scientists who conducted their research in Hawaii and the U.S. Virgin Islands found that the chemical oxybenzone — used in more than 3,500 sunscreen products worldwide, including those by popular brands such as Coppertone, L’Oreal Paris, Hawaiian Tropic and Banana Boat — was extremely harmful to fragile coral reefs. There are alternative sunscreens with no oxybenzone provided by the non-profit Enironmental Working Group (click here for the EWG list) http://www.ewg.org/search/site/sunscreen

The researchers said even a tiny amount of oxybenzone-containing sunscreen can damage corals. As The Washington Post noted, “the equivalent of a drop of water in a half-dozen Olympic sized swimming pools[4] was sufficient to cause harm. Measurements of oxybenzone in seawater within coral reefs in Hawaii and the U.S. Virgin Islands found concentrations ranging fro 800 parts per trillion up to 1.4 parts per million,” according to the autors of the NOAA study. That’s 12 times the concentrations needed to harm coral. Adverse effects on coral started with concentrations as low as 62 parts per trillion.

John Fauth, an associate professor of biology at the University of Central Florida in Orlando, said that “another way (oxybenzone sunscreen) gets into the environment is through wastewater streams. People come inside and step into the shower. People forget it goes somewhere.” Cities such as Ocean City, Maryland and Fort Lauderdale, Florida, have built sewer outfalls that jettison tainted wastewater away from public beaches, sending personal care products with a cocktail of chemicals into the ocean. On top of that, sewer overflows during heavy rains spew millions of tons of waste mixed with stormwater into rivers and streams. Like sunscreen lotions, products like birth-control pills contain chemicals that are endocrine disruptors and alter the way organisims grow. Endocrine disruptors are amont the main suspects in an investigation into why mail fish such as bass are developing female organs.[5]

So I’m quite excited that this blog post has something – something – proactive that you can do, and that is to use “reef-friendly” sunscreen which uses titanium oxide or zinc oxide instead of oxybenzone. Some tourist destinations have even instituted sunscreen rules to protect their reefs. In Akumal, Mexico, for instance, visitors are urged to apply eco-friendly sunscreen.

“We have lost at least 80 percent of the coral reefs in the Caribbean,” Craig Downs, lead author of the study said. “Any small effort to reduce oxybenzone pollution could mean that a coral reef survives a long, hot summer, or that a degraded area recovers.”

[1] http://www.noaanews.noaa.gov/stories2015/100815-noaa-declares-third-ever-global-coral-bleaching-event.html

[2] Dunnakey, Adam, “Coral reefs endangered by bleaching in global event, researchers say”, CNN, October 8, 2015

[3] Downs, Craig, et al; “Toxicopathological effects of the sunscreen UV filter, Oxybenzone (Benzophenone-3) on coral planulae and cultured primary cells”, Archives of Environmental Contamination and Toxicology, 20 October 2015

[4] Fears, Darryl, “How we are all contributing to the destruction of coral reefs: Sunscreen”, The Washington Post, October 20, 2015

[5] Fears, op. cit.