EPA Coal Ash Plan Criticized

  • The new coal ash clean-up project will take four years and cost 268-million dollars. (Photo courtesy of Brian Stansberry)

More than a year ago – when an earthen wall broke at a power plant in Tennessee, 500-million gallons of toxic coal ash and water were spilled. If you compare it to other environmental tragedies – it was 50 times bigger than the Exxon Valdez spill. Half of the coal ash spill’s been cleaned up, but crews are still working to get the rest of it. And as Tanya Ott reports there are concerns about a new plan to deal with the ash:

Transcript

More than a year ago – when an earthen wall broke at a power plant in Tennessee – 500-million gallons of toxic coal ash and water were spilled. If you compare it to other environmental tragedies – it was 50 times bigger than the Exxon Valdez spill. Half of the coal ash spill’s been cleaned up, but crews are still working to get the rest of it. And as Tanya Ott reports there are concerns about a new plan to deal with the ash:

The plan comes from the US Environmental Protection Agency. Clean-up crews would scoop up the ash and put it in the same pit it came from… but the pit’s been reinforced with concrete. What the plan doesn’t call for, though, is a liner to make sure no metals leach into groundwater. Tennessee law and even the EPA’s new proposed coal ash rules require liners.

Craig Zeller is the project manager for the EPA. He says because this pit isn’t new – or expanding – it doesn’t have to comply with the rules. Plus, he says, water testing in the area shows there’s no problem with leaching.

“If, in the future it does show that we need to add a groundwater mediation piece to this, we will!”

Adding a liner after-the-fact could be difficult and expensive. The new clean-up project will take four years and cost 268-million dollars.

For The Environment Report, I’m Tanya Ott.

Related Links

Mapping Underground Rivers

  • DNR hydrologist Jeff Green consults a high-resolution topographic map to figure out which sinkhole is ahead of him. The trees and grass that grow up around the sinkhole form a buffer, allowing water to soak into the soil and filtering any pollutants before it reaches the aquifer.(Photo courtesy of Stephanie Hemphill)

Spring in the north is a time of melting snow and running water. It’s the best time of year for people who study underground water flows. Those underground rivers are important, especially where surface water easily drains into bedrock. It can quickly carry pollution long distances. Hydrologists try to map these underground rivers to help protect fragile ecosystems. As Stephanie Hemphill reports, the first step in making these maps is a process called dye tracing.

Transcript

Spring in the north is a time of melting snow and running water. It’s the best time of year for people who study underground water flows. Those underground rivers are important, especially where surface water easily drains into bedrock. It can quickly carry pollution long distances. Hydrologists try to map these underground rivers to help protect fragile ecosystems. As Stephanie Hemphill reports, the first step in making these maps is a process called dye tracing.

When the snow is melting in the woods and fields, Jeff Green wants to know where it’s going.

“We’re going to hike back to two springs.”

Green is a hydrologist with the Minnesota Department of Natural Resources, and an expert in the limestone geology of Southeast Minnesota.

Green climbs a fence and splashes through a stream that’s flooding a pasture. The stream is bordered by a natural wall of limestone.

Melting snow seeps into the limestone. It runs down vertical cracks to bigger horizontal openings that look like miniature caves. Jeff Green calls these “conduits,” and some are three inches wide.

“You can imagine a pipe that big — water would move very fast, like we’re seeing. So these conduits are what we’re dye tracing.”

Green has traipsed out to this pasture to put what he calls a “bug” in a spring. The ‘bug’ is a small mesh bag about the size of a cellphone, packed with charcoal. The charcoal will capture a dye that he’ll pour into melting snow in a sinkhole a few miles away. He’ll do this in several different spots.

By tracing the paths of different colors of dye, he’ll learn the sources of the water that feeds each spring. That will help him make what he calls a springshed map.

We slog across a corn field that’s dotted with small groves of trees. They’re growing around miniature canyons, about 20 feet deep. Here, you can see how this honeycombed water highway works, and this is where Jeff Green will pour the first dye.

“This is a place where there was a conduit, an opening in the limestone.”

Green climbs down carefully into the crevasse.

“Listen! … All right!”

He’s found some running water.

“Water’s running right here. I don’t know where it’s going but it’s going someplace. So I’m going to try pouring dye here.”

He pours a cup or so of a bright red fluorescent dye into the snow.

Green marks the spot with a GPS unit. This is a place where surface water and groundwater meet.

“That snow-melt is surface water, it’s going into this sinkhole and it’s becoming groundwater as you’re listening to it.”

That means what happens here on the land directly affects the quality of the groundwater.

“In this case, it’s pretty good, you’ve got conservation tillage, lots of corn stalks left to keep the soil from eroding, and then you’ve got grass, permanent cover, around the sinkholes. So this is actually really good.”

There are wonderful trout streams around here. The map Green is making will help protect those streams by pinpointing the source of the water that feeds them.

In a day or two, Green will check the “bugs” he put in the springs, and find out exactly where the dye from this sinkhole went.

He usually finds water traveling one-to-three miles underground before it surfaces.

When the springshed map is finished, he’ll share it with local governments, farmers, and people who want to protect the water in this landscape.

For The Environment Report, I’m Stephanie Hemphill.

Related Links

Tighter Regs for Natural Gas Drilling?

  • Natural gas companies pump chemicals underground to loosen up the gas and get it to the surface. (Photo courtesy of the US DOE)

The federal government is looking into whether natural gas drilling is contaminating drinking water. Before that study’s done, Congress might step in and tighten regulations now. Shawn Allee reports:

Transcript

The federal government is looking into whether natural gas drilling is contaminating drinking water.

Shawn Allee reports, before that study’s done, Congress might step in and tighten regulations now.

Natural gas companies pump chemicals underground to loosen up the gas and get it to the surface.

It’s called hydraulic fracturing.

There’s debate about whether the chemicals poison water that’s underground, too.

Amy Mall tracks this issue for the Natural Resources Defense Council, an advocacy group.

She says Congress might regulate this drilling through the Safe Drinking Water Act.

“What the legislation would do is make sure there’s a minimal federal floor of protection. So if your state has strong regulations, probably nothing would change, but if your state does not have strong regulations and they’re too weak, then under this legislation, your state would have to raise their standards.”

The natural gas industry points out the U-S Environmental Protection Agency already studied drilling back in 2004, and Congress decided there was no need for regulation.

Congressional critics suspect that study was biased in favor of industry.

For The Environment Report, I’m Shawn Allee.

Related Links

Using Trees as Cleaning Tools

  • Argonne researchers and technicians are tracking how well poplar trees are containing and removing toxic solvents (such as Trichloroethane, 1,1-Dichloroethane, and 1,1,1-Trichloroethane, Trichloroethylene) from underground water. Pictured here are Cristina Negri, Lawrence Moss, John Quinn, Rob Piorkowski. (Photo by Shawn Allee)

When you think of cleaning up toxic waste, you might think of technicians digging huge holes
and carting off contaminated soil. It’s expensive, and they’re often just putting the soil and the
problem, somewhere else – say, to a hazardous waste landfill. Shawn Allee met researchers
who hope trees can clean some toxic waste, and leave the landscape in place:

Transcript

When you think of cleaning up toxic waste, you might think of technicians digging huge holes
and carting off contaminated soil. It’s expensive, and they’re often just putting the soil and the
problem, somewhere else – say, to a hazardous waste landfill. Shawn Allee met researchers
who hope trees can clean some toxic waste, and leave the landscape in place:

Argonne National Laboratory is a Big Science kinda place.

It’s a federal lab southwest of Chicago where they study particle physics, nuclear energy, and
advanced environmental clean-up.

The irony is, the place has been around so long, it’s now cleaning up its own environmental
messes.

In fact, it’s Larry Moss’s job. He takes me to a toxic waste site where trees help clean the soil.

More on those trees in a sec – first, here’s why Larry Moss needs them.

“This site was a very busy site back in the 50s and 60s. We had a large manufacturing process
for reactor components – did a lot of testing of reactor assemblies and different fuel mixtures. And to
do that you had to clean all that equipment and a lot of that solvent came down here.
There was a unit that was called a French drain, which basically was a trench filled with gravel. They would come down here and dump chemicals into this trench, and their theory was it would dissolve into the ground. They
thought it would just go away.”

Those solvents did not go away. They leeched into underground water.

The solvents potentially cause cancer and other problems, so the government said Argonne
needed to do something about the mess.

Researcher Christina Negri lays out what the options were.

“Put a parking lot on top of the pollution area
and basically leave it there forever. The other extreme, it would have been: dig out the soil, take it
somewhere – where you haven’t changed much. You’ve moved it from here to a landfill. That’s not the solution as
well.”

Those options – covering it up or carting it off – are also expensive.

So, Argonne researchers figured they’d try something new.

Negri says they hope to eliminate pollution on site – with the help of poplar trees.

Negri: “We’re taking advantage of a trait that these trees have to
go about finding water.”

Allee: “Let me get a closer look at a tree, here.”

Negri: “What you have to picture in your mind – See the height of the tree?”

Allee: “I’m looking at one that’s as tall as a three story walk-up building I live in.”

Negri: “You have to flip it 180 degrees and imagine the roots are going down that deep.”

Negri says they coaxed the roots into going straight down instead of spreading out. It seems to
work; the poplar trees are sucking water out of the ground and taking up solvent.

“Part of it is degraded within the plant. Part of it goes out into the air, which sounds like an
ominous thing to say, right? But if you do your calculations right, there’s much less risk when
these compounds are in the air than there is when they’re down 30 feet below.”

Negri’s team hopes the poplar trees will be more sustainable and cheaper than alternatives, but
they’re likely to be slower.

After all, it took years for the trees to grow. That’s fine for Argonne, because no one’s at risk – but that’s
not the case everywhere.

“Arguably, this is not the remedy you would adopt if you had, like, a tank spill or something that
you really need to go in right away, clean up and be done very quickly. It’s not a remedy if there’s
anybody’s at risk.”

This isn’t the only attempt to use plants to clean up toxic waste. The science behind it is called
‘phytoremediation.’

In other examples, scientists tried alpine pennycress to clean up zinc, and pigweed to suck up
radioactive cesium.

Negri says the trick is to use the right plant for the right toxin and know whether the plants stays
toxic, too.

Still, she says, toxic waste is such a big problem, it’s good to have lots of tools in your clean-up
toolbox.

For The Environment Report, I’m Shawn Allee.

Related Links

Ethanol Part 1: Running the Well Dry?

  • Ethanol is starting to bring prosperity to some rural communities. But there are also concerns about whether adding this new industry to other industries - and cities - that draw on groundwater supplies will cause local shortages of water. (Photo by Rebecca Williams)

It’s no surprise that the Corn Belt is the heart of the ethanol boom.
Two main ingredients you need to make ethanol are corn and water.
There’s no shortage of corn of course, and in most places it’s assumed
there’s also plenty of water. But as Rebecca Williams reports, even
people in water-rich states are getting concerned about ethanol’s
thirst for groundwater:

Transcript

It’s no surprise that the Corn Belt is the heart of the ethanol boom.
Two main ingredients you need to make ethanol are corn and water.
There’s no shortage of corn of course, and in most places it’s assumed
there’s also plenty of water. But as Rebecca Williams reports, even
people in water-rich states are getting concerned about ethanol’s
thirst for groundwater:


Bob Libra can tell a lot about water by looking at rocks. We’re in his
rock library – it even has a Dewey decimal system. Libra’s holding up
one of the 35,000 chunks of rock in here.


(Sound of scraping on limestone core)


“This for example is a core from a well. You can look at this and say well this is
what the plumbing system’s like down there.”


Libra’s a state geologist with the Iowa Department of Natural
Resources. Part of his job is to figure out how healthy his state’s
water supplies are. Any time a test well is drilled for a new ethanol
plant, rock samples get sent here.


Outside the rock library, there are three red pipes sticking up out of
the ground. These are observation wells that tap into sources of
groundwater far underground, called deep aquifers:


“A lot of people refer to it as Paleo-water or fossil water. It’s been
down there tens of thousands, hundreds of thousands, maybe millions of
years.”


Libra says the water in those deep aquifers is pumped out for
everything from drinking water to ethanol plants. But as it’s pumped
out, it’s not replaced right away. It could take hundreds or thousands
of years to replenish the aquifers.


Geologists use the observation wells and rock samples to figure out how
much water is in those aquifers. But here at the rock library, those
samples are piling up into small mountains in the storage room. Bob
Libra says his state is way behind. Iowa hasn’t updated its groundwater
maps for 20 years:


“I think Iowa’s in the same kind of situation that a lot of states that
tend not to think of themselves as ‘water poor’ are finding themselves.
We haven’t paid attention to it for 20 years and suddenly BANG we’re
using an awful lot. And we have people every day going I’m interested
in putting a plant here – how much water can I get over here? And it’s
happening very rapidly.”


Each state has its own way of managing its groundwater. In Iowa, you
have to have a permit if you’re withdrawing more than 25,000 gallons of
water per day from a well or stream. Libra says the ethanol boom has
overwhelmed the state office where permits are handed out for the
asking:


“I’m at this location, I’m drilling into this aquifer, I’m going
to extract this amount of water. Here’s my $25 for a 10-year permit.”


Libra says nobody’s really checking to see if all these water
withdrawals will work for the next few decades.


How much water ethanol plants consume depends on who you talk to. But
on average, it takes between three and four gallons of water to make
one gallon of ethanol. Bob Libra says here in Iowa, adding new ethanol
plants is like adding a bunch of new towns out in the cornfields:


“A lot of ethanol plants they’re building now are on the order of 100
million gallon per year capacity so they’d be using about 400 million
gallons of water a year which is roughly as much as a town of 10,000
people.”


In some drier states, new ethanol plants are running into opposition.
Mark Muller is with the Institute of Agriculture and Trade Policy. He
says groundwater is local. So, what works in one place might be a
crisis in another:


“We’ve already seen it in Southwest Minnesota where a plant was denied because
of a lack of water resources. There’s a couple big fights going on in
Kansas right now over water availability. I think this is going to
probably one of the big drivers that’s going to make the industry look
further East rather than in the Midwest/Great Plains.”


The ethanol industry argues that it has already cut back on water use.
Lucy Norton is the managing director of the Iowa Renewable Fuels
Association. She says it’s in the industry’s best interest to be
careful with water:


“We’re not going to see a plant built somewhere where it’s an iffy
situation as to whether 10 years from now we’re going to have enough
water. You don’t put $200 million investment into a location that’s
not going to be able to sustain itself 10 years from now.”


But even if the water supplies could last 50 years, once the water is
gone from the aquifers, it’s gone for a long time.


There are a lot of
test wells going in these days, with 123 plants in operation and more
than 80 under construction around the country.


The growing political pressure for more and more ethanol is making
state officials eager to figure out exactly what’s underground, instead
of just assuming there’s enough water.


For the Environment Report, I’m Rebecca Williams.

Related Links

Green Grows the Grave

More people are planning a so-called green burial when they die . Some want to
be laid to rest in a more natural setting called a conservation cemetery. Chuck
Quirmbach reports:

Transcript

More people are planning a so-called green burial when they die . Some want to
be laid to rest in a more natural setting called a conservation cemetery. Chuck
Quirmbach reports:


Green burials don’t use environmentally harmful chemicals to preserve the body
and avoid elaborate caskets or concrete burial vaults. In a few cities around the
US, the burials take place in conservation cemeteries. Those sites don’t mow
the grass or use lawn chemicals, and have grave markers that fit in with the
landscape.


Dave Drapac is with the Trust for Natural Legacies. He says despite the non-traditional process, green
burials are not a threat to public health:


“You know, if the person had a disease when they died, you’re gonna have to
take precautions, but you’d have to do that either way… and then the other issue with
burial, you have to make sure the cemetery is sited properly, just like any
cemetery does now, not near groundwater.”


Some funeral directors already offer a more environmentally-sensitive burial at
traditional graveyards.


For the Environment Report, I’m Chuck Quirmbach

Related Links

Road Salt Damage

  • Overuse of salt can cause damage to concrete, steel and the environment. (Photo by Lester Graham)

Each year about 118,000 people are hurt and 1,300 people are killed on
the roads during snowy and icy conditions. So, snowplows hit the
roads, scraping snow and ice off the surface… and spreading
incredible amounts of salt on highways, streets and roads to help keep
them clear. Lester Graham reports there’s some concern about the long-
term effects of all that salt:

Transcript

Each year about 118,000 people are hurt and 1,300 people are killed on
the roads during snowy and icy conditions. So, snowplows hit the
roads, scraping snow and ice off the surface… and spreading
incredible amounts of salt on highways, streets and roads to help keep
them clear. Lester Graham reports there’s some concern about the long-
term effects of all that salt:


This dump truck is getting ready for a load of salt for a coming
winter storm. Salt helps make icy roads safer. It helps prevent
people from slipping and falling on sidewalks. And… it’s pretty
cheap. But there are problems with salt. Salt pollutes and salt
corrodes.


Mark Cornwell has spent a good deal of his career trying to convince
highway crews that there are better ways to keep things safe and reduce
how much salt is dumped on roads and sidewalks:


“Salt basically damages just about everything it comes in contact
with. Salt moves through concrete and attacks structural steel,
bridges, roads, parking structures; it eats the mortar out of bricks
and foundations. It damages limestone, you know, just on and on and
on.”


So, even though salt is cheap, the damage it does costs a lot. It’s a
hidden cost that’s seldom calculated. Imagine the cost of having to
replace a bridge five years early because the structure is weakened by
salt. And then there are your direct costs: trying to keep salt
washed off your vehicle, and still seeing rust attack your car.


Cornwell says there are some cities and road commissioners working to
reduce the amount of salt spread on the roads. But in most places, the
political pressure to get the salt trucks out early, and laying it on
thick to keep drivers happy, outweighs any concerns about trying to
reduce the salt:


“I’m sure the public expects full attention to snow and ice. And they
have absolutely no understanding, however, of what it costs to provide
that.”


Nobody thought a lot about the damage salt was causing until the last
couple of decades. In a few places, the people responsible for keeping
the roads and walkways safe have been trying to reduce the amount of
salt they use and still keep public safety tops on the list of
concerns:


“So, this is our shops. The brine-maker is right here.”


Marvin Petway is showing me some of the tools in his arsenal to reduce
how much salt is used and still keep things safe. He works at the
University of Michigan, where there’s a goal to cut the amount of salt
used in winter in half. What they’ve learned is using innovative ways
of putting down salt can actually help melt snow and ice faster. One
way is to mix it with water to get the chemicals in salt working
a little more quickly:


“Why use 5 pounds of rock salt when you can use 2 gallons of liquid
salt? We’re able to get better coverage, quicker, better cost, and
we’re putting the material that is effective in reducing ice build-up
directly to the area where we don’t want ice located.”


The crews trying to reduce salt use computer assisted spreaders to
measure out only the salt needed, they mix in less corrosive chemicals
that make salt brine more effective, and even just wetting the salt in
dump trucks with chemicals all help to melt snow and ice faster and in
the end use a lot less salt.


Nothing is going to replace salt altogether, but those efforts can add
up to a lot less salt. That means less destruction of infrastructure.


But there are more reasons for reducing salt than the damage to
roadways and parking decks. Salt also damages the environment:


Mark Cornwell first noticed the effects of salt because he was a
horticulturalist. He’d work all spring, summer and fall planting
shrubs, make the grass green, tending beds of flowers. Then the winter
would come:


“Unfortunately what we were doing in six months of winter was
undoing everything we did in the other six months of the year.
If you’re going to get ahead, you’ve got to solve the problem
and in my mind, that was misuse of salt.”


Use too much salt and it kills plants. And it turns out the cost of
using all that cheap salt could be even greater than anyone guessed.
For decades, it’s been assumed that rain washed away most of the salt, but
studies in Ontario find that a lot of the salt doesn’t get washed
away.


Instead, a good deal of it is percolating down into shallow aquifers.
Researchers predict that in the future we’ll start find salt is getting
into the groundwater that supplies many of the wells where we get our
drinking water.


For the Environment Report, this is Lester Graham.

Related Links

Protecting Water Supplies

Water is a vital resource no matter where you go. Commentator Cameron Davis recently had a first hand look at the threats to water supplies in other parts of the world. He returned from his trip with a renewed sense of the importance of protecting water supplies at home:

Transcript

Water is a vital resource no matter where you go. Commentator Cameron Davis recently had a first hand look at the threats to water supplies in other parts of the world. He returned from his trip with a renewed sense of the importance of protecting water supplies at home:


Not so long ago, my wife and I bought a couple of cheap one-direction tickets and ventured around the world to 11 countries in 11 weeks.


I couldn’t help but be reminded that we’re blessed when it comes to water where we live. My home is near the Great Lakes – with nearly 20 percent of the Earth’s fresh surface water.


Other areas of the world aren’t so fortunate. India struggles with water issues every day. The sacred Ganges River, which flows downward through the majestic upper Himalayas, is used for everything from ferrying the souls of the dead into their next life to the holy Hindu Aarti ritual in which millions of people wade annually for prayer. At the same time the Ganges is revered, it’s also used for sewage and waste disposal, to the point that if the Ganges flowed through the United States, it would violate water quality standards many times over.


In Vietnam, we learned that groundwater levels were dropping precipitously in the Bac Lieu Province. Few laws existed to protect aquifers from businesses that drilled to provide water to the aquaculture industry, namely for farm-raised shrimp. The practices were expected to have impacts on the fragile ecology of the Mekong Delta.


All of this was going on at the very same time that King Abdullah II of Jordan was convening the International Water Demand Management Conference in the Middle East and beyond.


While we’re hardly immune from water pressures and mismanagement here at home, we have some important opportunities to give something back to future generations. The Great Lakes states are contemplating policy changes that might be a model for the rest of the nation. In the coming years, the legislatures of the eight Great Lakes states must consider protections under a Great Lakes water use “Compact” that the governors of the eight states signed last December.


The only question is whether we’ll ensure these new protections are strong enough, or whether they’ll slip to the lowest common denominator of protections. After seeing how water is honored yet misused in many other parts of the world, I’m hopeful we’ll do the right thing. And in so doing, give other states and regions in the U.S. some ideas for better water conservation. After all, water is one of those rare things that bring us – all of us, from all walks of life – together to form a common regional identity. Our waters are more than a resource for us to use and protect. They’re the source of life.


Cameron Davis is the president of the Alliance for the Great Lakes.

Related Links

Turning Nuke Waste Sites Into Playgrounds

  • Grassland prairie flowers from Weldon Spring, part of the Department of Energy's restoration effort to control erosion and add aesthetic beauty to the area. (Photo courtesy of U.S. Department of Energy)

Across the U.S., there are more than 100 sites contaminated by radioactive waste from the nation’s nuclear weapons programs.
The government is trying to return these Cold War relics to safe and useful purposes. Some of these once toxic zones are being treated much like public parks. The GLRC’s Kevin Lavery visited one that was recently opened to the public:

Transcript

Across the US, there are more than 100 sites contaminated by radioactive waste from the
nation’s nuclear weapons programs. The government is trying to return these Cold War
relics to safe and useful purposes. Some of these once toxic zones are being treated much
like public parks. The GLRC’s Kevin Lavery recently visited one that was recently
opened to the public…


A thick grove of trees opens up to a clearing that reveals a white mound of limestone
rock. It rises like a tomb from some long-forgotten civilization, were it not for the water
towers and golf courses on the horizon.


Mike Leahy and his 9-year-old son Cameron came to this rock dome to catch the view
atop its 75 foot summit. But the real attraction was what they did not see:


“We read the sign and saw what was buried and how they did it, and – it’s kind of
disturbing, what’s in there.”


Beneath their feet lay more than a million cubic yards of spent uranium, asbestos and
PCB’s. The 45 acre mound is a disposal cell, where the government buried thousands of
barrels and tons of debris. That history didn’t bother young Cameron:


“It’s really cool. They keep all that nuclear waste under all that and it can’t harm
anybody.”


The Weldon Spring site, 30 miles west of St. Louis, Missouri began during World War
Two as an Army TNT factory. In the 1950’s, the plant refined yellow cake uranium for
later use in nuclear weapons. All that stopped in 1966 and all the radioactive waste just
sat there. Weldon Spring became an EPA Superfund site in 1987. After a 900 million
dollar cleanup, the site was opened to tourists in 2002.


(Sound of frogs)


Today, frogs sing in a native prairie at the foot of the cell. In April, officials opened a
hiking trail adjacent to a once-radioactive landfill. The route connects to a state park.


Weldon Spring is not a park per se, but project manager Yvonne Deyo says urban sprawl
prompted them to think like one:


“There’s subdivisions and lots of infrastructure going in…and that just kind of hits home
how important green space is, and that’s kind of what we’re trying to do a little bit of
here at the site.”


Weldon Spring is one of about 100 such sites the Department of Energy is converting to
what it calls “beneficial re-use.” Many are becoming recreational venues. Another
closed uranium plant near Cincinnati is adding horseback riding trails. In Wayne, New
Jersey, a former thorium processing facility is becoming a baseball field. And a national
wildlife preserve is in the works at Rocky Flats, the site outside Denver that made the
plutonium cores of nuclear warheads.


The Department of Energy says Weldon Spring is safe for visitors – though some residual
contamination remains.


(Sound of Burgermeister Spring)


Burgermeister Spring runs through a 7-thousand acre state reserve adjacent to the site.
This is where uranium-laced groundwater from Weldon Spring rises to the surface.
Though the spring exceeds the EPA’s drinking water quality standard, there’s no warning
sign here. Officials say the contamination is so low that it poses no immediate public
hazard. The spring feeds into one of the most popular fishing lakes on the property.
Most visitors are surprised to hear that:


“Huh.”


Jeff Boeving fishes for bass four or five times a month:


“(Does that concern you to hear that?) Yeah – absolutely…I mean, they’ve got a great
area out here and they’re kind of messing it up if they’re going to have contaminants, you know, going into it.”


The government’s vision of post-nuclear playgrounds is not without its critics. Arjun
Makhijani heads the Institute for Energy and Environmental Research in Takoma Park,
Maryland. He says recreational sites near urban development zones risk losing their
original purpose:


“Institutional memory tends to be very short; after 30, 40, 50 years people forget, they
begin to develop the land, and pretty soon you could have houses, farms and schools in
the area. So it’s not necessary that it will stay recreational forever.”


Recreation is only one option the Department of Energy is considering for all of its sites.
In the last two years, the agency’s budget has doubled with the addition of nearly a dozen
radioactive properties. Officials say Congress has so far supported its fiscal requests.
And with the future of a proposed permanent nuclear waste site at Yucca Mountain still
in doubt, even more tax dollars will likely be spent converting the nuclear dumps in
America’s backyards to a place where families play.


For the GLRC, I’m Kevin Lavery.

Related Links

Groundwater Study Finds Low Voc’s

Federal researchers have detected Volatile Organic Compounds, or VOC’s, in many of the nation’s underground drinking water supplies. But the samples showed lower concentrations of the cancer-causing chemicals than some suspected. The GLRC’s Erin Toner reports:

Transcript

Federal researchers have detected Volatile Organic Compounds, or
VOC’s, in many of the nation’s underground drinking water supplies. But
the samples showed lower concentrations of the cancer-causing
chemicals than some suspected. The GLRC’s Erin Toner reports:


Volatile Organic Compounds are by-products of industrial and
commercial applications. They come from plastics, paints, dry-cleaning
products and gasoline.


Over the past few decades, researchers have detected many places in the
country where soil and groundwater is highly contaminated by VOCs.
This latest study by the U.S Geological Survey took a broader look at
VOC concentrations in the nation’s groundwater.


John Zogorski led the project.


“In most of the wells that we sampled, and we’re sampling before any
treatment by the water utilities, we didn’t find any of these 55
compounds using even our most sensitive analytical methodology.”


Zogorski says VOC’s were found in some drinking water wells, but he
says the good news is that where the VOC’s were found, they were
mostly below federal drinking water standards.


For the GLRC, I’m Erin Toner.

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