Untreated Waste Brine
Shortly after filling with brine from Client’s ponds, the untreated pool turned green with algae.
Eastern Shore Microbes’ Halophilic Evaporative Applications Technology (H.E.A.T.) uses carefully selected naturally occurring microorganisms to treat waste brine. By matching the right microbes to the specific contaminants present in each brine environment, H.E.A.T. accelerates biological breakdown of organic waste while supporting natural evaporation processes.
The result is a simple, environmentally responsible approach to waste brine treatment.
"I decided to invest in ESM before it even had a contract because I believe microorganisms represent the next industrial revolution. By replacing high-energy, polluting chemical processes with elegant, programmed biological systems. I expect ESM will be able to achieve a level of efficiency, sustainability, and profit that traditional industrial technology simply cannot match."
~ Joe – Board of Directors
Industrial waste brine is complex and highly variable. Every brine stream contains its own mixture of contaminants and environmental conditions.
Brine may contain:
These brines originate from many industries, including:
Because each waste stream is different, effective treatment requires a tailored biological approach rather than a one-size-fits-all solution.
Eastern Shore Microbes begins every project by analyzing the chemical composition and biological conditions of the waste brine.
Using this information, our team determines the optimal combination of:
ESM maintains a large library of naturally occurring microorganisms, each with unique capabilities suited to specific contaminants and brine conditions.
All microorganisms used in the H.E.A.T. process are:
This targeted microbial selection ensures the treatment process is both effective and environmentally responsible.
| Other Methods | ESM Method | |
| Evaporation Rate | Decreases as salt increases, or requires increased energy input | Increases with increased salt concentration |
| Organics | Remain in crystals | Degraded into safe biomass |
| Minerals | Contaminated | Clean |
| Odors | Present (organics) | Odor Free (odors disappear from metabolism) |
| Acceleration | Must be chemically or mechanically accelerated | Naturally self-heating |
| Side Effects | Overspray, equipment breakdown, cooling, residual brine | Fresh clean water vapor, usable saleable crystals |
Step 1 – Brine Analysis
Each waste brine source is analyzed to determine contaminant composition, salinity levels, and pH conditions
Step 2 – Microbial Selection
From ESM’s extensive microorganism library, a specialized combination of halophilic microbes and nutrients is selected to match the specific characteristics of the brine.
Step 3 – Culture Development
Once the ideal microbial combination is identified and tested, the culture is scaled to produce a sufficient quantity for treatment.
Step 4 – Lagoon Treatment
The microbial solution is introduced directly into the brine lagoon or treatment basin. Once introduced, the microbes begin their work immediately.
Step 5 – Biological Breakdown
The microbes ingest and break down organic contaminants within the brine. As they metabolize these materials, they reproduce and rapidly expand the population of beneficial microorganisms within the lagoon.
Step 6 – Natural Evaporation Enhancement
During microbial metabolism, energy is released. A portion of this energy increases brine temperature, which accelerates natural evaporation processes.
As the microbes continue consuming contaminants, they produce safe natural byproducts such as:
The process is highly efficient. At completion, only approximately 2.4% of the remaining material consists of microbial biomass.
Eastern Shore Microbes conducted a controlled field demonstration in the Mojave Desert to compare natural brine evaporation with brine treated using the H.E.A.T. microbial system. Two identical test pools were filled with reject brine from a water treatment facility. One pool remained untreated while the other was treated with ESM’s proprietary microbial culture and nutrient mix.
Over several months, both pools were monitored for evaporation rates, temperature, salt accumulation, and brine concentration. The H.E.A.T. treated pool consistently showed faster evaporation, higher brine temperatures, and significantly greater salt deposition, demonstrating accelerated evaporation compared to the untreated pool.
At the end of the test, the untreated pool accumulated approximately 0.6 inches of salt, while the H.E.A.T. treated pool produced over 2.5 feet of salt, confirming the substantial increase in evaporation performance.
For more detailed information about the experiment and results, download the full whitepaper.
Shortly after filling with brine from Client’s ponds, the untreated pool turned green with algae.
Untreated waste brine shows fine salt crystals forming slowly through natural evaporation
After dismantling the test pools, untreated brine evaporation shows standard salt deposition with lower concentration levels.
ESM fertilized and inoculated the test pool with its specifically designed, proprietary H.E.A.T. system. Within the first week the pool turned the red color
ESM’s H.E.A.T. process causes rapid surface evaporation leading to large rafts of floating crystals
After dismantling the test pools, ESM’s H.E.A.T. process shows accelerated evaporation with more concentrated brine and enhanced salt formation.
| Mechanical Brine Disposal Methods | H.E.A.T. | |
| Long term operating cost (per gallon) | $.02–$.055 per machine $.40/gallon injection wells |
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| Contaminant Degradation | NO | YES |
| Initial Investment Treating Lagoons | $28,000–$50,000,000 | <$2,000/1MM Gallons |
| Pre Treatment Needed | YES | NO |
| Additional Infrastructure | YES | NO |
| Other Considerations | May need: Fences for sprays, cement pads, electrical service, plumbing, buildings, control systems and software, new lagoon construction, purchase of additional land, etc. | None |
The effectiveness of H.E.A.T. is based on well-established microbiological principles involving halophilic microorganisms—microbes that naturally thrive in high-salt environments where most organisms cannot survive.
Unlike traditional biological treatment systems that fail under extreme salinity, halophilic microbes possess specialized cellular mechanisms that allow them to remain active in these environments.
These adaptations include:
Because of these characteristics, halophilic microbes can metabolize organic contaminants in brine environments that would otherwise inhibit biological treatment.
The H.E.A.T. system harnesses this natural capability to convert contaminants into safe byproducts while supporting environmentally responsible evaporation processes.
Have Questions About Your Waste Brine?
If your organization is facing challenges with waste brine management, our team would be happy to evaluate your specific conditions and discuss how H.E.A.T. technology may help.