West Chester Borough has now constructed several rain gardens, which filter out pollutants and reduce runoff into streams. Property owners can of course also construct rain gardens, and in fact by doing so can benefit from a reduction of their Stream Protection Fee. Here is good info from PennState Extension, 9/6/17:
What is a Rain Garden?
A rain garden is a planted depression that soaks up rainwater runoff from roofs, driveways, walkways, and compacted lawn areas—water that would otherwise carry pollutants directly to our streams. Rain gardens soak up 30 percent more water than an equivalent patch of lawn.
Where Do You Put a Rain Garden?
Choose an area where you want to soak up rainwater at least 10 feet from the house. Rain gardens can drain water from downspouts or catch water that drains off roads and walkways. Avoid areas over septic systems.
Do not place a rain garden in areas that are consistently wet. Rain gardens should drain completely within 24 hours….
Continue reading or download this handy guide to building and maintaining a rain garden at PennState Extension. See also our own 2019 post “Rain gardens / green infrastructure / Stream Protection Fee.”
People can live a lot longer without food than without water and water is essential to growing food. On the other hand, water can kill, in storms, floods, tides, and contamination.
World Water Day is celebrated annually on March 22. See info on what we can all do regarding food (eat less meat, etc.) and fashion (it takes as much water to make one pair of jeans as the average person drinks in 7 years!!) at the UN site. And there is lots more advice there (images below).
Locally: sign up to participate in Chesco World Water Day ONLINE ZOOM EVENT. Copy and Paste into your Browser: https://us04web.zoom.us/j/552071664/
Public action to maintain an important waterway; meet at Public Works Department, 205 Lacey St., West Chester, PA 19382. Please register online ASAP at this link . * Select Site 112 for WC Borough *
Coastal predictions are getting worse and worse, according to a study released on Oct. 29, “New elevation data triple estimates of global vulnerability to sea-level rise and coastal flooding” by Scott A. Kulp & Benjamin H. Strauss in Nature Communications volume 10, Article number: 4844 (2019).
The authors show that even under a low emissions scenario (and good luck with that one, when emissions are rising every year), about 190 million people currently live below what will be the high tide levels of the year 2100.
Under a high emissions scenario, the number of people living today under the 2100 high tide level rises to 630 million people.
Hundreds of millions more people today live close enough above that high tide level to be in danger. These projections don’t take into consideration the ravages of future erosion as the water advances or the possible collapse of coastal defenses, which already protect some 110 million people living below the high tide level (as in New Orleans and much of the Netherlands).
The study finds that “more than 70% of the total number of people worldwide currently living on implicated land are in eight Asian countries: China, Bangladesh, India, Vietnam, Indonesia, Thailand, the Philippines, and Japan.” Although devastating for those countries, is that better news for the rest of the world? Hardly, because those Asian countries are already overcrowded. As oceans rise, those hundreds of millions of people will seek to emigrate elsewhere.
The new analysis shows oceans rising by about 2 meters in the next 80 years: today’s children will likely see this happen. Does anyone wonder why Greta Thunberg is upset with today’s “world leaders”?
It is pretty obvious that when hordes of desperate people flooded out of Bangladesh and Vietnam push up the Ganges and Mekong Rivers and try to enter India and China, trouble will result on a scale that makes the current migrations out of the Middle East and Latin America look like a warm-up exercise.
One of the accompanying maps shows “Current population on land below projected mean higher high water level in 2100 assuming intermediate carbon emissions (RCP 4.5) and relatively stable Antarctic ice sheets (sea level model K14)”:
Yellow shows highest numbers of people affected, with the scale ranging from 1 to 100,000,000. Where will all the forced emigrants go? The two countries with the fewest “exposed,” Finland and Congo, in dark blue on the map, seem unlikely destinations. The US’s yellow-green is nothing to boast about either; dislocations will occur and Florida, where most people live along the shores, will lost its status as a highly populated political swing state, since much of it will be underwater.
Today’s excuses — reducing greenhouse gas emissions would be inconvenient for our life styles or would cut into a few industries’ profits (download RAN’s “Banking on Climate Change” to see banks that do the most to finance fossil fuel industries) — will soon look idiotic on the scale of global inconvenience that is already underway.
If people can’t control their greenhouse gas emissions, can they control their rate of reproduction? Purposefully and peacefully reducing the globe’s population by 630 million before 2100 seems far preferable to having that many people forced to relocate within a shrinking land mass that is already occupied by people who will defend their own space.
You’ve probably been to Cape May County NJ. The news is not good. Here is a map from NOAA’s sea level rise map viewer showing the effect of a rise in high tides of 6 feet (thus, about 6 inches less than the projected 2 meters). Deep blue shows areas substantially under water; light blue shallower water; but all blue areas will be uninhabitable. Cape May Point will be gone (following South Cape May, which was washed away in 1944), and the Atlantic beach will be about where today’s Garden State Parkway is.
100 years of pumping has reduced stream flows by 50 percent in some areas
by Jason Daley, Sierra magazine, 7/2/19
[N.b.: this is the bottom line of our earlier article “Rain gardens / green infrastructure / Stream Protection Fee“: Our community, county and country need to see that water runoff goes back into the aquifer. Chester County does not have a problem right now, due to lots of rainfall; see much interesting data at Chester County Water Resources Authority. But the point is to be ready for any future droughts by getting our water recharging systems in place, as well as reducing excess runoff and toxic matter flowing into streams. And our municipalities do rely on the aquifer for water for human use, whether directly by pumping or indirectly by drawing water from streams.]
Photo by John_Brueske/iStock
On the surface, it’s pretty obvious how humans have altered lakes and rivers over the past century; dams have turned rivers into strings of reservoirs, the Mississippi River is more or less a concrete-lined sluice, and artificial ponds have proliferated by the thousands. Less apparent, but perhaps just as important, is how tapping into the groundwater systems that underlie the United States has impacted those streams and lakes as well. Now, a new detailed study in the journal Science Advances shows how much groundwater pumping has impacted those water bodies, in some cases reducing their flows by half. …
read more at Sierra magazine
Green infrastructure lessens adverse environmental impacts through features like rain garden, which intercept water flowing down a street, filter out impurities, and let the water drain slowly into the underlying aquifer. Rain gardens also enhance the beauty of streetscapes, slow down traffic , and encourage pedestrians to enjoy walking.
Our society has traditionally had a throw-away mentality: use it, toss it and put it out of mind. Recycling and waste reduction aim to break that destructive and contaminating cycle. The same applies to rain gardens, which break the cycle of wasting rain water.
Rain running through streets picks up sediments and chemicals from trash, cigarette butts, pet waste, drippings from car engines, bits of vehicle tires, fertilizers, pesticides, herbicides, leaves, other organic matter, and in winter highly damaging road salt. Street water eventually runs into streams, either directly or through storm drains.
Heavy flows erode stream banks; contaminants kill fish, amphibians, and insect larvae as well as making life difficult for communities that use water downstream for drinking.
Federal and state regulations require many communities to reduce pollutants; and besides, who these days wants to be worsening erosion and water contamination? West Chester Borough approved a stream protection fee after the state adopted enabling legislation in 2015.
Because all properties (and the sidewalks and streets next to them) produce runoff from rain and snow, all properties are subject to this fee, as the fairest way to repair and maintain the Borough’s storm water infrastructure, which at 100 years old has serious leaks and blockages.
Each property is assessed in proportion to its area that water cannot penetrate, such as roofs, parking areas, patios. Credits are available for certain measures that reduce runoff into the street, such as rain gardens, downspout disconnection, holding basins, and permeable paving.
Fees go into a separate fund used only for mitigating the storm water impact on streams. Unlike taxes, non-profits and government entities, including the Borough itself, pay their fair share.
With or without a fee, all residents and property owners should help to reduce runoff from properties and keep the streets clean!
This Information is from the West Chester Green Team. For official Borough information see here. See also the handout prepared by the Stormwater Assessment Advisory Committee for the May 4, 2016, hearing on West Chester’s future Stormwater Protection Fee (download here: Stream Protection fee overview).
Above: rain garden, corner of W. Nields and S. Everhart streets, West Chester. The sign says: “Better Roads / Cleaner Streams / Improving water quality, one road segment at a time! / This Environmentally Sensitive Road Maintenance Project has been funded by Chester County Conservation and your Municipality.”
Below: rain garden across the street on the same corner. Water runs in through the curb opening and over the stones into the basin part of the rain garden, where it stands and slowly seeps into the ground.