Oilfield &
production
Surfactants selected for completion-fluid recovery, hydrocarbon mobility, and production-treatment applications.
- Frac surfactants & flowback aids
- Oil recovery & stimulation chemistry
- Paraffin & asphaltene treatment
BIOLOGICS. APPLIED.
Specialty surfactants and biologics for oilfield performance, environmental recovery, and industrial applications.
THE TRINITY APPROACH
Performance starts with understanding the application. The fluid. The formation. The contamination. The operating conditions.
Trinity BioChem combines biologics and specialty surfactants with practical oilfield, water-treatment, and remediation experience. We help customers select products around the result they need to achieve.
WHERE WE WORK
From moving hydrocarbons to cleaning impacted surfaces, the chemistry must fit the conditions.
Surfactants selected for completion-fluid recovery, hydrocarbon mobility, and production-treatment applications.
Surface-washing and bioremediation products for contaminated equipment, soil, and other petroleum-impacted materials.
Fermentation-derived technologies and formulated products for wastewater, industrial cleaning, and specialty formulations.
APPLIED SCIENCE / PRACTICAL PERFORMANCEOUR TECHNOLOGY FOUNDATION
Surfactants change how oil, water, and solid surfaces interact. The right formulation can improve wetting, lower interfacial tension, and help release hydrocarbons from rock or contaminated material.
Trinity’s portfolio includes fermentation-derived ingredients and specialty formulations. We connect these technologies to real applications through product selection, supply, and technical support.
PRODUCT PORTFOLIO
Explore Trinity’s products, what they do, and how they work. Contact us for technical data, safety data sheets, product selection, and availability.
Reduces interfacial tension and improves fluid recovery in moderate-salinity unconventional reservoirs. It helps free hydrocarbons from the rock and supports faster, cleaner post-stimulation flowback.
FSW-11 is a water-based stimulation surfactant engineered for moderate-salinity reservoir conditions. It combines conventional surface-active chemistry with a fermentation-derived surfactant synergist to improve performance at the oil/water/rock interface.
Woodford • Middle Wolfcamp • Vaca Muerta • Barnett • Antrim • New Albany
Screen against the actual formation, crude, and brine conditions.
Reservoir mineralogy, brine chemistry, and oil chemistry guide the surfactant package. Evaluation considers interfacial tension, wettability, contact angle, and adsorption behavior.
Improves hydrocarbon mobility and fluid cleanup in moderate-salinity reservoirs where a different stimulation-surfactant profile is needed. It is designed to reduce capillary trapping and help the reservoir give fluids back more efficiently after stimulation.
FSW-12 is a formation-specific stimulation surfactant tuned for a different range of reservoir and brine conditions than FSW-11. Its surfactant package is selected around formation behavior, brine chemistry, wettability, and interfacial-tension performance.
Eagle Ford (moderate salinity) • Niobrara • Austin Chalk • Utica • select Barnett intervals • Haynesville (moderate salinity)
Screen against the actual formation, crude, and brine conditions.
Lowering interfacial tension can reduce capillary forces opposing hydrocarbon movement. Wettability response depends on reservoir conditions and should be evaluated with the actual crude, brine, and formation.
Delivers interface control where high salinity can compromise conventional surfactant performance. It helps improve wetting, lower interfacial tension, and mobilize hydrocarbons in demanding high-TDS reservoir fluids.
FSW-13 is a high-salinity-tolerant stimulation surfactant designed for harsher reservoir-water conditions. It is part of Trinity’s reservoir-specific surfactant platform built around formation and water chemistry rather than a one-size-fits-all formulation.
Mississippi Lime • Montney • Eagle Ford (high salinity) • Bakken • Spraberry • Wolfcamp (high salinity)
Screen against the actual formation, crude, and brine conditions.
Salinity, divalent ions, temperature, crude composition, and adsorption all affect performance. Laboratory interfacial-tension results alone do not establish field production gains.
Attacks paraffin and asphaltene deposits that restrict flow in wells, tubing, and process equipment. It softens, dissolves, and disperses heavy organic buildup so blocked hydrocarbon pathways can move again.
HCM-21 is a concentrated surfactant-and-solvent microemulsion that blends bio-based materials with traditional chemistry. It is salt tolerant, strongly wetting, and suitable for sandstone, carbonate, and shale applications.
The solvent component attacks or softens hydrocarbon deposits. The surfactant system improves wetting and helps loosened hydrocarbons remain mobile in the carrier fluid. Microemulsion behavior improves contact between oil-soluble and water-soluble phases.
Targets carbonate scale, wax, asphaltene, and mixed near-wellbore damage in a single treatment package. It combines deposit removal with stimulation chemistry to restore flow and improve access to the producing formation.
MSA-31 is an acidic, multipurpose microemulsion with corrosion-inhibiting and iron-control functionality built into the formulation. It is designed as a more versatile alternative to straight acid where both organic and inorganic damage are present.
Combines acidic dissolution of acid-soluble deposits with microemulsion wetting, hydrocarbon-deposit removal, iron control, and corrosion-inhibiting functionality. It is an acidic formulation; corrosion inhibition does not eliminate corrosion.
Targets iron-sulfide scale that can choke tubing, injection systems, exchangers, and downhole flow paths. It is designed to attack deposits that broader stimulation chemistries may leave behind.
SDR-41 is a specialty dissolver formulated specifically for iron-sulfide deposits. It is a problem-specific chemistry intended for applications where deposit mineralogy shows iron sulfide is the dominant restriction.
Intended for tubing, process equipment, heat exchangers, and injection or production systems where iron sulfide is the dominant deposit. Product selection should follow deposit identification and application-specific evaluation.
Breaks surface oil into small droplets to improve dispersion into the water column and increase oil/water contact area. It is built for rapid spill response where controlled dispersion is the desired cleanup strategy.
ODM-51 is a formulated marine dispersant combining surfactants, solvents, and a yeast-derived surfactant synergist. Its chemistry is designed to reduce oil/water interfacial tension and improve dispersant efficiency.
Surfactants and solvents break an oil slick into smaller droplets, creating greater oil/water contact area. Dispersion intentionally moves oil into the water column; the treatment objective differs from surface washing for physical recovery.
Releases weathered oil from hard surfaces so the oil can lift, float, and be physically recovered. It is built for shorelines, rocks, equipment, vessels, and other contaminated surfaces where recovery is preferred over dispersion.
SWM-61 is a non-emulsifying surface-washing formulation based on solvent and biosurfactant chemistry. Its disclosed chemistry includes ethyl lactate, methyl soyate, and sophorolipid to penetrate contamination and break the oil-to-surface bond.
A non-emulsifying lift-and-float approach: penetrate weathered hydrocarbons, release oil from the surface, contain it, and recover it mechanically. Applicable surfaces include rocks, shoreline materials, equipment, and vessels.
Pulls thin surface oil together into a thicker, more manageable slick for recovery or other approved response methods. It helps make spread-out oil easier to contain and handle without intentionally dispersing it into the water column.
HRM-62 is a specialty surface-active herding formulation for marine spill response. It works by changing surface forces around the slick so oil contracts into a smaller surface area.
For soil bioremediation applications, contact Trinity to discuss the contamination and treatment approach.
Helps control membrane fouling and maintain water flow through reverse-osmosis systems. Cleaner membrane surfaces can reduce pressure demand, improve throughput, and extend the time between aggressive cleanings.
RMC-71 is a specialty RO antiscalant and membrane-cleaning chemistry built around fermentation-derived surface-active technology. It is designed for continuous or maintenance treatment of membrane systems where fouling and flow resistance drive operating cost.
Controlling foulant or biofilm accumulation can reduce resistance to flow. Lower membrane resistance can reduce the pressure needed to achieve a given throughput.
Supports membrane cleanliness, flow, and operating efficiency in reverse-osmosis applications. It is intended to reduce the performance loss associated with foulant and biofilm accumulation on membrane surfaces.
RMC-72 is a second Trinity RO antiscalant/membrane-cleaner formulation within the same fermentation-derived treatment platform. It provides an additional formulation option for matching treatment chemistry to specific membrane-system conditions.
Match the formulation to the membrane system, foulant, and operating conditions. Membrane cleaning and biological wastewater treatment are distinct applications.
Designed to improve biological treatment efficiency, support nutrient uptake, reduce sludge generation, and lower aeration demand in suitable wastewater systems. It works with the existing microbial population to make organic material and nutrients more accessible to the treatment process.
WWT-73 is a fermentation-derived wastewater treatment aid using surface-active chemistry rather than added bacteria. It is not a bacterial inoculant and does not depend on introducing live microorganisms into the system.
Works with the existing microbial population rather than introducing live bacteria. Application review considers organic loading, nutrient availability, sludge production, and the existing treatment process.
Industrial and marine cleaning applications are also supported through Trinity’s cleaning-product portfolio.
Provides powerful wetting, emulsification, and interfacial-tension reduction across cleaning, environmental, agricultural, and energy applications. It offers a route to replace or reduce conventional petrochemical surfactants while maintaining high surface activity.
BSR-81 is a fermentation-produced glycolipid biosurfactant built around rhamnolipid chemistry. Its molecular structure combines a water-loving sugar region with an oil-loving fatty-acid region, giving it strong surfactant behavior.
A fermentation-produced glycolipid with a water-loving sugar portion and an oil-loving fatty-acid portion. This structure gives the molecule its surface-active behavior.
Improves wetting, cleaning, emulsification, and oil-release performance across a wide range of formulated products. It is particularly attractive where strong surface activity and a bio-derived chemistry platform are both important.
BSS-82 is a fermentation-derived glycolipid biosurfactant based on sophorolipid chemistry. It is a versatile surface-active ingredient that can be blended into cleaning, remediation, personal-care, agricultural, and industrial formulations.
Potential formulation applications include detergents, cleaning, environmental remediation, personal care, agriculture, and oil and gas. Different biosurfactant families have different chemistry and application fit.
Delivers high-value surface activity for advanced wetting, emulsification, and formulation applications. It expands Trinity’s biosurfactant toolbox where performance needs differ from conventional rhamnolipid or sophorolipid systems.
BSM-83 is a fermentation-derived mannosylerythritol-lipid biosurfactant. Its distinctive glycolipid structure gives formulators another way to tune oil/water behavior, wetting, and emulsion performance.
MEL biosurfactants are chemically distinct from rhamnolipid and sophorolipid products. Selection depends on the formulation’s wetting, emulsification, and interface requirements.
Boosts conventional surfactant performance by helping lower interfacial tension and reach effective micellar behavior with less primary surfactant. It is designed to make existing surfactant systems work harder rather than simply adding more chemistry.
BYS-85 is a fermentation-derived yeast surfactant synergist/co-surfactant platform. It contains yeast-derived metabolites and low-molecular-weight biological components that work alongside conventional surfactants at fluid interfaces.
A surfactant synergist intended to work alongside conventional surfactants. It should not be treated as a bacterial product or assumed to be an enzyme.
Ask about agricultural wetting, soil-treatment, and specialty formulation applications.
Product performance and suitability depend on the formulation and application conditions. Contact Trinity for product-specific evaluation and documentation.
Request product dataFROM QUESTION TO PRODUCT
Practical expertise and application-focused evaluation help move an application from initial discussion to informed product selection.
Define the objective and review the fluid, material, and operating conditions.
Identify candidate products and coordinate the supporting data or testing needed to evaluate them.
Align the selected product, documentation, availability, and delivery requirements.
Use customer feedback and application results to inform the next decision.
THE PEOPLE BEHIND TRINITY
Trinity’s leadership combines international remediation advisory experience with engineering, oilfield services, water-treatment technology, and business-building expertise.
CO-OWNER / TECHNOLOGY & COMMERCIAL RELATIONSHIPS
Greg has worked in biologics and specialty-surfactant distribution and advisory roles since 2011. His background spans oilfield applications, hydrocarbon recovery, environmental remediation, and the commercial development of treatment technologies.
His consulting and advisory experience includes the East Harbor rail diesel fueling facility in Toronto; oil-recovery and cleanup work involving Kuwait and Iran; Gold King Mine heavy-metal recovery advisory work for the Navajo Nation and San Juan River; legacy-mining heavy-metal recovery in Colombia; and multiple oil-and-gas spill cleanup projects.
At Trinity, Greg leads technology relationships, strategic partnerships, and commercial development. He draws on that application experience to connect customers with appropriate products and technical resources, helping translate treatment needs into practical product-selection and evaluation plans.
Connect with GregCO-OWNER / APPLICATIONS & BUSINESS DEVELOPMENT
John brings more than two decades of experience across well stimulation, hydraulic fracturing, water management, and technology commercialization. He began his career as a BJ Services field engineer, advanced to regional engineering, and moved into completions consulting with Ely and Associates before founding his own consulting firm.
At TETRA Technologies, he served in applied-engineering and business-development leadership roles, developing hydraulic-profile software for water transfer and helping advance the use of layflat hose. As Director of Business Solutions: Corporate Strategy at Select Energy Services, he built a water-recycling and treatment division into a $35 million annual business and supported mobile and semi-permanent treatment facilities with capacities of approximately 25,000–100,000 barrels per day.
He later founded Revolution Equipment Rental, focused on engineered water-management and equipment solutions. At Trinity, John combines application engineering, treatment integration, and commercial analysis to evaluate how product performance translates into operating results and project economics.
Connect with JohnLET'S TALK ABOUT YOUR APPLICATION
Tell us what you’re treating, the conditions you’re working with, and the result you need. We’ll help you identify a practical starting point.