The Midwest Floods of 2019

Preparing for the Worst by Learning from the Past

Spring flooding in the Midwest has caused incredible damage to cities, towns, and agriculture, with the National Oceanic and Atmospheric Administration (NOAA) estimating $37.3 billion in damages. The catastrophic floods in the Midwest and Plains states, reminds us of the Great Flood of 1927 and 1993. But we’ve learned that it’s the conditions and preparation that precede the flooding that determine how much damage will go unstopped.

Potential causes of massive flooding:

• Snowpack and frost
• Moisture level in soil
• Streamflow and precipitation

These factors are all potential contributors to flooding. Precipitation in seven of nine Plains and Midwest states during fall of 2018 outweighed precipitation during fall of 1992. Similarly, eight of nine Plains and Midwest states had a wetter winter during 2018 and 2019 than in 1992 and 1993.

As the soil becomes saturated, it has trouble absorbing heavy rainfall, causing runoff into creeks and rivers.  As the rivers fill up, the potential catastrophic floods increase.

In 1993, a cluster of large thunderstorms, known to meteorologists as mesoscale convective systems, dropped an incredible amount of rain on the Midwest and Plain states. Conditions for rainfall like this most often depend on air temperature.

Surviving a Flood

Three lives have been lost due to the flooding in the Midwest this year, according to NOAA’s weather and climate disaster table of events. The Department of Homeland Security has tips for facing floods natural disasters.

• Always evacuate if you are told to
• Don’t drive around barricades
• Stay off bridges
• Avoid contact with flood water
• Move to higher ground

The time to prepare for a flood is now. Know the flood risks in your area, make a plan, and subscribe to your community’s emergency warning system. Learn evacuation routes and plan ahead to protect your home and businesses.

Proven Solutions When Stormwaters Rise

According to NOAA , while states in the upper Mississippi and Missouri River basins (Nebraska, Minnesota and Iowa), are at risk of flooding, states in the U.S. east of the Mississippi River and portions of California and Nevada are also at risk of minor floods.

Landslides, erosion, and overflow of water systems are all potential effects of large-scale flooding. Sediment left behind as a result of flood waters, reduces water quality affecting the water supply.
Flood waters can also contain debris and nutrients, which can affect the water quality, encouraging the growth of algae.

Controlling sediment dispersion with a turbidity curtain helps to control erosion, blocking sediment and protecting wildlife and surrounding vegetation. Curtains like this are used to keep bodies of water silt free and keeping the quality of water high.

Needs can vary when protecting your home or business from the effects of flood water. Contact GEI Works at +1-772-646-0597 to receive one-on-one assistance with all your flood prevention requirements.

Staked Turbidity Barriers: Tips for Success

Staked Turbidity Barriers are an essential best management practice on job sites because they serve an important purpose: protecting surrounding environments from contaminated stormwater runoff. Stormwater accumulates and causes flooding, collects sediment and debris, gathers force and erodes land in its path. The buildup is then dumped into nearby lakes, streams, and other watersheds, resulting in water pollution.

Project sites, which disturb the soil during the construction process, are especially vulnerable to this rapid, aggressive sheet flow. That is why stormwater management measures have been put in place by government agencies such as the Environmental Protection Agency (EPA) and the Department of Transportation (DOT). These organizations offer guidelines to help minimize the effects of the stormwater flow.

FDOT Design Standards for TurbidityBarriers, an example of guidelines from a government agency.

Construction sites use many best management practice (BMPs) products and solutions as part of their Stormwater Pollution Prevention Plans (SWPPP). One of the most common types is staked turbidity barriers.

There are two versions of the staked barrier. The first is the black-staked silt fence, which is made of permeable geotextile fabric that filters the stormwater, allowing water to pass through as it collects sediment. The second is the yellow-staked turbidity barrier, made from impermeable PVC that also collects sediment, but then redirects sheetflow or standing water instead of filtering it. Both are useful for certain applications, and depending on climate, are often used in conjunction with each other. For sites looking to redirect water flow to avoid contamination, yellow PVC staked turbidity barrier is the GEI Works solution.

Why Use the Yellow Staked Turbidity Barrier?

Many sediment and erosion control products exist, so it’s a natural to wonder: why use staked turbidity barriers? A few reasons for the staked turbidity barrier’s popularity and usefulness include:

• Affordability
• Easy Installation
• Compact for Transportation
• High visibility (so site workers and heavy equipment operators  can easily spot it)
• Satisfies regulation requirements
•  Impervious PVC material deflects water flow

These advantages are magnified by correct installation, or negated by improper installation. A poorly-installed staked turbidity barrier system is the number one reason they fail.

When Barriers Fail: Tips for Correctly Installing a Staked Barrier System

In order to know what to do, you have to know what not to do. So what exactly causes the barriers to fail? Several factors are responsible. Take heed and do them well and you increase the chances for a successful and properly-managed site protected against stormwater runoff. Ignore or do them hastily and the curtains will not perform as intended, leaving your site open to failed inspections, fines, and environmental implications.  

The barriers are a deceptively simple concept. However, there are several ways they are improperly installed on construction sites.

Incorrect  Placement. Fencing should not just be put up randomly or whichever way is most convenient. It must be well thought through ahead of time. To understand placing, it helps to understand the flow and absorption of water at the site. Stormwater runoff takes the path of least resistance, so the lowest part of the fence will get the most water flow and accumulated sediment buildup, especially with saturated or poorly draining soil types.

Each site has unique contours that affect how sheet flow will respond to a storm or rainfall event. Identifying these contours and how water interacts with the topography can determine the site conditions and needs. When these factors are not taken into account, the stormwater will pool in the wrong area or at too great of a concentration, overwhelming and putting a strain on the fence. For instance, long, straight runs of fencing are not recommended because the flow is not being managed. Curving fence into a “J” shaped hook on the lower end is more effective because it controls where the water will go, and provides increased settling time.

Inadequate Amount and Choice of Materials. Saving money on the front end by skimping on fencing length or proper stakes can cost much more in the long term. The proper amount of material is 100 feet of silt fence per 10,000 square foot of disturbed area, with no run of fencing more than 200 feet before setting up a new fence. Sometimes more than one staked barrier system is required for areas with more intense flooding and sediment buildup. More fencing is needed when the barrier is overwhelmed after a rainfall. Water should not overflow the top of the fence.   In some areas, dual parallel staked fence systems with several feet of natural vegetation between them may be required.

Proper quality materials make a difference in the success of a turbidity barrier. GEI Works’ Triton-Staked Turbidity Barrier is made of  marine-grade 350 lbs. high strength PVC material. It is available in 13 oz., 18 oz., and 22 oz. weights. The stronger the material, the less likely it is to tear, making the 22 oz. turbidity barrier a strong and resilient option  from GEI Works. Many state DOT guidelines recommend using at least an 18 oz. fabric.. The second part of the barrier system is the stakes. Wood stakes or steel stakes are acceptable, although steel stakes are recommended by the EPA. The stakes should be driven at least 2 feet into the ground and 4-5 feet apart to ensure they stay upright and steady.

Improper  Prep. Proper trenching is one of the most important steps in installing staked barriers.  Trenching reinforces the strength of the material and ensures the waterflow and sediment doesn’t discharge beneath the barrier system. The trench should be dug 8 inches deep. Then the PVC curtain and stakes should be placed into the trench, backfilling the bottom 8 inches of the barrier, while ensuring that there are no gaps. Trenching creates a seal, strengthening the system as a whole and making it more impermeable as well.

“Set It and Forget It” The turbidity barrier system is not designed to be set up and then ignored. Regular inspections, especially after a bad storm or rain event, can help to spot issues before they develop into a bigger and more costly problem. Even one broken or fallen area of fencing can make the whole section ineffective and cause it to fail. Sediment deposits that have gathered along the fence should be removed when they have reached half of the fence’s height. It is not uncommon for the barriers to be damaged during construction work by workers or machinery. Damaged sections should be  fixed immediately before the entire system needs to be replaced.

A More Effective Staked Barrier System

Most staked turbidity barrier systems that fail could have been prevented with proper planning and installation. Staked Turbidity Barriers maximize their effectiveness when they are:

• Properly placed on a project site’s specific slopes and contours
• Used with an adequate amount and choice of material
• Installed with stake posts at a sturdy depth and spacing
• Backfilled and compacted with soil along the fence with no gaps, to reinforce the strength of the fence system.
• Maintained regularly and repaired or replaced as needed.

By incorporating these tips, projects can stay ahead of any potential obstacles on the job site. A well-maintained site that has a properly planned and implemented system is better for all by keeping runoff from negatively affecting other areas off site such as protected wetlands, water bodies and other natural resources.

For more information on GEI Works’ Staked Turbidity Barriers for sale, read our flyer or contact our GEI Works product specialists by calling 772-646-0597 or requesting a quote.

Wildfire Part Three...

The Impacts to Water from Wildfire

Wildfires cause devastating heat, fire, and burning destruction. After the wildfire’s ash settles and the rain pours, mudslides quickly erode the burned land, carrying a swath of debris and muddy sludge downhill. As runoff pours downhill, it enters into waterways such as streams and lakes, degrading the water quality. This impact to water is the focus of part three in our wildfire series.

We will discuss where our water supply comes from, how wildfire affects it, what contaminates it, and water pollution solutions for preventing and treating it. We will demonstrate how the Thomas Fire in southern California has affected the water supply in the county of Ventura, and how they are responding. Part one, which focuses on water storage preparation, is here. Part Two, which focuses on erosion control, is here.

The Importance of Clean Water
Clear and clean water is one of the most basic of human necessities. We need it to drink and replenish our bodies. We need it to irrigate crops to grow food. Aquatic life needs it to breathe, and to swim freely and see clearly. Clean water matters and enables us to function and flourish.

Where Does Our Water Supply Come From?
The majority of our water sources originate from forested land. Since forests provide so much of our water supply, it’s important to protect the forests’ watersheds .

According to the U.S. Geological Survey:

• 50% of southwestern U.S. water supply comes from forests
• 80% of freshwater in the U.S. begins in forest lands
• 3,400 public drinking water systems are in national forest watersheds

Over 70 million acres have burned in the U.S. in the past 10 years, according to the U.S. Forest Service. Unhealthy forests can negatively affect our water quality, so there is reason to have concern, particularly after big wildfires. Generally, the water quality is better coming from a forest area than elsewhere, but after a mega wildfire, such as the Thomas Fire, that natural water supply can be severely affected and contaminated.

Contaminants in Runoff from Wildfire

Contaminants from post-wildfire runoff harm aquatic life in ecosystems, killing fish and plants. They also compromise water quality in water district municipalities, causing boil water alerts and a diversion of water sources which leads to unsafe low water pressure. The severity of the wildfire determines the degree to which the water quality degrades. It is based on several factors: post-wildfire precipitation, watershed topography and ecology of the local region.

Some of the common contaminants found in water runoff are elevated heavy metals (including iron, lead, nickel, and zinc), phosphorous and nitrates, pesticides, remnants from flame retardant, and chemicals. Ash and debris can also contaminate water bodies. The debris accumulates and travels in stormwater runoff to new locations. It can also be blown by the wind into water sources. The communities surrounding the Thomas Fire burn area understand this contamination all too well.

The Thomas Wildfire’s Effect on Water Quality

On January 9th, torrential rains fell in Ventura County, close to the southern California Thomas Fire burn area. The recent fires burned at such high temperatures through the upper watershed that it left behind a significant amount of ash and debris. The muddy runoff gathered debris as it rolled downhill and into the water ways. It overwhelmed the Matilija Dam, which flows into the main tributary of the Ventura River. This caused the Casitas Municipal Water District to stop pumping water from the river to prevent potential water quality impacts to their Lake Casitas reservoir.

While this prevented contamination, it also decreased the available water supply. The water pressure and supply had already been lower from power outages and from firefighters drawing water to fight the Thomas wildfire. This pollution only made the problem worse.

The Matilija Dam Webcam on January 9th.

             Severe turbidity entering the water supply.              

A normal day for the Matilija Dam

The Casitas Municipal Water District has plans to use water pollution prevention products to help. The products will clean up and filter the ash and debris, allowing the water district to begin pumping again from formerly polluted waterways, such as the Ventura River. According to Ron Merckling, a spokesperson for the water district, turbidity curtains will block sediment from flowing downriver and drop it to the surface. They are being placed on Santa Ana and Coyote Creeks and near an intake structure for Castaic Dam. Booms that are up to 20 feet wide will skim the surface and will block floating material such as wood and brush. 

Ventura County is just one of the many communities facing these challenges. Neighboring communities such as Montecito have also had water breaks, power outages, and disruptions to their water supply. Fixes for these water quality issues can take weeks or even months. Fortunately, there are many options for minimizing the effects to water quality.

Solutions for Improving or Maintaining Water Quality after a Wildfire 

There are several solutions to minimize your contribution to contaminated stormwater runoff. These products can be used either before or after a rain event. 

Erosion Control to Minimize Impact to Water Quality

The first solution is to prevent the sediment, debris and contaminants from entering the waterways. Soil erosion control products slow and filter the spread of the runoff before it enters water bodies.

• Straw Wattles can help prevent toxic urban runoff from entering water streams. They are placed perpendicular to the flow of the water. 
• Straw or coir mats replace the hardened, burned earth with an absorbent ground cover. 
• Silt fences collect sediment and slow the speed of water.

Protecting Stormwater Drains and Other BMPs

Another solution is to use stormwater best management practices (BMPs), such as drain guards and ditch checks. These filter or stop the flow of water. If the stormwater drains are not maintained, it can lead to costly cleanup. Avoid expensive fixes by maintaining the drains.

• An Overgrate Drain Cover is placed over the drain to keep sediment and debris out of the drain.
• An Undergrate Drain Cover hangs underneath the drain cover to catch the debris below the drain.
• A Ditch Check acts like a temporary dam to filter sediment runoff.

Water Pollution Prevention: Turbidity Curtains and Debris Booms

Another effective preventative solution for water-side property owners, associations and municipalities is the use of turbidity barriers. Turbidity curtains and booms are used as a last resort, once the turbidity and sediment has already entered the waterways. They float in the water, containing and slowing the settle of the sediment as it passes through the water.

We have many variations of turbidity curtains and booms depending on needs and situation.

• Turbidity Curtains slow the spread of sediment so it has time to settle to the bottom. Several types are available depending on water conditions.
• Debris Booms collect floating branches and trash debris.
• Staked Silt Barriers can be placed in shallow water (30” deep or less) to collect sediment and redirect the flow of water.

An Investment for the Future

The government is also finding ways to help. The U.S. Department of Agriculture (USDA) announced recently on January 17th that it’s investing almost $32 million this year to mitigate wildfire risk, improve water quality, and restore healthy forest ecosystems. It will include supporting important watersheds, and reconnecting ecosystems that are vital reservoirs of biodiversity. The U.S. Forest Service is an agency of the USDA.

The Future of Wildfire

Wildfires are a complicated and dangerous phenomenon. They can swiftly burn thousands of acres leaving behind charred earth and destroying communities, properties and lives. They can lead to massive mudslides and flooding, steep erosion of hillsides, and polluted runoff. They can affect the water supply and contaminate public and private water sources. 

Understanding the process of wildfires can help us in the future. Using preventative measures before, during, and after the wildfire can help control and mitigate its effects. Working together as a community, we can become more knowledgeable and better prepared for the future of wildfire.

If you have questions about any of the wildfire solutions we discussed, please contact us at 772-646-0597 or visit us at GEI Works.

RESOURCES

LA Times: New Danger in California’s Vast Fire Zones

USGS: Water Quality after a Wildfire

Mother Jones: Toxic Ash is Clogging Drinking Water

Wildfires: Part Two...

What Happens After the Wildfire

In Part One of the wildfire series, we discussed the current and ongoing situation with wildfires—how the “new normal” is affecting the way fire-risk areas prepare for future wildfires. One important part of that preparation is water storage products, which includes water trailers, pillow tanks, frame tanks, onion tanks, and rainwater corrugated tanks. A link to Part One can be found here.

In Part Two, we will discuss the recent catastrophic mudslides in southern California, what caused these mudslides, and what can be done to minimize them in the future. We will also talk about erosion control products and the role they play in both prevention and revitalization in wildfire-damaged regions.

When the Rain Falls and the Land Slides

On the early morning of January 9th, just over a month after the Thomas Wildfire in southern California first raged burning a record-breaking 281,000 acres, a pounding rain began in Santa Barbara and Ventura Counties. The storm poured rain with such intensity that it dropped almost an inch of rain in 15 minutes—4 times the amount of rain needed to trigger debris flow. The rain in the area very rarely falls this fast and this heavy. Within 24 hours, a devastating 5 inches of rain would accumulate in the region.

Rain would be a blessing during a fire or in the middle of a drought. But right after a wildfire has just destroyed an area’s forests and vegetation, rain is a disaster.  Hardened earth in a fire-ravaged area does not absorb water the way it normally would. So instead when the rain fell, it slid effortlessly down the mountains , hills and slopes like a theme-park water slide. On its way down, it took with it fallen and burned debris, sludgy sediment, loosened rocks, continuing and building velocity until reaching the southern California cities of Montecito and Carpinteria. 

Once there, it pummeled the small communities with mud and debris, surprising the residents with its sudden force and destruction. “It looked like a World War I battlefield,” said Bill Brown, the Santa Barbara County sheriff. “It was literally a carpet of mud and debris everywhere with huge boulders, rocks, downed trees, power lines, wrecked cars—lots of obstacles and challenges for rescue personnel to get to homes, let alone get people out of them.”

By the time the mudslides were over 20 people had died, hundreds more rescued and over 100 homes were destroyed. 

While the mudslides are over for now, unfortunately, the flooding risk in the fire-ravaged Thomas Fire area is just beginning. According to FEMA, flooding can be a problem for up to five years following a wildfire, until natural vegetation has time to take root again and regrow.

What Can You Do?

So what can be done in the meantime to prevent further mudslides if you are in a flood-risk region near a fire-devastated area?

Control of the soil is a crucial first step in prevention of mudslides after a wildfire.

To determine this on a broader scale, a U.S. Forest Service Burned Area Emergency Response (BAER) assessment team evaluates the watershed conditions in forests burned by wildfire. Because time is precious, the assessments often begin even before the wildfire is completely contained. The BAER team produces a post-fire report describing immediate emergency measures to reduce flooding risks and debris flow threats arising from the wildfire’s destruction. 

Steps Toward a Safer Future

The mudslides that affected southern California were tragic and a perfect storm of events—combining the largest wildfire in California’s history with unusually heavy rains. Erosion Control products can mitigate potential flooding in the future, saving the forest and the communities below.

Join us for the third and final installment on our wildfire series. In the next post we will discuss how wildfires negatively affect water quality in communities and how it can be treated and prevented. We will demonstrate several methods of filtration and proper best management practices.

RESOURCES:

LA Times: First Responders Faced Challenges

Washington Post: How the Harrowing Thomas Fire Planted the Seed for California’s Deadly Mudslides

Texas A&M Forest Service: Wildfire Recovery-Soil Erosion Control Practice Guide

BAER Treatments Catalog

Best Erosion Control Practices for Protecting Soil on Construction Sites

Humans were reshaping land before construction of the pyramids. Today, excavation and construction companies face one of the same problems as the ancients: erosion control.

Erosion is the process by which natural forces wear away a land surface. Water, wind, ice and gravity act relentlessly upon soils, detaching them from their base and carrying them away – often into waterways.

This happens frequently during rain as drops strike the soil, sending it airborne. On a construction site, shallow sheets of water can flow over the land and draw away loosened soil. Low areas are vulnerable to erosion as flows cut small channels to transport the washed-out material.

Negative impact of erosion
 
The problems associated with erosion go far beyond issues of land shape and aesthetics. Runoff can transfer soils into lakes, ponds, rivers, streams and other waterways, fouling them with turbidity and excessive silt. According to the Florida Department of Environmental Protection, about 4 billion tons of eroded materials enter waterways in the United States every year.

Erosion is bad news: It can disrupt storm water systems by plugging culverts and other areas designed to receive runoff. It also harms ecosystems by blocking sunlight in the water, inhibiting the growth of aquatic vegetation. Heavy turbidity can adversely affect fish populations by diminishing food sources, interfering with spawning and even clogging gills.

Basic controls

One of the best means of controlling erosion is vegetative cover. It imposes a barrier between the falling rain and the soil, stabilizes soil particles, slows runoff velocity and promotes absorbency. Mulch can also be effective in slowing the erosion process. These measures are particularly important on long slopes and banks.

But on a job site, such methods of erosion control are not always practical or even possible. That’s why contractors dealing with runoff issues should be eminently familiar with perimeter controls.




Dewatering

Removal of water from a project site carries the risk of discharging sediments that will find their way into area waterways. Taurus Dewatering Bags from GEI Works receive the discharge hose (2-, 3- and 4-inch) and fill up to capacity, filtering the exiting water safely from the sides of the bag. The debris and sediments stay behind for disposal. GEI Works also offers the Taurus Pipe Dewatering Sock for smaller applications. The larger, more heavy-duty Geotextile Dewatering Tubes are ideal for more substantial dewatering projects at such sites as agricultural ponds, paper mills and aquaculture facilities.

Turbidity Barriers
 
When erosion occurs and sediments do end up clouding a body of water, turbidity curtains are the last line of defense. The Triton line of turbidity barriers and silt curtains from GEI Works restrict suspended particles, promoting settling. Made to perform in varying levels of conditions – wave action, current, wind, etc. – the curtains hang in the water vertically and stop about a foot from the bottom, surrounding the source of turbidity. Suspended particles strike the curtain and change course toward the bottom where they settle beyond the containment area.
  
Erosion is a force of nature we will always manage imperfectly. But with the proper tools and best management practices, contractors can wage an effective battle. GEI Works is your ally in that battle. For more information on erosion control products, please feel free to contact the experts at GEI Works.

Preparation for a Rainy Day … a Disastrous One

Storms swirled off Hurricane Joaquin in early October, dumping historic levels of rainfall on South Carolina, flash-flooding populated areas, and overwhelming dams. On Oct. 3, Charleston recorded rainfall that ranged from 10 to 13 inches – record levels, according to the National Weather Service. The state is facing a possible $1 billion in cleanup and will be receiving federal disaster aid.

The storm’s death toll reached 17 in South Carolina, where 250 roads and 100 bridges are still closed. Coastal areas of North Carolina were also affected by the devastating storm.

The evening news covers these storm stories in detail. But the intricate planning and preparation that goes into such emergency responses often gets scant coverage. Behind the scenes is the unfolding of a process, carefully crafted to ensure minimal disruption and loss of life.

The key is preparedness

When states, counties and communities are faced with natural or manmade disasters, preparation is essential. That’s why these governing entities have supplies and equipment in advance of the storm. It better enables emergency personnel to enter harm’s way and respond to the profuse human needs in the disaster’s wake.

Items that help safeguard infrastructure from floating debris, water contamination and other storm hazards are already in storage long before the event’s forecast. Planning allows emergency personnel to help survivors, keep infrastructure in place, and pave the way to recovery.

Water storage

Among the first considerations is ensuring that potable water is available when a storm fouls existing supplies. One solution is to bring in a reservoir or tank for setup in an easily accessible area. Open-top or self-contained flexible tanks are a popular option among many emergency response teams because of their compact storage, lightness and small number of moving parts. The onion tank, named for its shape, is an open-top tank. Flexible and collapsible, the tank stores easily. When emergency response teams send in tanker trucks of potable water, the hose connects to a fitting on the onion tank. Its walls rise automatically to contain the water as the tank fills. Once drained of water, the tank’s PVC material won’t rot or grow mildew, and can be returned to storage safely.

The drinking bladder water tank is another option. These flexible “pillow” tanks lie flat and can store up to 210,000 gallons of drinking water. Because both the bladder and onion tanks are collapsible, they require only minimal space for storage, making them an optimal choice for disaster preparedness.

Booms and absorbents

Floating booms are also important for the control of debris headed into flooded areas, water intakes and bodies of water. Debris booms are an effective means of either deflecting or containing buoyant trash. Absorbent booms are deployed to control the spread of hydrocarbons or chemicals that can be released during a flood, further minimizing the negative impact on the environment. 

Dealing with the aftermath

Once the flood waters recede, a host of challenges remain. Low-lying areas where pooling remains will need to be pumped out. But simply pumping stormwater runoff into storm sewers or area waterways can introduce contaminants and high sediment content. This creates turbidity and other pollution problems that disrupt fragile ecosystems. Cleanup teams can pump large dewatering bags full of the sediment-laden water. These bags are made of a filtering geotextile that permits water to escape, leaving the suspended materials in the bag for disposal. Dewatering tubes function in the same manner but can accommodate much greater quantities.

Geotextile filters protect grates and stormwater drains from contaminants that are all-too-easily transferable into surrounding waterways. These best-management practices are another critical component of environmental protection after a storm.

Planning makes the difference

So be sure to consider exactly what your region might need in case of a disastrously “rainy day.” Prepare yourself and get a jump on the event so you can help lessen its catastrophic impact before it strikes. Call the experts at GEI Works for more information. Call (+1) 772-646-0597 or toll free at (888) 701-9889.

The Granite Environmental Blog Takes on Erosion and Pollution

Who is Granite Environmental and What Do We Do?

Granite Environmental is a small business located in the heart of Sebastian, FL.  Since 2006, we’ve been offering product solutions for a cleaner world. Specializing in erosion and pollution control products and site specific solutions for industrial spill clean-up applications as well as emergency use, we are a complete solution resource for all stages of the erosion and pollution project cycle:

-> Prevention -> Control -> Containment -> Recovery -> Disposal

Along with our product selection, Granite Environmental offers expert advice from trained technicians. Taking time to hear out your application or problem and developing an efficient and economical solution is what our team does best. We want to take that knowledge and experience to the next level by offering it to you in the form of a blog.  

Why Read The Granite Environmental Blog?

The Granite Environmental Blog will quickly become your trusted source for all things erosion and pollution. Not only will you have access to the latest news surrounding erosion and pollution, but you will also have the opportunity to increase your knowledge and hear real life experiences surrounding the world of erosion and pollution.

What Can I Expect?

With so much to cover, it only seems fitting to start from the ground and work our way up: Soil Erosion. We’ll take a look at the causes, effects, and solutions with our resident educator, Professor Loam. We’ll learn where and how it’s affecting our world in the present time with our news agent, Terra Firma. We’ll read personal accounts of how soil erosion can be tackled while on the road with Clay.

Ready to get down and dirty? Let’s talk soil erosion!