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BioSafe
Technologies

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Forever Chemicals

Forever Gone

A Smarter, Safer Approach To PFAS Remediation

Ocean Water

Why Traditional Solutions
Fall Short

Biological Purification

Meet SEBS 

Specific Enzyme
Bacterial Solution

SEBS unique enzyme bacterial formulas bring together the best of biological remediation with the unique advantages of breakthrough microencapsulation technology to provide a byproduct-free solution that maintains its effectiveness across industries without the costly upkeep and disposal alternative methods require. 

1

Minimal ecological disruption reduces harmful byproducts and relies on natural processes for remediation.

2

Significantly reduces costs by requiring less equipment, labor, and energy compared to other methods.

3

Avoids risky transportation by treating contaminants on-site, minimizing disruption to local communities.

4

Wide-ranging contaminant treatment effectively addresses PFAS  and pathogens.

5

Supports long-term ecological balance by enabling natural resource recovery and preventing new contaminants.

6

Adaptable to various site sizes and contamination levels, suitable for small to large-scale projects.

The Benefits Of
Biological Remediation

Solving
A 90 Year
Crisis

Since their discovery in the 1930s, PFAS (Per- and Polyfluoroalkyl Substances) have silently accumulated in our environment.
 

These "forever chemicals" – a family of more than 15,000 synthetic compounds – quickly found widespread use due to their unique properties.
 

From non-stick cookware and water-resistant clothing to firefighting foams and food packaging, PFAS were created to make life easier.
 

But their persistence has created one of the most significant environmental challenges of our time.

Thermal Destruction

Industrial Smoke

An
Incomplete Burn

PFAS compounds resist breakdown by extreme heat because their strong carbon-fluorine bonds, among the strongest in chemistry, remain intact even during incineration, often fragmenting into smaller PFAS or other harmful substances that perpetuate contamination.

Breakdown Resistant

​Burning materials like AFFF (aqueous film-forming foam) can release smaller PFAS products, or Products of Incomplete Combustion (PICs), into the air which can travel significant distances, contaminating air, soil, and water in nearby communities.

Environmental Impact

​Initiatives are underway to classify certain PFAS chemicals as Hazardous Air Pollutants (HAPs) under the Clean Air Act to close regulatory gaps and protect public health.

Regulatory Risks

Ion Exchange Resins

Ion exchange resins are more expensive than GAC, with higher initial purchase and maintenance costs, making large-scale implementation financially challenging.

A Costly Investment

​Once saturated, resins must be replaced. Regenerating resins requires solvents and brine, which are difficult to manage and may not fully restore the resins, leading to additional waste.

Non-Regenerative

Disposal of PFAS-loaded resins must be managed carefully to prevent further environmental contamination. Improper disposal can lead to the release of PFAS into soil, water, and air, delaying the challenges of contamination instead of solving them.

Complicated Disposal

Ion exchange resins

Costly Ion
Exchange
Rates

Blue Materials Design background

Breakthrough Microencapsulation Technology

Microencapsulation is a cutting-edge technology that encases active ingredients in a protective coating or matrix, forming microscopic capsules ranging from 1 μm to several hundred micrometers.

This innovative process safeguards our proprietary bacterial enzyme formula, which is custom-tailored for each application.

The benefits of microencapsulation:
 

  • Protection
    Shields sensitive compounds from degradation, preserving their potency.

     

  • Controlled Release
    Enables precise delivery of active ingredients for maximum impact.

     

  • Enhanced Effectiveness
    Boosts the efficiency and performance of additives.

     

  • Expanded Applications
    Broadens the usability of ingredients across diverse conditions.

     

  • Cost Efficiency 
    Ensures optimal dosage, reducing waste and saving resources.

Granular Activated Carbon

Upkeep And Disposal

Activated Carbon systems require more space compared to technologies like ion exchange resins, increasing operational complexity. Spent GAC (Granular Activated Carbon) must be disposed of or reactivated, adding significant expense and complexity to the process.

Frequent Saturation

These systems can become saturated with PFAS and other contaminants, requiring frequent replacement, which is costly and logistically challenging—especially in systems with high organic matter.

Limited Effectiveness

Granular Activated Carbon (GAC) is less effective at removing shorter-chain PFAS compounds, like Perfluorobutanesulfonic acid (PFBS) and Perfluorobutyrate (PFBA), due to their lower affinity to the carbon surface.

Granular activated carbon

A Larger Than
Granular
Footprint

Cleaner. Safer. Smarter.

Experience the benefits of microencapsulated bioremediation solutions that preserve resources, optimize efficiency, and deliver reliable results.

Reverse
Osmosis

Regular Maintenance

To protect osmosis membranes from fouling caused by particles, organics, and hard substances, pre-treatment steps are often necessary. Post-treatments such as remineralization and pH correction are required to make the treated water suitable for consumption and to prevent pipeline corrosion.

Wasteful Extraction

These systems often consume 3-5 times more water than they treat, raising water conservation concerns in resource-limited areas, while also removing not only contaminants but essential minerals like magnesium, calcium, and iron, resulting in water that may be less suitable for drinking or cooking.

Problematic Disposal

Reverse Osmosis (RO) systems produce concentrated waste streams (referred to as concentrate or brine). Options such as surface discharge, sewer systems, deep well injection, or evaporation ponds all lead to further environmental contamination and regulatory challenges.

Reverse osmosis control panel

An Overflow Of Expenses

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Explore PFAS Contamination Across the U.S.
We’ve included an interactive map from the Environmental Working Group (EWG) to highlight the widespread presence of PFAS contaminants in water supplies across the country. 

 

Since 1993, EWG has worked tirelessly to expose outdated legislation, harmful agricultural practices, and industry loopholes that jeopardize public health and environmental safety.
 

Learn more about EWG’s mission and work at www.ewg.org.

123-456-7890

1420 North Main Street
Osceola, Iowa 50213

Bio Safe Technologies logo

BioSafe
Technologies

Precision Science
Proven Results

1-855-333-3568

1420 North Main Street
Osceola, Iowa 50213

Bio Safe Technologies logo

Precision Science
Proven Results

BioSafe
Technologies

1420 North Main Street
Osceola, Iowa 50213

1-855-333-3568

1420 North Main Street
Osceola, Iowa 50213

Precision Science
Proven Results

PFAS_Contamination_Map_from ewg.com

Source: Environmental Working Group (EWG)
PFAS Contamination Map

200 Million Americans Threatened By PFAS Contaminants

Tests have revealed PFAS contamination at more than 7,457 locations across the United States, including in all 50 states, Washington, D.C., and two U.S. territories. These affected sites include drinking water supplies, military installations, and industrial facilities. As a result, the drinking water of as many as 200 million Americans may be impacted by PFAS chemicals.

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