The EPA estimates that the annual costs will be in the neighborhood of $150 billion, which will likely be passed on to consumers via their water suppliers.
Unfortunately, it probably was.Thanks Dupont... hope the increased shareholder value was worth it for poisoning everyone.
Overall, the EPA estimates that there are roughly 66,000 drinking water suppliers that will be subject to these new rules. They'll be given three years to get monitoring and testing programs set up and provided access to funds from the Bipartisan Infrastructure Law to help offset the costs. All told, over $20 billion will be made available for the testing and improvements to equipment needed for compliance.
The Agency expects that somewhere between 4,000 and 65,000 of those systems will require some form of decontamination.
This is saying I did a typo. Fixing now.Is this saying its possible 65,000 out of 66,000 could potentially need to make modifications? Or is there an extra 0 here? Or something else?
In terms of profits being greater than the cost of regulatory fines and lawsuits by a factor of a 100(+++):1, I'm sure it was.Unfortunately, it probably was.
“It sure was, thanks!”Thanks Dupont... hope the increased shareholder value was worth it for poisoning everyone.
Folks on wells will need to install filtering methods. Charcoal, reverse osmosis are two most popular. Water systems that source from wells but serve multiple homes will (above a certain number but I don't remember offhand) will see larger costs for testing and filtering. The real challenge isn't necessarily filtering each home, it's the disposal of the filtering media. Can you dump the 'dirty' charcoal in the trash and move the concentrated PFAS/PFOA to the landfill? For reverse osmosis, the filter periodically flushes the membrane and dumps the water, either into a home septic system (your backyard) or the regional water treatment facility (which generally dumps the treated water into a natural water body).Now how do people on well water manage? RO isn't cheap to get started and activated carbon has ongoing costs.
I wonder what the new PFAS numbers are for allowed soil contamination. There's probably not a single construction site that's not contaminated with PFAS unless it's on virgin land. For comparison, consider what happens if every construction project has to go through the same remediation process as would happen if one were to dig into the ground of an old gas station.
I grew up with Teflon everything and I loved the stuff. So easy to do cooking cleanup. I'm not worried, the risk is still low on an individual level, but PFAS aren't the absolutely biologically inert substances we thought they were.
The rich need to shoulder much more tax burden.Wow, $150B divided by 250M adults in the US comes out to $600 per person per year. They're not kidding when they say this is expensive.
People on personal water wells won't have to comply. There may also be a small size exemption, like fewer then x customers means can ignore.Now how do people on well water manage? RO isn't cheap to get started and activated carbon has ongoing costs.
......
If I understand it correctly, EPA is also limiting all other Per- and polyfluoroalkyl substances to at most 10 parts per trillion? And that it would involve most of the PFCs?The striking thing was how far the EPA was willing to go to get them out of drinking water. For two chemicals, Perfluorooctanoic acid (PFOA) and Perfluorooctanesulfonic acid (PFOS), the Agency's ideal contamination level is zero. Meaning no exposure to these chemicals whatsoever. Since current testing equipment is limited to a sensitivity of four parts per trillion, the new rules settle for using that as the standard. Other family members see limits of 10 parts per trillion, and an additional limit sets a cap on how much total exposure is acceptable when a mixture of PFAS is present.
Privatize the profits and nationalize the losses! Welcome to end-stage capitalism!I guess asking the companies who made billions (trillions over the years?) poisoning the water to contribute something to the costs of this cleanup is just totally unreasonable?
Let's put aside the value of life and do some math. That math doesn't add up (well, maybe with US healthcare prices it does - I wouldn't know). At $150B that's $440 per person per year. Over 80 years, it's $35k per person. Assuming that exposure to current level of those chemicals gives you 1% chance (a figure totally off the top of my head) of getting some health condition, it would mean that the cost of contracting that condition must exceed $3.5M to make the effort economically viable.
$3.5 million is not a lot to treat a chronic condition in the US. You're also not taking into account the non-medical costs. Being sick instead of healthy sucks. It's hard to value the costs of diminished quality of life but it's silly to pretend it doesn't exist.Let's put aside the value of life and do some math. That math doesn't add up (well, maybe with US healthcare prices it does - I wouldn't know). At $150B that's $440 per person per year. Over 80 years, it's $35k per person. Assuming that exposure to current level of those chemicals gives you 1% chance (a figure totally off the top of my head) of getting some health condition, it would mean that the cost of contracting that condition must exceed $3.5M to make the effort economically viable.
Thanks Dupont... hope the increased shareholder value was worth it for poisoning everyone.
Ouch. The older members of my family still remember "voluntarily" gathering pests like the "American beetle" (Colorado potato beetle, L. decemlineata) just hours after the fields were sprayed with DDT, happily playing around in the white "snow". Seriously, with enough DDT that it looked like fresh snow to the happy teens.I remember as a kid the local firehouse would occasionally, in the summer, cover a field in a local park with fire-foam for us all to play in. Good times. I'm, somehow, still alive... but at what cost?
A really excellent read. Amazing that they did this.Considering a number of companies did their own studies about these chemicals and knew their harms ahead of time, I'm going to assume they did, in fact, decide it was worth every bit of it. This is in no way isolated, either.
Disposal is a nontrivial issue. Imagine all the activated charcoal that municipal water treatment facility will generate. And of course once it gets wet again in a landfill or wherever there will be some leachate. So it might be necessary to dispose of it in concrete sealed locations or to take some other approach to keeping the adsorbed chemicals out of the groundwater. The dissociation equilibrium is small, but there would be a lot of PFAS.Folks on wells will need to install filtering methods. Charcoal, reverse osmosis are two most popular. Water systems that source from wells but serve multiple homes will (above a certain number but I don't remember offhand) will see larger costs for testing and filtering. The real challenge isn't necessarily filtering each home, it's the disposal of the filtering media. Can you dump the 'dirty' charcoal in the trash and move the concentrated PFAS/PFOA to the landfill? For reverse osmosis, the filter periodically flushes the membrane and dumps the water, either into a home septic system (your backyard) or the regional water treatment facility (which generally dumps the treated water into a natural water body).
There are a host of downstream considerations, not just pure water consumption and disposal issues but also implications for livestock (backyard chickens, etc).
If anyone wants a long term job in the cleanup world, this one will be around for awhile...
(source=personal and professional experience)
I dunno, I think more people can wrap their heads around "parts per trillion" than "nanograms per liter." I work at a water district that has PFAS in one of our supply sources, and our lab people use µg/L internally but we're reporting and communicating in ppt. FWIW, we use metric for concentrations of various things in our water, but customary units when we measure production and distribution. Grams per liter, acre-feet... honestly it's all just going to get converted to Olympic swimming pools when we communicate with the public. We have 0.067 Olympic swimming pools' worth of concrete being poured right now at our upcoming ion exchange facility, which will be able to remove PFAS from 12 Olympic swimming pools' worth of groundwater per day. When it's done I will celebrate with 0.000001 Olympic swimming pools' worth of ale.Sorry for the nitpicking, but I really, really wish we could dispense (pun not intended) with all the "parts per million, parts per trillion, parts per thousand" in news articles. They are still really nice in some fields as dimensionless units, but not really helpful in common use, given the other problem of Short and Long scale.
'm, not very impressed. PPM and others are always on a molecular scale, so when you think that is not long enough, try gram- or kmols.Sorry for the nitpicking, but I really, really wish we could dispense (pun not intended) with all the "parts per million, parts per trillion, parts per thousand" in news articles. They are still really nice in some fields as dimensionless units, but not really helpful in common use, given the other problem of Short and Long scale.
First, at least one aircraft very nearly crashed because of parts per... usage instead of g/l (or oz/gallons or whatever is your preference) printed on the fuel‑tank biocide instructions, when both of their engines flamed out due to a foreign tech misunderstanding the units and adding a lot more biocide than needed, gunking up all the fuel pumps.
Second, it always gives me a headache when converting, since I am natively Long scale, yet some English‑speaking countries use both the Long scale and the Short scale, while some use only the Short scale. My trillions are your billions. Cue in much confusion. Can't imagine how the above near crash would have gone if the aircraft tech confused their Long scale with the Short scale, as that is three orders of magnitude difference.
Mass fraction per mass or volume (µg/kg, µg/l or even oz/fl.oz or per gallons) is so much easier when imagining concentrations to me, apologies...
Don't get me wrong, I love dimensionless units, it's just that they don't carry over that well into newspaper articles, IMHO. Especially as ambiguous as ppm or ppt can be...
Almost certain every system will need to make modifications - but some already have. That's been one of the real challenges with these chemicals - they require specific efforts to treat the water, and in many cases it's really just detection and shutting down of wells.Is this saying its possible 65,000 out of 66,000 could potentially need to make modifications? Or is there an extra 0 here? Or something else?
I don't understand this line of reasoning, as if the EPA is completely detached from what is happening in the industry more broadly. As if no municipal water treatment experience has already been implemented for these chemicals. There has, there's been industry feedback. My county has already done this work, before the feds required it. Maybe not at the 4 ppt level, but the sensors are in place, as are treatment processes so it's really more a matter of scaling. The actual cost are known.The appropriate question isn't "Will spending $150B on this save lives?" the question should be "Will this be the most helpful thing we can spend $150B on?"
The threshold they set of 4 part per trillion is so extraordinarily low, that as the article points out, it is at the threshold of our ability to measure anything. The level of care and handling you need to prevent any cross-contamination is quite high. This is certainly not a test that the average small town municipal water treatment plant is going to be able to perform.
While I am open to the idea that this may be the best use of the money, I am highly skeptical. As levels of contamination go down, the cost of further remediation sky rockets, while the benefits tend to drop precipitously. e.g. how many cancer cases are saved at 4ppt vs. a 0.04ppb threshold? How many cancer cases would be prevented if some of this money was allocated to the "cancer alley" cases described in another article on Ars? And, while we can do somethings simultaneously, we can't go everything simultaneously. There needs to be prioritization to get the most bang for the buck.
Having lived in this country for 55 years, seems perfectly normal to be honest. We have a VERY long history of externalizing current costs to future generations.It seems odd to me that as a country we would have a
"do whatever you want to our drinking water unless we say otherwise"
attitude when it comes to our water.
PFAO has a biological half-life of about 4 years in humans. PFAS about 5 years - so nope. Assuming constant intake, the human body will contain ~8x yearly intake. That's still a lot, but nothing like what you describe.PFAS is transmitted from the mother to the fetus so every generation starts their lives with an ever higher level of PFAS. Which probably continously increaes the risk of having a detrimental health effect for every passing generation.
If it's in the body it's not coming out. Thus it makes sense to minimize people's ability to ingest it as soon as possible.
If I understand correctly, the EPA wanted to say “zero” but the current testing tech is +-4 ppt, so the EPA said “4 ppt.” Just a concession to reality, not because 4ppt is itself a meaningful threshold concentration for any particular reason.I've been in more than passive contact with (allowable toxic) concentrations. Used to be ppm, ppb is/was rather remarkable, ppt is a first for me. Sure have to read up on the EPA publications. Had to check whether there's an ambiguity (europe - US) about billion and trillion...
I think there must be a credibility gap here for anyone trying to make sense of the numbers.
Not saying any of it is wrong, but it feels far-fetched.