By Vivian Underhill, Data and GIS Intern; and Kyle Ferrar, Western Program Coordinator, FracTracker Alliance
California and New York are not the only states supporting the transition from harmful fossil fuels such as natural gas to more sustainable and less polluting clean, renewable energy sources. In collaboration with Environmental Entrepreneurs (E2), FracTracker has produced a series of maps investigating current clean energy businesses, existing renewable energy infrastructure, and renewable energy potential. These maps show where growth of the renewable economies is growing and even identifies the many renewable contractors and projects that are planned and already active across the country.
Michigan’s Clean Energy Sector
According to the Clean Jobs Midwest Report, growth of the renewable sector has been a strong boon for local Michigan economies, in addition to reducing green-house gas emissions. Michigan increased clean energy jobs by 5.3 percent, or 4,655, outpacing other job sectors in the state by a factor of three. According to a new Union of Concerned Scientists Report, Michigan utilities could create 10 times more jobs in renewables than natural gas. Another report by the Union of Concerned Scientists notes that:
… using the latest wind turbine technologies, Michigan’s onshore wind resource has the potential to generate nearly five times the state’s 2012 electricity demand, even after a variety of competing land uses are accounted for. Solar photovoltaic (PV) resources in urban areas — including large ground-mounted and smaller rooftop systems — could provide another 71 percent of the state’s 2012 electricity demand.
FracTracker’s maps below show plenty of potential for additional renewable energy generation, and highlight where Michigan’s clean energy sector is already paving the way to a healthier future. But first, let’s give you some background on this story.
Legislation
In 2008, Michigan passed legislation requiring utilities to generate 10% of their electricity from renewables by 2015. In 2014, The Michigan Public Service Commmission (MPSC) reported that this legislation would save the state over $4 billion dollars; as the MPSC Chairman John D. Quackenbush wrote in conjunction with a 2014 report on the state’s energy optimization activities: “The cheapest energy is the energy never used… For every dollar spent on these programs in 2014, customers can expect to realize $4.38 in savings – more than any year since 2010.” In addition, the statute’s focus on renewables has brought nearly $3 billion in renewable energy investment to the state.
In 2016, legislators built on this track record and improved aspects of the state’s clean energy standards with Public Acts 341 and 342; among other things, these acts increase the percentage of renewable energy to 15% by 2021, and otherwise incentivize clean energy sources.
Below we have embedded the maps FracTracker created with E2, showing clean energy potential, generation capacity, and the location of clean energy businesses in Michigan.
As shown in the map above, solar and wind are the most dominant forms of renewable energy in Michigan, although there is also potential to take advantage of the geothermal energy. Approximately 75% of the state has potential for either wind, solar, or geothermal power.
Map 2, above, shows the current generating capacity in the state. Most of Michigan’s existing solar and wind infrastructure exists in the South and Southeast portions of the state, though not exclusively. Many schools also have solar capabilities on their roofs. Further, 32 counties already have large-scale renewable energy projects, and many more are in in the works.
Finally, a vibrant industry of over 1,200 businesses has developed to support the clean energy revolution in Michigan. Map 3 (above) shows the locations of these entreprenuers in fields that include both energy efficiency and renewable energy generation (solar, wind, and geothermal). Businesses include a range of operations including design, machining, installation, contracting, and maintenance – covering all 38 state senate districts and all 110 state house districts.
Room to Grow
While Michigan has come a long way in recent years, the field of clean renewable energy generation is still in its infancy. This geographical assessment, in addition to the numerous economic reports showing the profitability of the clean energy sector, paint a brighter future for Michigan and the climate. However, much more potential remains to be tapped, across solar, wind, and other renewable energy sources. It is imperative that policies are put in place to prioritize clean energy growth over natural gas.
Cover photo: MI Wind Farm. Photo by Michelle Froese | Windpower Engineering and Development
Explore additional state analyses: IL | MI | MO | NY | OH | PA
https://www.fractracker.org/a5ej20sjfwe/wp-content/uploads/2018/06/windfarm_re.jpg400900Kyle Ferrar, MPHhttps://www.fractracker.org/a5ej20sjfwe/wp-content/uploads/2019/10/Fractracker-Color-Logo.jpgKyle Ferrar, MPH2018-06-04 15:00:242018-06-28 17:01:27Michigan's budding renewable clean energy sector has room to grow
Surface mining to obtain sand that is perfectly sized for use in the hydraulic fracturing process has been increasing in recent years. Over the summer, FracTracker had the opportunity to document a number of sand mining activities occurring in Michigan, Minnesota, and Wisconsin that supply frac sand to the oil and gas industry. Explore a selection of this imagery below:
Explore these and other frac sand mining photos and videos in our online album. The most recent imagery can be found at the bottom of the album. Additional videos are also available on this YouTube channel.
View All Albums
All of these frac sand photos, and more, can also be found on our Energy Imagery page, organized by topic and also location.
If you have photos or videos that you would like to contribute to this growing collection of publicly available information, just email us at info@fractracker.org, along with where and when the imagery was taken, and by whom.
https://www.fractracker.org/a5ej20sjfwe/wp-content/uploads/2017/09/Frac-sand-mining-Aug2017-Feature.jpg400900FracTracker Alliancehttps://www.fractracker.org/a5ej20sjfwe/wp-content/uploads/2019/10/Fractracker-Color-Logo.jpgFracTracker Alliance2017-09-12 20:48:512019-07-19 06:43:32New frac sand mining photos and videos are now available via FracTracker
By Dave Dister, Consulting Ecologist, Ludington, MI
One of the prime reasons I moved to the Ludington, Michigan area in 2008 was the aesthetic and biological diversity evident at Ludington State Park (LSP). As a field biologist nearing the end of his formal career, I was eager to conduct a study of the vascular plants within the 5,300-acre park. That study consumed six years of exploring all habitats and ecosystems, and documenting (by vouchers) the flora I encountered. Although the unfortunate presence of the Sargent Sand Company operation was obvious as it cut through the south end of the park, it was not until the fracking boom a few years ago that I took special notice as a residential neighbor.
Above is a dynamic map of silica sands and frac sand mines, drying facilities, and other related facilities. Zoom and click on the map to explore various aspects of frac sand mining infrastructure. Click here to view the map full screen along with its legend.
Expanding Sand Mining
That “sleepy” sand mining operation suddenly turned into a 24-hour, seven-days-a-week operation, with associated noise that irritated a very light-sleeping biologist. Hamlin Township officials were only partially effective in addressing residential impacts “after hours,” and had no interest in developing reasonable ordinances upon a commercial operation. Although increased noise and truck traffic were a tangible nuisance, only when a renewal of the company’s sand mining permit was announced did it become clear that biological resources within the 372-acre private in-holding were afforded virtually no protection at all. And the more research I did into the regulatory permitting process, the more incredulous the situation appeared.
Above – Photos of Sargent Sands frac sand mining operations taken by Ted Auch, FracTracker Alliance
1979 Environmental Impact Report
My expertise as a wetlands biologist and botanist were well suited to scrutinizing the 1979 Environmental Impact Report (EIR), which was a hastily-compiled poorly-researched 24-page document.
From my perspective, there was a poor level of protection afforded to the Federal and State Threatened Pitcher’s Thistle (Cirsium pitcheri). As far as is known, Sargent Sand has no records of relocating this plant in proposed or active mining cells in its 100-year history of mining, although the Michigan Department of Natural Resources (MDNR) has known about plants on the property for more than 20 years. The MDNR and US Fish and Wildlife Service (USFWS) have been complicit in not adequately protecting this species, which has had minimal research into the success (or not) of transplanting individual plants. Young plants appear to transplant well, but long-term studies are not available. Older plants are much less likely to survive transplanting, as they depend on numerous minute root hairs to absorb moisture in a xeric habitat, and removal from a dune would strip-off most such root hairs. It requires about seven years for these plants to mature, so reproductive rates are slow.
Yep, it’s a fact of life – plants simply are not nearly as charismatic as animals, and consequently are treated as “second-class organisms” in the world of environmental protection. Sadly, the Michigan Department of Environmental Quality (MDEQ) just renewed the sand mining permit that allows Sargent Sand to “self-monitor” for this threatened species, and to “move plants” encountered in areas proposed for development. Does anyone really think a mining company will give two hoots about a thistle plant?!
Great Lakes Barrens Ecosystem
The rarity and value of Great Lakes Barrens (GLB) was not addressed when the 1979 EIR was written, though such ecosystems are clearly visible on aerial photographs of Sargent Sand Company property and surrounding LSP. These natural communities are known to be imperiled ecosystems at both the state and global levels. The Michigan Natural Features Inventory classifies “Great Lakes Barrens” – that include jack pine stands with associated xeric-loving shrubs and forbs – as S2 natural communities:
Imperiled in the state because of rarity due to very restricted range, very few occurrences, steep declines, or other factors making it very vulnerable to extirpation from the state. – Michigan Natural Features Inventory
Globally, Great Lakes Barrens have a similar designation. Consequently, mitigation measures must be strengthened and avoidance of impacts considered. Any Restoration Plan of such habitats must include high quality GLB plants such as buffaloberry (Shepherdia canadensis), bearberry (Arctostaphylos uva-ursi), ground juniper (Juniperus communis), sand cherry (Prunus pumila), sand-dune willow (Salix cordata), blueleaf willow (Salix myricoides), beach-heath (Hudsonia tomentosa), harebell (Campanula rotundifolia), white camas (Anticlea elegans), and wild wormwood (Artemisia campestris), among others.
Again, unfortunately the MDNR has not enforced strong protections against the destruction of Great Lakes Barrens. The “reclamation” of destroyed dunes and jack pine barrens for a mere “one-year period at 80 percent vegetative cover” comes nowhere close to a viable mitigation plan, as trees and shrubs impacted in such areas take decades to recover.
Furthermore, other state-listed plants, such as ram’s head lady-slipper orchid (Cypripedium arietinum) are known to be adjacent to Sargent Sand property but are not legally protected as they are only “Special Concern” species. Lastly, the Lake Huron locust (Trimerotropsis huroniana) is a state Threatened insect known to occur within Ludington State Park, and suitable “sparsely vegetated dune” habitat is common within Sargent Sand’s property. If you thought rare plants get little respect, try to protect a threatened grasshopper!
Great Lakes Barrens often include seasonal wetlands that are protected under Section 404 of the Clean Water Act of 1972, but which often lack surface waters much of the year. Not surprisingly, the 1979 EIR does not mention “wetlands” at all. At best, there is a comment that “There are three or four very small swamp areas on the property…” However, a review of recent aerial photography indicates many Interdunal Wetlands remain within the northern half of Sargent Sand property. The largest of these appears to be at least 0.5 acre in size, and it is likely that several acres of such wetlands exist on the property.
Consequently, a formal Wetland Delineation is needed to determine the exact location and amount of Jurisdictional Wetlands on Sargent Sand property. Any impact to such wetlands requires mitigation measures that include avoidance, minimization, and/or wetland creation elsewhere within the watershed. Additionally, Interdunal Wetlands are ranked S2 Natural Communities by the State of Michigan, and have a rank of G2 globally. Both of these designations indicate these areas are “Imperiled,” so mitigation ratios should be high (e.g., 10:1 or 20:1).
Current Political Climate in Ludington
The current political leadership in Michigan, as well as the nation, has presented a formidable challenge for environmentalists and scientists. Additionally, the system certainly appears rigged when the agency – the MDEQ – that issues permits and permit renewals is also a lobbyist for the oil, gas, and minerals industry. Nevertheless, the battle to protect this natural heritage is a noble and vital one that will persist. As with every other sensitive and rare environmental resource, if no one scrutinizes the lax protection of our natural heritage, before you know it, it will be gone.
https://www.fractracker.org/a5ej20sjfwe/wp-content/uploads/2017/02/Ludington-Sand-Mantis-Feature.jpg400900Guest Authorhttps://www.fractracker.org/a5ej20sjfwe/wp-content/uploads/2019/10/Fractracker-Color-Logo.jpgGuest Author2017-02-20 10:57:312019-07-22 11:51:40World Class Dunes and Great Lakes Barrens at Risk at Ludington
By Ted Auch, Great Lakes Program Coordinator, FracTracker Alliance
While solar and wind energy gets much of the attention in renewable energy debates, various states are also leaning more and more on burning biomass and waste to reach renewable energy targets and mandates. As is the case with all sources of energy, these so-called “renewable energy” projects present a unique set of environmental and socioeconomic justice issues, as well as environmental costs and benefits. In an effort to document the geography of these active and proposed future projects, this article offers some analysis and a new map of waste and woody biomass-to-energy infrastructure across the U.S. with the maximum capacities of each facility.
Map of U.S. Facilities Generating Energy from Biomass and Waste
To illustrate the problems of woody biomass-to-energy projects, one only needs to look at Michigan. Michigan’s growing practice of generating energy from the wood biomass relies on ten facilities that currently produce roughly 209 Megawatts (an average of 21 MW per facility) from 1.86 million tons of wood biomass (an average of 309,167 tons per facility). Based on our initial analysis this is equivalent to 71% of the wood and paper waste produced in Michigan.
Making matters worse, these ten facilities rely disproportionately on clearcutting 60-120 years old late successional northern Michigan hardwood and red pine forests. These parcels are often replanted with red pine and grown in highly managed, homogeneous 20-30 year rotations. Reliance on this type of feedstock stands in sharp contrast to many biomass-to-energy facilities nationally, which tend to utilize woody waste from urban centers. Although, to provide context to their needs, the area of forest required to service Michigan’s 1.86 million-ton demand is roughly 920 mi2. This is 1.65 times the area of Chicago, Milwaukee, Detroit, Cleveland, Buffalo, and Toronto combined.
Panorama of the Sunset Trail Road 30 Acre Biomass Clearcut, Kalkaska Conty, Michigan
Based on an analysis of 128 U.S. facilities, the typical woody biomass energy facility produces 0.01-0.58 kW, or an average of 0.13 kW per ton of woody biomass. A few examples of facilities in Michigan include Grayling Generating Station, Grayling County (36.2 MW Capacity and 400,000 TPY), Viking Energy of McBain, Missaukee County (17 MW Capacity and 225,000 TPY), and Cadillac Renewable Energy, Wexford County (34 MW Capacity and 400,000 TPY).
The relationship between wood processed and energy generated across all U.S. landfill waste-to-energy operations is represented in the figure below (note: data was log transformed to generate this relationship).
Waste-To-Energy
Dr. Jim Stewart at the University of the West in Rosemead, California, recently summarized the Greenhouse Gas (GHG) costs of waste landfill energy projects and a recent collaboration between the Sierra Club and International Brotherhood of Teamsters explored the dangers of privatizing waste-to-energy given that two companies, Waste Management and Republic Services/Allied Waste, are now a duopoly controlling all remaining U.S. landfill capacity (an additional Landfill Gas Fact Sheet from Energy Justice can be found here).
Their combined analysis tells us that, by harnessing and combusting landfill methane, the current inventory of ninety-three U.S. waste-to-energy facilities generate 5.3 MW of electricity per facility. Expanded exploitation of existing landfills could bring an additional 500 MW online and alleviate 21.12 million metric tons of CO2 pollution (based on reduction in fugitive methane, a potent greenhouse gas). Looking at this capacity from a different angle, approximately 0.027 MW of electricity is generated per ton of waste processed, or 1.64 MW per acre. If we assume the average American produces 4.4 pounds of waste per day, we have the potential to produce roughly 6.9 million MW of energy from our annual waste outputs, or the equivalent energy demand created by 10.28 million Americans.
The relationship between waste processed per day and energy generated across all U.S. landfill waste-to-energy operations is represented in the figure below.
Conclusion
Waste burning and woody biomass-to-energy “renewable energy”projects come with their own sets of problems and benefits. FracTracker saw this firsthand when visiting Kalkaska County, Michigan, this past summer. There, the forestry industry has rebounded in response to several wood biomass-to-energy projects. While these projects may provide local economic opportunity, the industry has relied disproportionately on clearcutting, such as is seen in the below photograph of a 30-acre clearcut along Sunset Trail Road:
As states diversify their energy sources away from fossil fuels and seek to increase energy efficiency per unit of economic productivity, we will likely see more and more reliance on the above practices as “bridge fuel” energy sources. However, the term “renewable” needs parameterization in order to understand the true costs and benefits of the varying energy sources it presently encompasses. The sustainability of clearcutting practices in rural areas—and the analogous waste-to-energy projects in largely urban areas—deserves further scrutiny by forest health and other environmental experts. This will require additional mapping similar to what is offered in this article, as well as land-use analysis and the quantification of how these energy generation industries enhance or degrade ecosystem services. Of equal importance will be providing a better picture of whether or not these practices actually produce sustainable and well-paid jobs, as well as their water, waste, and land-use footprints relative to fossil fuels unconventional or otherwise.
Ludington State Park, Sargent Sand’s Mine, and US Silica and Sylvania Minerals By Ted Auch, Great Lakes Program Coordinator
When it comes to high-volume hydraulic fracturing (HVHF), frac sand mining may be the most neglected aspect of the industry’s footprint. (HVHF demand on a per-well basis is increasing by 8% per year.)
To help fill this gap I decided to head out on the road to visit, photograph, and listen to the residents of this country’s primary frac sand communities. This multimedia perspective is part of our ongoing effort to map and quantify the effects of silica sand mining on communities, agriculture, wildlife, ecosystem services, and watersheds more broadly. Below is my follow up attempt to give The FracTracker Alliance community a sense of what residents are hearing, seeing, and saying about the silica sand mining industry writ large, through a tour of 7 sand mining communities – part 2. Read part 1.
Monroe County, MI
Monroe County, Michigan is approximately 22 miles south on I-75 from downtown Detroit with similar demographic differences to the Chicago-LaSalle County, IL comparison we made during the first part of this series. South Rockwood lies along the Northeastern edge of Monroe County and the Monroe-Wayne County border, and is consequently at the intersection of Detroit’s sprawl and rural Michigan.
Monroe County and nearly all of South Rockwood is underlain by one of the purest sandstone formations in North America. The Sylvanian Sandstone formation lies beneath 20% of Monroe County stretching from the aforementioned Wayne County border south-southwest to Lucas County, OH (Fig. 1). It is this formation that mining stalwarts such as US Silica and the appropriately named Sylvanian Minerals are mining for frac sands. Not only is the silica pure, but it is also extremely close to the surface. The region, conveniently, is situated at the crossroads of numerous rail lines capable of transporting the sand to shale plays in the east and North Dakota alike.
US Silica and Sylvanian Minerals are neighbors at the corner of Ready and Armstrong Roads in South Rockwood, with the former adjacent to I-75’s southbound lanes (Fig. 2). As of fall 2011, Sylvanian Minerals hadn’t even broken ground on its initial stab at mining frac sands. Presently the two firms have altered nearly 650 acres, or 40% of the community, with the potential to mine an additional 494 acres. These plans suggest that these two companies could collectively alter 72% of the community’s topography.
This domination of the landscape and commerce concerns many South Rockwood citizens including Sylvanian’s immediate neighbor Doug Wood, who has been the industry’s primary citizen watchdog over the last couple years (photo below).
Mr. Wood was generous enough to let us climb to the top of his barn to snap some photos of the mine. Mr. Wood witnessed the foundation of his home become compromised by the numerous blasting events down in Sylvanian’s mine, and only recently found out that the collective activity at the mines is going to force exit 26 off I-75 to be rerouted to Ready Road, converting this sleepy road into the primary entrance/exit for mine-related traffic. In addition, with the approval of Michigan’s Governor Rick Snyder, US Silica’s Telegraph Road Mine proposal has Mr. Wood and his neighbors worried about the safety of their families, the air pollution they inhale from the dust and potentially airborne silica, and the truck traffic related noise, which will all undoubtedly influence their health and quality of life.
The primary take-home message from this stop on my tour was that we have only seen the tip of the iceberg with respect to the potential of frac sand mining to literally and figuratively alter communities. Other affected areas such as South Rockwood could learn quite a bit from the likes of LaSalle County, IL residents Anna Mattes, Tom Skomski, and Ashley Williams.
On to the dunes of Western Michigan and Ludington State Park!
Ludington State Park and Sargent Sand’s Mine
After several days in Grand Rapids, I traveled to Ludington State Park in Michigan (see Fig 4 below), along with documentarian/drone pilot Tom Gunnels and Kent County Water Conservation’s Stephanie Mabie. Our destination was the camp of Linda and Ron Daul, the residents spearheading an effort to make Sargent Sand more accountable and transparent in its mining operations. There camp is also located within and adjacent to one of the most sensitive ecosystems in North America.
This is a documentary produced by Tom Gunnels and his Hive•Mind team that incorporated interviews and drone footage from our Ludington/Sargent Sand mine tour August, 2015.
Ms. Daul was kind enough to organize a tour of the mine, Ludington State Park, and northern hardwood forest for us, as well as journalist Aaron Selbig, who produced a piece on the tour for Interlochen Public Radio. The scenery sans the sand mining infrastructure, noise, and related truck traffic was beautiful in this little corner of Michigan roughly half way between Grand Rapids and Traverse City.
Michigan’s unique and threatened dune ecosystems – and associated Jack Pine (Pinus banksiana) “plains” or “barrens” ecosystem1 – comprise of 116 square miles of coastline along Lake Michigan. Unfortunately, they are simultaneously deprived of the fire regimes they require to regenerate, and are targets for the production of frac sands with Ludington State Park being the primary example. This makes the feasibility of reclaiming original plant communities dubious at best. (There have been mixed results associated with reclamation efforts, for example, at the former Rosy Mound Standard Sand Corporation’s mine 80 miles due south in Grand Haven, see Fig. 5.)
The largest obstacle to reclamation of sand mines along Lake Michigan is the inability of practitioners to document and replicate the many “microenvironments,” which as Peterson and Dersch pointed out:
…are the small environments created by differences in temperature, moisture, and light intensity within the sand dune ecosystem. Examination of these small environments is essential to a clear understanding of the ‘whole’ ecosystem. The diversity of organisms in sand dune areas is made possible by the variety of habitats found in relatively small areas. Any alteration of the dune which homogenizes the ecosystem will allow less diversity of plants and animals.
The Great Lakes dune complex requires perennial vegetation, wind, and sand for continued formation and stabilization with a complex – and specifically adapted – mosaic of lichens, fungi, mosses, grasses, wildflowers, shrubs, and trees arranged in a complicated and multi-layered manner across much of Western Michigan’s lakeshore. As Michigan’s DNR put it:
Without sand dune plants, the integrity and preservation of a stable dune complex cannot exist.
In combination with the Michigan Supreme Court’s constant fiddling of the intent and letter of mineral extraction law, namely the “very serious consequences” clause in House Bill 4746 (2011), you have the makings of a scenario that could eliminate upwards of 16 square miles of Michigan’s critical dunes in the coming years or 9-14% of the entire complex.2
In addition to Pitcher’s Thistle, systems – like those found along the western edge of Michigan – are home to more than 15 endemic, or nearly so, plant species such as:
Wormwood (Artemisia campestris, aka the source of Absinthe),
The early colonizer sea-rocket (Cakile edentula),
Clustered Broom-Rape (Orobanche fasciculata),
Harebell (Cakile edentula, at the edge of Sargent Sand’s Ludington mine), and
Hoary Puccoon (Lithospermum canescens), and the species most responsible for dune stabilization Marram Grass (Ammophila sp.).
Additionally, these dunes are critical to the life-cycles of more than 10 different species of birds, reptiles, and herbivores including the Eastern Hog-nosed Snake, Eastern Box Turtle, American Goldfinch, and everybody’s favorite, the White-Tailed Deer.
Table 1. Number of Threatened, Endangered, and Rare Plant Species within Western Michigan’s Dune Complex
Criteria
# of Species within Michigan’s Dune Complex
Michigan Threatened Species List
72
Michigan Endangered Species List
7
Michigan Rare Species List
3
Extinct
4
US Endangered Species List
1
US Threatened Species List
11
Modified from State of Michigan Department of Natural Resources, Geological Survey Division, 1979.
Finally, it is of importance to mention the final stage of dune succession are the beech-maple forests, which take an estimated 1,000 years to be achieved according to Jerry Olson (1958). With that said let’s take a look at some of the pictures and testimonial I gathered during my trip to The Great Lake(s) State…
The Photos
A. Sylvanian Minerals and US Silica, South Rockwood, Monroe County, MI from Doug Wood’s barn
Location where below photos were taken, showing the Sylvanian Minerals and US Silica Mine Complex, South Rockwood, Monroe County, MI
The cards are definitely stacked against you when there is a silica quarry right next door to your dream home/property. We toiled for years to green it up with trees and grass, a labor of love for our “place in the country”. I mean, what’s not to love about semi-truck traffic, air pollution, house tremors not to mention plummeting property values! Since South Rockwood village annexed the quarry in 2010, placing a quarry wall literally 300 feet from my home, we deal with noise of crushers, loaders, drilling for blasting, and blasting. All the while we are left to wonder what kind of garbage we are inhaling since there seems to be NO REGULATIONS, AIR MONITORING OR DUST CONTROL MEASURES AT ANY TIME!! And if that isn’t enough, the village wants to relocate the freeway ramps to our road for the quarry’s trucking convenience.
Al (Chip) Henning, Ludington, MI
Sargent Sand Company has owned this site since the 1920s. The Big Sable Dune Complex is roughly twice the size of Sleeping Bear Dunes National Lakeshore, and includes the Nordhouse Federal Wilderness. If Sargent completes their mining as projected over the next 30-40 years, the Ludington Dunes (about 40% of the Complex) will be 60-70% destroyed/mined/removed, sent primarily to Pennsylvania for hydraulic fracturing in the Marcellus Shale formation. Sargent has removed 10-15% of the Ludington Dunes, to date, and faces permit renewal in January 2016. My family owns several properties which abut Ludington State Park, whose lands surround the Sargent property narrowly on three sides. Our property lies 1200 feet from the Sargent operations at closest approach; aside from the unsustainable removal of the sands, the noise from Sargent’s 24-7-365 operations is frequently intolerable.
Linda Bergles Daul, Ludington, MI
Fracking sand is mined from ancient geological sand deposits, extremely rare across the globe. In Michigan, the Sargent Sand – Ludington (State Park) Site, on the west coastline of Lake Michigan, enjoys a controversial, grandfathered permit to mine irreplaceable sand in critical dunes for horizontal fracking application. When the Sargent Sand mine is operating, the peaceful retreat of Hamlin Lake might as well be a downtown Chicago construction site, sharing heavy truck traffic, air pollution and mine numbing noise with our Pure Michigan visitors. The beauty and majesty of Ludington State Park has enriched my life. The critical dunes are one of Michigan and LSP’s most spectacular natural features – they also are one of our most fragile! The dunes are a phenomenon unique to the State of Michigan and yet we allow permitted critical sand dune mining right next to LSP. Sargent sand expansion towards LSP resulting in the removal of 200 year-old stabilizing trees, dredging to create artificial lakes, disregard for wildlife and the critical dune ecosystem, should be addressed within LSP master plans. I would like to see a world-class, university associated educational program established at Ludington State Park, addressing dune ecosystems. The LSP master plan should deliberately study the impact of Sargent Sand Mining operation and propose a broader vision that will consolidate the park in a way that preserves its beauty for future generations. [Furthermore] The State of Michigan Sec. 35302 The legislature finds that: (a) The critical dune areas of this state are a unique, irreplaceable, economic, scientific, geological, scenic, botanical, educational, agricultural, and ecological benefits to the people of this state and to people from other states and countries who visit this resource. EXCEPT if the activity is involved in sand dune mining as defined in part 637.
Sargent Sands sand mining has been viewed as mainly negative in the Ludington-Mason County community. This company was “dormant” until hydraulic fracturing became somewhat popular. Most citizens and visitors do not like to see the dunes removed in this area so close to the Ludington State Park. Destruction of critical dune area and possible endangered plants are the main concerns. Other impacts to this community include the immense noise created by the mining for families with homes by the mine and all the trucks going through town to the freight trains. Another issue is the wear on the roads. Also mentioned to me was the time spent waiting at the train crossings because of the sand being transported to other areas via trains. I really haven’t heard any positive comments. My guess would be that the mining creates jobs for the truckers, train workers, and of course the employees of the company. As far as in the future there are rumors that Sargent Sands will continue to mine and then make the area a destination place with condos around the lake they created. This is turn will bring more traffic to the dunes, not a sustainable idea!
I really do “get it” in understanding that jobs are critically important for our State. Mouths are fed, bills are paid, colleges are attended. But the damage to Ludington left in Sargent Sands’ wake when it is done here someday will be permanent scars from the removal of Sand Dunes so rare and so beautiful, that I’m certain that we will all regret what we allowed to happen while on “our watch”. I believe that Ludington’s precious Sand Dunes are not really “ours”…to destroy or allow to be taken. They are timeless natural resources that we have simply been granted stewardship over by our own forefathers and mothers. Allow our children and great grandchildren the privilege of seeing and enjoying what we ourselves have been lucky enough to have seen and touched. “As a native Michigander and 13 year resident of Ludington, I can confidently tell anybody willing to listen that Sargent Sands is (at this very moment) irreversibly destroying one of Michigan’s last remaining precious and timeless natural resources. We… OWE IT to generations that follow us, the right to marvel at and enjoy what is one of this Country’s uniquely beautiful natural treasures… Ludington’s sand dunes. I ignorantly believed, at first, when Sargent Sands began mining sand again here that it would be something akin to raking one’s yard of leaves. When I had an opportunity to hike their mining operation’s perimeter, I witnessed what looks like strip-mining devastation. It’s saddens me that I was complicit (when I myself purchased some sand for my backyard from Sargent’s) but I am more frightened that our own DEQ (who should have known better) would have ever approved such disfiguring and permanent alteration to something so rarely seen in nature. I myself have marveled…at something that I believe only a few places on Earth possess…sand dunes so unique, so beautiful and so rarely seen (and…FREE to hike and to look at !) along a freshwater lake that happens to be what is increasingly being recognized as our Country’s lifeblood. In the Winter here when it snows, I often wonder how many people in other countries can even imagine what snow blowing in sand dunes looks like…the beautiful swirling mixture of sandy snow wrapping around dune grasses that stretch as far as the eyes can see –but now being trucked away. I ask our State, especially in light of Flint’s man made devastation, PLEASE do not allow this to continue when Sargent Sands’ permit expires in December of 2016. This sand mining destruction cannot be undone.
Additional Readings
Buckler, W.R., 1978. Dune Type Inventory and Barrier Dune Classification Study of Michigan’s Lake Michigan Shore, in: Resources, M.D.o.N. (Ed.). Michigan Department of Natural Resources, Lansing, MI.
Cowles, H.C., 1899. The Ecological Relationship of the Vegetation on the Sand Dunes of Lake Michigan. Botanical Gazette 27, 95-117, 167-202, 281-308, 361-391.
Cressey, G.B., 1928. The Indian sand Dunes and Shore Lines of the Lake Michigan Basin, The Geographic Society of Chicago Bulletin. The University of Chicago Press, Chicago, IL.
Daniel, G., 1977. Dune Country A Guide For Hikers and Naturalists. The Shallow Press Inc., Chicago, IL.
Dorr, J.A., Eschman, D.F., 1970. The Geology of Michigan. University of Michigan Press, Ann Arbor, MI.
Kelley, R.W., 1962. Sand Dunes, A Geologic Sketch, in: Conservation, M.D.o. (Ed.). Michigan Department of Natural Resources, Lansing, MI.
Koske, R.E., Sutton, J.C., Sheppard, B.R., Ecology of Endogone in Lake Huron Sand Dunes. Canadian Journal of Botany 53, 87-93.
Olson, J.S., 1958. Rates of succession and soil changes on Southern Lake Michigan sand dunes. Botanical Gazette 119, 125-170.
Peterson, J.M., Dersch, E., 1981. A Guide To Sand Dune and Coastal Ecosystem Functional Relationships, in: Service, M.C.E. (Ed.). Michigan Cooperative Extension Service, Lansing, MI.
Ranwell, D.S., 1972. Ecology of Salt Marshes and Sand Dunes. Chapman and Hall, London, UK.
Reinking, R.L., Gephart, D.G., 1978. Pattern of Revegetation of a Shoreline Dune Area, Allegan County, Michigan. The Michigan Academician 11.
Thompson, P.W., 1967. Vegetation and Common Plants of Sleeping Bear. Cranbrook Institute of Science, Bloomfield Hills, MI.
Footnotes for 7 Sand Mining Communities, 3 States, 5 Months – Part 2
Michigan’s DNR describes this ecosystem as having “always contained few large trees and little or no old growth. A forest where soils are dry and the vegetation sparse, it is called a barrens. A forest periodically swept by raging fires, only to spring back, fresh and revitalized. A forest which is amazingly productive and biologically diverse, providing homes for numerous plants and animals, many of them [endemic]. Today [we are]…seeking to extract its resources, enjoy its beauty, explore its secrets, and preserve its life. The jack pine forests can exist, only if we care.”
As Michigan State researchers pointed out the Michigan coastal dune ecosystem exists in small fragments along the Atlantic Coastal Plain but nowhere else in the world
In February 2014, the FracTracker Alliance produced our first version of a national well data file and map, showing over 1.1 million active oil and gas wells in the United States. We have now updated that data, with the total of wells up to 1,666,715 active wells accounted for.
Density by state of active oil and gas wells in the United States. Click here to access the legend, details, and full map controls. Zoom in to see summaries by county, and zoom in further to see individual well data. Texas contains state and county totals only, and North Carolina is not included in this map.
While 1.7 million wells is a substantial increase over last year’s total of 1.1 million, it is mostly attributable to differences in how we counted wells this time around, and should not be interpreted as a huge increase in activity over the past 15 months or so. Last year, we attempted to capture those wells that seemed to be producing oil and gas, or about ready to produce. This year, we took a more inclusive definition. Primarily, the additional half-million wells can be accounted for by including wells listed as dry holes, and the inclusion of more types of injection wells. Basically anything with an API number that was not described as permanently plugged was included this time around.
Data for North Carolina are not included, because they did not respond to three email inquiries about their oil and gas data. However, in last year’s national map aggregation, we were told that there were only two active wells in the state. Similarly, we do not have individual well data for Texas, and we use a published list of well counts by county in its place. Last year, we assumed that because there was a charge for the dataset, we would be unable to republish well data. In discussions with the Railroad Commission, we have learned that the data can in fact be republished. However, technical difficulties with their datasets persist, and data that we have purchased lacked location values, despite metadata suggesting that it would be included. So in short, we still don’t have Texas well data, even though it is technically available.
Wells by Type and Status
Each state is responsible for what their oil and gas data looks like, so a simple analysis of something as ostensibly straightforward as what type of well has been drilled can be surprisingly complicated when looking across state lines. Additionally, some states combine the well type and well status into a single data field, making comparisons even more opaque.
Top 10 of 371 published well types for wells in the United States.
Among all of the oil producing states, there are 371 different published well types. This data is “raw,” meaning that no effort has been made to combine similar entries, so “gas, oil” is counted separately from “GAS OIL,” and “Bad Data” has not been combined with “N/A,” either. Conforming data from different sources is an exercise that gets out of hand rather quickly, and utility over using the original published data is questionable, as well. We share this information, primarily to demonstrate the messy state of the data. Many states combine their well type and well status data into a single column, while others keep them separate. Unfortunately, the most frequent well type was blank, either because states did not publish well types, or they did not publish them for all of their wells.
There are no national standards for publishing oil and gas data – a serious barrier to data transparency and the most important takeaway from this exercise…
Wells by Location
Active oil and gas wells in 2015 by state. Except for Texas, all data were aggregated published well coordinates.
There are oil and gas wells in 35 of the 50 states (70%) in the United States, and 1,673 out of 3,144 (53%) of all county and county equivalent areas. The number of wells per state ranges from 57 in Maryland to 291,996 in Texas. There are 135 counties with a single well, while the highest count is in Kern County, California, host to 77,497 active wells.
With the exception of Texas, where the data are based on published lists of well county by county, the state and county well counts were determined by the location of the well coordinates. Because of this, any errors in the original well’s location data could lead to mistakes in the state and county summary files. Any wells that are offshore are not included, either. Altogether, there are about 6,000 wells (0.4%) are missing from the state and county files.
Wells by Operator
There are a staggering number of oil and gas operators in the United States. In a recent project with the National Resources Defense Council, we looked at violations across the few states that publish such data, and only for the 68 operators that were identified previously as having the largest lease acreage nationwide. Even for this task, we had to follow a spreadsheet of which companies were subsidiaries of others, and sometimes the inclusion of an entity like “Williams” on the list came down to a judgement call as to whether we had the correct company or not.
No such effort was undertaken for this analysis. So in Pennsylvania, wells drilled by the operator Exco Resources PA, Inc. are not included with those drilled by Exco Resources PA, Llc., even though they are presumably the same entity. It just isn’t feasible to systematically go through thousands of operators to determine which operators are owned by whom, so we left the data as is. Results, therefore, should be taken with a brine truck’s worth of salt.
Top 10 wells by operator in the US, excluding Texas. Unknown operators are highlighted in red.
Texas does publish wells by operator, but as with so much of their data, it’s just not worth the effort that it takes to process it. First, they process it into thirteen different files, then publish it in PDF format, requiring special software to convert the data to spreadsheet format. Suffice to say, there are thousands of operators of active oil and gas wells in the Lone Star State.
Not counting Texas, there are 39,693 different operators listed in the United States. However, many of those listed are some version of “we don’t know whose well this is.” Sorting the operators by the number of wells that they are listed as having, we see four of the top ten operators are in fact unknown, including the top three positions.
Summary
The state of oil and gas data in the United States is clearly in shambles. As long as there are no national standards for data transparency, we can expect this trend to continue. The data that we looked for in this file is what we consider to be bare bones: well name, well type, well status, slant (directional, vertical, or horizontal), operator, and location. In none of these categories can we say that we have a satisfactory sense of what is going on nationally.
Click on the above button to download the three sets of data we used to make the dynamic map (once you are zoomed in to a state level). The full dataset was broken into three parts due to the large file sizes.
https://www.fractracker.org/a5ej20sjfwe/wp-content/uploads/2015/08/2015Update-Feature.jpg400900Matt Kelso, BAhttps://www.fractracker.org/a5ej20sjfwe/wp-content/uploads/2019/10/Fractracker-Color-Logo.jpgMatt Kelso, BA2015-08-03 14:19:532019-07-19 06:44:551.7 Million Wells in the U.S. - A 2015 Update
This page was updated in January 2018 to fix the embed code in the map.
Recently, FracTracker has been getting requests from residents in many locations to map large-scale oil and gas operations in their area. We now have content for Michigan, which happens to correspond with the release of additional map export functionality on FracMapper:
Each state is different in the data it makes available to the public, so it is always interesting to take a look at how new areas approach their duties of data transparency. After having recently produced maps for New Mexico and Colorado, I confess to being excited to work with data from a state that embraces designating locations in latitude and longitude (and doesn’t release data only with the archaic PLSS notation). But then, sometimes mapmakers are easy to please.
Far more important is the data made available for wells related to oil and gas development by the Michigan Department of Environmental Quality. Not only does it include the standard well type designations of “oil” or “gas”, but it also includes observation wells, storage wells, and injection wells. Altogether, there are 15 categories of well types.
As with many states, there are so many legacy oil and gas wells that mapping them all would overwhelm the online mapping software servers with data requests from over 63,000 wells. For that reason, the wells are restricted to those marked as being horizontally drilled, which reduces that number to 1,562. That should include most of the unconventional oil and gas extraction activity from recent years.
Also included in the data are point locations for the tops and bottoms of the well bore, which could be used in the future to map a generalized path of the horizontal wells beneath the surface.
FracMapper Export Feature Enhancement
The Michigan map is the first one produced with our new “Save as PDF” tool, which can be found in the “Export” toolbar.
The “Save as PDF” tool in the the Export Menu creates as landscape oriented 8.5″ x 11″ document, complete with title, scale bar, and legend. The legend contains only those map icons that are displayed in the view of the PDF.
Please note that if you wish to make multiple PDF files from the same map, it is currently required to refresh the webpage containing the map, or it will continue to produce the same map.
In the coming weeks, this functionality will be added to the other FracMapper entries that have already been published. We are also hoping to roll out additional functionality in the near future.
