Why Water Treatment Is Changing

Industrial water treatment facility

Peracetic Acid vs. Traditional Biocides: What operations, compliance, and procurement teams should know about PAA in industrial water systems.

Ask any plant manager running a cooling tower or wastewater system what keeps them up at night, and biocide performance usually makes the list. Chlorine residuals drift. Bleach loses strength before the next shipment arrives. Glutaraldehyde triggers questions from safety teams and, increasingly, from regulators. None of this is new. What is new is the pace at which water treatment programs are being rebuilt around a different chemistry — peracetic acid.

For years, PAA was treated as a specialty product: useful for food and beverage CIP work, too expensive for general industrial use. That calculus has shifted. Tighter discharge limits, aging infrastructure, and pressure to reduce chlorinated byproducts have pushed peracetic acid into cooling systems, municipal wastewater plants, oilfield water handling, and industrial reuse loops where it would not have appeared five years ago.

This article looks at the practical case for PAA in industrial water treatment — what it is, where it outperforms traditional biocides, and what operations teams should weigh before making a switch.

Compliance Is the Starting Point, Not the Finish Line

Most industrial water treatment programs were built to satisfy a specific set of regulatory checkboxes. Keep free chlorine residuals within range. File the Tier II. Submit the DMR. Pass the inspection. That framework has served the industry for decades, and for most sites it still works — on paper.

The problem is that compliance snapshots don’t capture what happens between sampling events. A cooling tower running sodium hypochlorite can hit target residuals at 8 a.m. and be effectively under-dosed by mid-afternoon as bleach strength decays in the day tank. A wastewater operator can report chlorine within permit limits while trihalomethane (THM) formation climbs in the background. A food-grade facility can meet FDA and EPA requirements with glutaraldehyde while quietly burning through PPE budget and fielding ventilation complaints.

“Most facilities don’t change their biocide programs just because of cost.  Instead, they choose to do it when the risks related to variability and compliance become more prominent.  What we’re noticing with PAA is that it’s cost-effective, reliable, and has an eco-friendly discharge profile, which checks a lot of boxes for a biocide program.” — Derk Pinkerton, Market Manager, Water Treatment, Brainerd Chemical Company

Meeting the minimum is not the same as reducing risk. And the minimum keeps moving. EPA scrutiny of disinfection byproducts has tightened. NPDES permit writers are asking sharper questions about residual toxicity. State regulators in several discharge-sensitive regions have begun flagging chlorinated organics that weren’t on anyone’s radar a decade ago. Programs designed around the chemistry of the 1990s are increasingly running into compliance exposure they weren’t built to absorb.

Where Traditional Biocides Fall Short

Chlorine-based products, quaternary ammonium compounds, isothiazolinones, and glutaraldehyde each have a long track record in industrial water treatment. They also each have well-understood limitations that show up most clearly at the operational level.

Sodium hypochlorite (bleach)

Bleach is inexpensive at the gate, but it loses strength in storage, reacts with organics to form THMs and haloacetic acids (HAA5), and struggles in systems with high organic loading, or reacts with ammonia to create chloramines.  Operators routinely over-dose to compensate for decay, which drives chemical cost, corrosion, and discharge loading in the wrong direction.

Glutaraldehyde

Effective against biofilm, but a respiratory sensitizer and a growing concern in plants with OSHA air monitoring. Several state environmental agencies have added it to priority review lists. For facilities already managing worker exposure programs, glutaraldehyde often carries more administrative weight than its performance justifies.

Isothiazolinones and quats

Narrower spectrum, slower kill, and persistent in discharge. Useful in targeted applications, harder to defend as a primary biocide in a cooling tower that discharges to a receiving water body with numeric criteria.

The shared problem

All of these chemistries leave something behind. Residual chlorine. Chlorinated byproducts. Persistent organics. Residual toxicity in bioassays. That residue is exactly what discharge permits, reuse programs, and sustainability reporting frameworks are increasingly built to measure.

Clean Decomposition. Simpler Compliance.

PAA’s edge shows up downstream. It degrades into acetic acid, oxygen, and water—no chlorinated residuals, no THMs or HAA5, and no chloramine management to chase. The payoff is lower discharge risk, fewer compliance variables under NPDES, and UV-level disinfection performance without the capital and footprint of a UV buildout.

Why PAA Is Replacing Traditional Biocides in Industrial Systems

Peracetic acid is replacing traditional biocides because it delivers comparable or superior microbial control without producing the halogenated byproducts, persistent residuals, or worker exposure concerns associated with chlorine, glutaraldehyde, and quaternary ammonium compounds. PAA is effective across a wide pH range, performs well in the presence of organic loading, decomposes into food-grade residuals, and simplifies compliance with NPDES discharge permits, EPA disinfection byproduct rules, and sustainability reporting. For industrial water treatment programs under pressure to reduce both operational variability and environmental footprint, PAA offers a predictable, lower-risk alternative.

The shift is most visible in four places:

  • Municipal and industrial wastewater disinfection —Utilities replacing chlorine/sulfur dioxide systems are choosing PAA for its short contact time, absence of THM formation, and compatibility with existing contact basins. No dechlorination step. No chlorine storage footprint.
  • Cooling water systems —Operators dealing with biofilm, Legionella management, and discharge toxicity limits are moving to PAA programs that hold microbial counts down without the variability of bleach or the worker-exposure overhead of glutaraldehyde.
  • Produced water and oilfield applications —PAA handles the organic loading and sulfide chemistry of produced water better than chlorine in many field conditions, and decomposes cleanly enough to simplify disposal and reuse.
  • Food, beverage, and industrial CIP —Long-standing PAA applications, now expanding into adjacent industrial rinse and sanitation work where residue-free performance matters.

A More Practical Approach to Biocide Selection

The programs that run cleanest tend to be the simplest ones. Clear dosing logic. Consistent product chemistry. Fewer variables for operators to manage on a Sunday night shift. When a biocide program is easier to run, it actually gets run the way it was designed.

That is most of the real-world argument for peracetic acid. It isn’t a miracle chemistry, and it isn’t the right answer for every system. But when a site looks honestly at what drives cost and risk — bleach strength drift, chlorinated byproduct formation, glutaraldehyde exposure monitoring, sample failures on discharge, retraining every time a new SDS rolls out — PAA tends to eliminate more of those variables than it introduces.

A few points worth weighing before a switch:

  • PAA concentrations degrade over time. Inventory turnover, storage temperature, and tank material matter. This is manageable, but it needs to be designed into the program, not bolted on.
  • Feed system compatibility is not optional. 316 stainless or appropriate plastics; no mild steel, no brass.
  • Testing methods differ from chlorine. Most sites move to a combination of titration and strip tests; analyzer technology continues to improve but is not yet as ubiquitous as free chlorine measurement.
  • Cost-per-gallon is higher than that of bleach.  Cost-per-pound-of-active and cost-per-unit-of-compliance-risk usually move in opposite directions.  The math has to be done at the program level, look at the cost to treat, not the cost per pound.

The Role of the Right Chemical Supplier

Switching biocide chemistries is rarely a purchasing decision alone. It touches safety programs, feed equipment, analytical methods, operator training, and the discharge permit. A supplier who can only deliver drums is not enough. A supplier who understands the regulatory environment, the feed engineering, the transition logistics, and the documentation a site will need during its next inspection is a meaningfully different relationship.

That has always been Brainerd Chemical’s position in the market — not the lowest-cost commodity vendor, but the operational partner that shows up with the chemistry, the handling expertise, and the compliance infrastructure intact. For facilities evaluating peracetic acid against their existing biocide program, the right conversation isn’t just about price per pound. It’s about what the total program looks like twelve months from now: fewer sample failures, fewer exposure events, fewer surprises on the next permit review.

Quick Takeaways

  • Compliance is a floor, not a plan.Programs built around minimum requirements accumulate hidden risk as regulations tighten.
  • Traditional biocides leave residuals.Chlorine byproducts, glutaraldehyde exposure, and persistent organics are increasingly difficult to defend at the discharge point.
  • Peracetic acid decomposes cleanly.Into acetic acid, oxygen, and water — no THMs, no HAA5, no dechlorination step.
  • PAA simplifies operations.Broad-spectrum, fast-acting, effective across pH ranges, and reduces the number of moving parts in a biocide program.
  • Chemistry changes require a real partner. Feed system, analytical method, and compliance documentation all must move together.

About Brainerd Chemical Company

Brainerd Chemical Company is a U.S. manufacturer and distributor of specialty and commodity chemicals serving agriculture, water treatment, energy, and industrial markets nationwide. Integrated packaging, multimodal logistics, and compliance-driven handling are built into every supply relationship.

📞 +1 (918) 622-1214   ·   🌐 www.BrainerdChemical.com

Sulfuric Acid Powers Agriculture

5 Reasons Wastewater Plants are Switching to PAA in 2026

BRIEF: Sulfuric acid (H₂SO₄) is among the highest-volume industrial chemicals produced globally and serves as a critical input in phosphate fertilizer manufacturing. In North America, the phosphate fertilizer industry accounts for approximately 50% of all sulfuric acid demand, indicating that fertilizer production is the largest regional application segment. This article reviews the chemical basis of sulfuric acid’s role in fertilizer production, examines sustainability implications, and discusses regulatory and supply chain factors shaping its distribution.

Sulfuric acid production is frequently used as an indicator of industrial activity due to its broad applications across refining, mining, metals processing, and agriculture. According to the U.S. Geological Survey (USGS), sulfuric acid remains one of the most produced chemicals in the United States, with the majority consumed in fertilizer manufacturing.

The Food and Agriculture Organization (FAO) has consistently emphasized that mineral fertilizers are central to global crop yield improvements and that sulfuric acid plays an indispensable chemical role.

Chemical Role in Phosphate Fertilizer Production

Sulfuric acid is used in the wet-process conversion of phosphate rock (fluorapatite) into phosphoric acid, the primary intermediate in phosphate fertilizer manufacturing. Phosphoric acid is subsequently neutralized with ammonia to produce major ammonium phosphate fertilizers, including monoammonium phosphate (MAP) and diammonium phosphate (DAP)—both of which are concentrated ammonium phosphates widely used for their high nutrient density and agronomic efficiency. Sulfuric acid is also integral to the production of single and triple superphosphates.

The reaction pathway enables industrial-scale conversion of insoluble phosphate rock into plant-available phosphorus. The International Fertilizer Association (IFA) reports that approximately 90% of mined phosphate rock is directed toward fertilizer production. Given this dependency, sulfuric acid supply is directly linked to phosphate fertilizer output.

Agricultural Productivity and Land Use Efficiency

Balanced nutrient management is strongly correlated with increased crop productivity. Peer-reviewed research and FAO assessments confirm that phosphorus fertilization plays a critical role in sustaining yields for cereals, oilseeds, and specialty crops.

Higher yields can reduce pressure for agricultural land expansion, supporting forest conservation and ecosystem preservation. Nutrient efficiency therefore has measurable sustainability implications.

Sulfur as a Secondary Nutrient

Declining atmospheric sulfur deposition — largely due to emission reductions under the U.S. Clean Air Act — has increased sulfur deficiencies in certain agricultural regions. Wet sulfate deposition, a key measure of atmospheric sulfur inputs, has declined by more than 80% over the past 35 years in many monitored U.S. regions compared to baseline periods, reflecting significant reductions in sulfur emissions.

Sulfur-containing fertilizers derived from sulfuric acid chemistry help restore soil balance and support amino acid formation and protein synthesis.

Research has documented improved yield response and enhanced seed protein concentration in oilseed crops grown on sulfur-deficient soils when sulfur fertilization is applied. As precision nutrient management advances, sulfur supplementation is increasingly recognized as an essential component of balanced fertilization programs.

Supply Chain Resilience and Strategic Infrastructure

Recent geopolitical disruptions and commodity market volatility have underscored the vulnerability of fertilizer supply chains. Because sulfuric acid production is frequently integrated with petroleum refining and non-ferrous metal smelting operations, upstream industrial shifts can influence fertilizer manufacturing capacity.

Within North America, regional chemical manufacturers and distributors play a stabilizing role in fertilizer supply chains by maintaining bulk storage capacity, multimodal transportation networks, and compliance-driven operating systems that help buffer seasonal demand fluctuations in agriculture. Companies such as Brainerd Chemical Company support supply continuity through diversified sourcing strategies, strategically located storage infrastructure, and specialized hazardous materials logistics expertise.

In fertilizer production cycles—where timing is closely aligned with planting windows—distribution partners with established rail access, bulk handling capacity, and compliance-driven operating systems can materially reduce supply volatility. As fertilizer markets remain sensitive to input disruptions, experienced chemical distributors increasingly serve as operational stabilizers within the broader agricultural value chain.

Safety, Compliance, and Stewardship

Handling sulfuric acid requires expertise. It is highly corrosive and demands rigorous safety protocols across the supply chain. Industry best practice requires demonstration of:

  • OSHA-compliant handling procedures
  • Trained personnel and certified operators
  • Secondary containment systems
  • Environmental compliance
  • Transparent Safety Data Sheets (SDS)
  • Emergency response planning

At Brainerd Chemical Company, sulfuric acid distribution is managed within a compliance-driven operational framework designed to meet and exceed these regulatory requirements. The company integrates trained hazardous materials personnel, bulk storage infrastructure with secondary containment systems, multimodal transportation planning, and documented safety protocols across its supply chain. Coordinated sourcing, rigorous documentation practices, and emergency preparedness planning reinforce operational reliability in time-sensitive markets such as fertilizer manufacturing.

By aligning hazardous materials logistics with federal and state regulatory standards, Brainerd Chemical Company exemplifies how disciplined stewardship, regulatory compliance, and industrial experience translate into safe, reliable chemical supply. In markets where timing, precision, and continuity are critical, safety performance is not simply a regulatory obligation — it is an operational imperative.

The Bigger Picture: Agriculture, Climate, and Supply Chain Resilience

Modern agriculture operates under mounting pressure. Global population growth continues to drive rising demand for food, feed, and fiber, while climate variability and soil stress challenge farmers’ ability to sustain consistent yields. At the same time, supply chain fragility — influenced by geopolitical disruption, energy market shifts, and transportation constraints — can quickly ripple through agricultural input markets.

Within this environment, sulfuric acid occupies a critical but often overlooked position. As a foundational component of phosphate fertilizer production, it directly influences nutrient availability at scale. When sulfuric acid supply is reliable, responsibly managed, and supported by disciplined logistics infrastructure, fertilizer manufacturing remains steady. Farmers can plan planting cycles with greater confidence, crop yields remain competitive, and food markets experience greater price stability.

Conversely, instability in sulfuric acid supply can cascade through fertilizer markets, increasing input costs and amplifying downstream food pricing pressure. These dynamics elevate sulfuric acid from a simple industrial commodity to a strategic infrastructure component of global food systems — linking industrial chemistry, agricultural productivity, and economic resilience in a tightly interconnected chain.

Building Trust Through Experience and Expertise

Customers reward performance. For fertilizer manufacturers and agricultural partners evaluating sulfuric acid suppliers, key questions include:

  • Does the supplier understand agricultural cycles?
  • Do they have redundant sourcing options?
  • What is their approach to risk management?
  • Can they scale with seasonal demand spikes?
  • Are safety and regulatory compliance non-negotiable priorities?
  • Do they invest in long-term partnerships rather than spot transactions?

Experience in acid handling, logistics coordination, regulatory oversight, and industrial customer service builds the kind of authority that cannot be manufactured overnight.

Brainerd’s operational footprint, hybrid distribution capabilities, and technical support infrastructure position it as a trusted partner for industries that sustain essential supply chains — including agriculture.

Final Thoughts

Sulfuric acid may never appear on a grocery store shelf. Yet its impact reaches every aisle.

By enabling phosphate fertilizer production, supporting efficient land use, and sustaining agricultural productivity, sulfuric acid plays a critical — if often unseen — role in global food security.

As global challenges intensify, the importance of responsible chemical manufacturing, safe distribution, and resilient supply partnerships only grows.

For industries that depend on precision, reliability, and stewardship, the right sulfuric acid partner is not just a vendor — it is part of the solution.

About Brainerd Chemical Company

Brainerd Chemical Company is a leading U.S. manufacturer and distributor of specialty and commodity chemicals. Our mission is simple yet powerful: to safely supply the solutions our customers need, the expertise they want, and the reliability they depend on—every single day.

Media Inquiries

Brainerd Chemical Company

📞 +1 (918) 622-1214

🌐 www.BrainerdChemical.com

Time to Switch to PAA?

5 Reasons Wastewater Plants are Switching to PAA in 2026

For decades, chlorine gas and sodium hypochlorite were the undisputed kings of wastewater disinfection. But as we move through 2026, the regulatory and safety landscape has shifted. Between tightening EPA limits on Disinfection Byproducts (DBPs) and the rising costs of chemical risk management, plant managers are looking for a more stable, sustainable alternative.

At Brainerd Chemical Company, we’ve seen a surge in municipalities and industrial facilities adopting our Terrastat® line—a specialized PAA equilibrium mixture—to replace aging chlorine systems. Here are the five critical reasons why the “PAA Transition” is no longer a water treatment trend, but a standard for high-performing plants.

1. Elimination of Toxic Disinfection Byproducts (DBPs)

Chlorine’s biggest liability isn’t its cost; it’s its chemistry. When chlorine reacts with organic matter in effluent, it creates Trihalomethanes (THMs) and Haloacetic Acids (HAAs)—known carcinogens that are strictly monitored by the EPA.

The PAA Advantage: PAA decomposes into simple acetic acid (vinegar), water, and oxygen. It does not create halogenated DBPs. For plants struggling to meet stringent “Total Residual Chlorine” (TRC) limits, switching to PAA often removes the need for costly dechlorination chemicals like sodium bisulfite entirely.

2. Radical Improvement in Employee Safety

Managing chlorine gas requires heavy-duty Scba gear, complex leak detection systems, and high-stakes Risk Management Plans (RMP). Sodium hypochlorite, while safer than gas, is highly corrosive and prone to “off-gassing,” which can cause pump airlocks and hazardous spills.

The PAA Advantage: PAA is a liquid that is stable in storage and does not off-gas in the same manner as bleach. While it still requires proper handling (as any oxidizer does), it significantly lowers the RMP burden and reduces the physical footprint of safety equipment required on-site.

3. Reduced Infrastructure and Maintenance Costs

Chlorine systems are notoriously hard on equipment. The corrosive nature of bleach fumes eats through electrical panels, metal supports, and concrete over time. Furthermore, chlorine requires significant “contact time,” necessitating large, expensive contact chambers.

The PAA Advantage: PAA is a faster-acting disinfectant against specific pathogens. Many plants find they can increase their throughput without expanding their physical footprint because PAA achieves the required “kill” in less time than traditional methods.

Real-World Success: The PAA Shift in Action

  • Case Study: The Mid-South Municipal Facility A municipal plant in the Oklahoma/Arkansas region faced consistent fines for exceeding TRC limits. By transitioning to Terrastat® PAA, they eliminated their dechlorination stage completely. The result? A 22% reduction in annual chemical spend and a 100% compliance record over the first 18 months.
  • Case Study: Industrial Food Processor A large-scale poultry processor was struggling with the high organic load in their pre-treatment water. Chlorine was proving ineffective due to its sensitivity to pH levels. PAA, which remains effective across a wider pH range (3.0 to 9.0), allowed them to stabilize their discharge quality while reducing the amount of chemicals injected by 15%.

4. Environmental Stewardship and Aquatic Safety

Chlorine is highly toxic to fish and aquatic life, even at low concentrations. If a dechlorination system fails, the resulting “slug” of chlorine can cause devastating fish kills in receiving streams.

The PAA Advantage: Because PAA breaks down so rapidly into biodegradable components, the risk to downstream ecosystems is virtually zero. This makes it the preferred choice for plants discharging into sensitive watersheds or recreational waterways.

5. Simplified Regulatory Compliance

With the EPA’s 2026 focus on “Total Water Quality,” the paperwork associated with hazardous chemical storage is increasing.

The PAA Advantage: Using Brainerd’s Terrastat® line of products often allows facilities to stay below certain RMP thresholds that would otherwise be triggered by large-scale chlorine storage. We don’t just ship the chemical; our technical team helps you document the safety transition for your local regulators.

Decision Matrix: Is PAA Right for Your Plant?

Use this checklist to evaluate your current disinfection ROI.

FeatureChlorine/BleachTerrastat® PAA
EPA DBPs (THMs/HAAs)High RiskZero
Dechlorination Required?YesNo
pH SensitivityHigh (Ineffective > 8.0)Low (Effective up to 9.0)
Safety Regs (RMP)ExtensiveMinimal
Equipment CorrosionSevereModerate

The Brainerd Partnership

Transitioning to PAA is a strategic move, but it requires the right expertise. As a leader in high-hazard chemistry, Brainerd Chemical Company provides more than just the molecule. We provide the engineering support to ensure your feed systems are optimized for Terrastat®, ensuring you aren’t over-applying and wasting budget.

Ready to de-risk your plant? Reach out to Derk Pinkerton, Corporate Sales Supervisor – Water Treatment to learn more.

About Brainerd Chemical Company

Brainerd Chemical Company is a privately held chemical manufacturer and hybrid distributor specializing in high-hazard chemistries and complex supply chains. Headquartered in Tulsa, Oklahoma, the company operates facilities across the United States and serves customers worldwide.

Media Inquiries

Brainerd Chemical Company

📞 +1 (918) 622-1214

🌐 www.BrainerdChemical.com

5 Reasons Wastewater Plants Are Switching to Peracetic Acid

Brief: Brainerd Chemical Company is a trusted national leader in peracetic acid (PAA) supply, helping wastewater facilities meet tightening regulatory and sustainability demands with confidence. Through strategically located production sites, rigorous quality control, and responsive logistics, Brainerd ensures reliable, high-purity PAA delivery nationwide. Its technical experts provide hands-on guidance—from pilot testing to safety and compliance—making PAA adoption seamless, efficient, and future-ready for municipalities and industrial operators alike.

Across the U.S., wastewater treatment facilities are re-evaluating their disinfection methods in response to tighter regulatory limits, sustainability goals, and safety concerns. Peracetic acid (PAA) is rapidly emerging as a preferred solution—offering powerful microbial control, minimal by-products, and simplified operations compared to traditional chlorine-based systems. This article explores why so many municipalities and industrial plants are making the switch, how PAA supports permit compliance, and how Brainerd Chemical Company is leading the way with reliable supply, technical guidance, and unmatched expertise in PAA applications.

Regulatory Pressures Are Driving Change

Tightening effluent limits and stricter NPDES permit conditions have forced utilities to reconsider their legacy disinfectants. Traditional chlorination, while effective, often produces halogenated disinfection by-products (DBPs) such as trihalomethanes (THMs) and haloacetic acids (HAAs)—compounds that are increasingly restricted due to their toxicity and persistence in aquatic ecosystems.
PAA, by contrast, decomposes into oxygen, water, and acetic acid, leaving virtually no harmful residuals. This makes it easier for wastewater facilities to meet evolving discharge requirements and avoid DBP-related violations.
In many states, regulators now actively encourage utilities to evaluate non-chlorine disinfection methods. PAA’s strong oxidation potential and rapid microbial kill rate make it one of the most permit-friendly options available—particularly for plants facing low toxicity limits or sensitive receiving waters.

Simplified Operations and Reduced Chemical Handling Risks

Unlike chlorine gas or sodium hypochlorite, PAA does not require specialized gas storage systems, de-chlorination chemicals, or complex feed controls.
Because it is a liquid, ready-to-use oxidant, PAA can be fed directly into existing contact chambers with minor infrastructure modifications. This simplicity translates into less operator exposure, lower capital investment, and fewer moving parts to maintain.
Facilities that transition from chlorine and sulfur dioxide systems also enjoy improved safety profiles, eliminating the hazards associated with toxic gas cylinders and leak detection systems.

Proven Performance and Flexibility Across Wastewater Types

PAA’s efficacy is well documented in both municipal and industrial wastewater systems. Its broad-spectrum antimicrobial action effectively neutralizes bacteria, viruses, and spores—even in high-solids, low-clarity, or variable-pH environments.
PAA’s disinfection mechanism is based on oxidation; it remains effective over a wide range of organic loads and maintains residual power even when other disinfectants are inhibited by ammonia or nitrogen compounds.
In addition, the fast reaction kinetics of PAA mean that many facilities can achieve target log-reductions with shorter contact times, enabling higher throughput and better operational flexibility during peak flow events.

Lower Lifecycle Costs and Fewer Permit Headaches

Although the chemical cost per gallon of PAA may initially appear higher than chlorine, the total cost of ownership often favors PAA when safety, de-chlorination, maintenance, and regulatory compliance are considered.
For example, eliminating sodium bisulfite for de-chlorination can reduce both chemical consumption and storage complexity, while minimizing operator training requirements.
Equally important: the elimination of DBPs and residual chlorine in effluent often helps facilities avoid expensive permit violations, costly remediation, or negative public scrutiny.

A Sustainable, Future-Proof Choice

Sustainability is becoming a core KPI for wastewater utilities. PAA’s eco-friendly breakdown products—oxygen, water, and acetic acid—align perfectly with green infrastructure and ESG goals.
Unlike chlorine, PAA leaves little to offers a scalable, sustainable solution that aligns with no halogenated footprint, making it the preferred option for facilities that discharge into sensitive aquatic habitats or supply reclaimed water for reuse. As utilities face increasing pressure to modernize infrastructure and minimize chemical hazards, PAA represents a scalable, sustainable solution that fits both regulatory and environmental priorities.

Meeting Compliance with Confidence

Regulatory momentum continues to build in favor of peracetic acid. State environmental agencies and the U.S. EPA are recognizing its potential as a safe, effective alternative that meets both microbial and toxicity standards without contributing to chlorinated by-products.
For municipalities preparing for permit renewals or plant upgrades, now is the time to evaluate pilot testing and document performance data. Early adopters have already demonstrated reliable disinfection performance across a variety of wastewater matrices, paving the way for broader regulatory acceptance nationwide.

Brainerd Chemical Is Your Trusted PAA Supply Partner

When reliability, regulatory expertise, and on-time delivery matter most, Brainerd Chemical stands as the nation’s benchmark for peracetic acid (PAA) supply and support. With more than a century of chemical manufacturing experience and one of the industry’s most robust distribution footprints, Brainerd Chemical delivers consistency, safety, and performance that utilities can depend on.

From production through delivery, every stage of Brainerd’s PAA program is designed for quality assurance and continuity of supply. The company’s strategically located facilities—including regional production and transloading hubs—allow rapid fulfillment to wastewater treatment facilities across the U.S., minimizing lead times and transportation costs. Advanced storage, blending, and packaging capabilities ensure that every gallon meets strict purity standards, backed by rigorous testing and quality control.

Beyond supply, Brainerd Chemical partners with clients to ensure successful PAA adoption and optimization. Its technical experts offer field-level assistance, pilot testing guidance, dosage calibration, safety and handling training, and regulatory compliance support—helping operators integrate PAA seamlessly into existing systems. This consultative approach ensures plants achieve consistent microbial control, predictable costs, and permit ready performance with minimal operational disruption.

In an industry where downtime is costly and compliance is non-negotiable, Brainerd Chemical’s scale, reliability, and service excellence make it the trusted PAA partner for municipalities and industrial operators nationwide.

A Stronger Tomorrow Through Smarter Wastewater Treatment

Peracetic acid (PAA) represents a decisive step forward for organizations interested in advancing sustainability, protecting operators, and safeguarding communities. By eliminating halogenated by-products, reducing chemical handling risks, and simplifying compliance, PAA helps facilities operate more safely and sustainably while maintaining exceptional microbial control.

For utilities facing aging infrastructure, tighter permit renewals, or public pressure to reduce risks, PAA offers a future-proof path that aligns operational efficiency with environmental responsibility. Facilities that make the switch gain more than just regulatory peace of mind—they gain operational resilience, community trust, and a disinfection strategy built for tomorrow’s standards.

With Brainerd Chemical as a supply partner, wastewater operators can count on reliable delivery, deep technical support, and industry expertise that turns the promise of PAA into real-world performance. Together, these advantages make PAA not only a better disinfectant, but a smarter investment in the future of clean water.

About Brainerd Chemical Company

Brainerd Chemical Company is one of the nation’s leading chemical manufacturers and distributors, supporting industries from energy and agriculture to water treatment and manufacturing. We combine proven expertise with innovative packaging, logistics, and service solutions to help our partners achieve efficiency, safety, and long-term success.

Why PAA Biocides Outperform Glutaraldehyde

Glutaraldehyde’s regulatory future in oilfield water treatment is uncertain. Peracetic acid (PAA) biocides fuel a safer, effective, and future-ready alternative to protect operations, reduce compliance risks, and align with ESG goals. Learn why oilfield leaders are shifting to PAA biocides for compliance, performance, and ESG advantage.

Oilfield water management is entering a new era. What used to be a straightforward “dose-and-go” choice is now a boardroom discussion about regulatory exposure, ESG optics, worker safety, and long-term cost. In that conversation, glutaraldehyde (GA) is increasingly the weak link—while peracetic-acid (PAA) biocides are proving to be the essential, safe, effective, and future-ready alternative.

A practical brief follows to help leadership, specifying engineers, procurement teams, and well-servicers who want to increase responsible operations and future-proof against regulatory risks.

 

The squeeze on glutaraldehyde is real—and growing

Worker safety pressure is mounting. Respiratory and skin contact risks are continually more demanding and costly.

Regulatory reviews aren’t going away. In the U.S., EPA’s ongoing registration review program for pesticides (including industrial biocides) can impose new mitigation requirements—PPE, engineering controls, label changes, or use restrictions—mid-cycle. GA’s review docket remains active, which means additional compliance steps may still be required as updates publish. Planning for alternatives now reduces change-order chaos later.

Environmental scrutiny is intensifying. Peer-reviewed literature has highlighted the aquatic toxicity and fate concerns of several oilfield biocides, including GA, fueling pressure from regulators and stakeholders to curb persistent, toxic residuals in discharge and recycle streams.

Bottom line: Even before any outright restrictions, the cumulative burden—exposure controls, monitoring, training, reporting, and reputational risk—pushes GA’s true cost higher each year.

 

Why PAA biocides are the future-ready standard

Clean breakdown, minimal residues. PAA decomposes rapidly into acetic acid, oxygen, and water, leaving no halogenated or persistent byproducts. That’s powerful for recycled frac water, produced-water reuse, and discharge optics—exactly where ESG and permit pressure converge.

Broad-spectrum, fast kill—including SRB and biofilms. Field and lab studies show PAA’s strong activity against sulfate-reducing bacteria (SRB), key H₂S generators and corrosion drivers. Reports from oilfield trials and independent studies demonstrate efficacy in complex waters and even within sessile communities where other oxidants struggle.

Operationally compatible. PAA is used across industrial water treatment precisely because it works in variable pH and temperature windows and coexists with common oilfield chemistries (FRs, scale inhibitors) when applied correctly. This reduces the risk of chemistry conflicts that derail pad schedules.

Worker-safety advantages. As an oxidizing biocide with rapid decay, PAA minimizes long-lived residual exposure. Its well-understood decomposition profile simplifies containment and incident response relative to sensitizers. (Safe handling is still essential—PAA is a strong oxidizer and corrosive—but the exposure narrative is fundamentally different.)

ESG-aligned without sacrificing performance. For operators publishing sustainability metrics, “no persistent biocidal residues” and “lower aquatic-toxicity footprint in treated effluents” are benefits that resonate with investors and communities—without compromising bacterial control.

 

Total cost of ownership: where PAA wins

1) Compliance drag: As GA-related controls tighten, compliance cost grows (monitoring, respiratory programs, training, incident reporting). PAA’s profile reduces that overhead.

2) Performance risk: SRB-driven corrosion and souring are seven-figure problems. PAA’s fast oxidation and biofilm penetration reduce re-treat cycles, H₂S incidents, and downtime.

3) Water-reuse economics: PAA’s rapid decomposition supports recycle targets by limiting carry-over residuals that can foul later stages—improving reuse rates and chemistry reliability.

 

Application guidance: where to specify PAA

 

    • On-the-fly frac water treatment: Dose for rapid broad-spectrum knockdown; verify with ATP/bug counts and residual monitoring.

 

    • Pond/impoundment control & H₂S mitigation: Periodic PAA shock or continuous low-dose to manage SRB and odors; integrate with aeration for best results.

 

    • Produced-water recycle loops: Target kill while minimizing residuals that impact separation and midstream handling.

 

 

Design considerations

 

    • Demand & dose: Run quick-kill demand tests against site water to map required PAA dose (accounting for COD/sulfides).

 

    • Contact time: PAA works fast; on-the-fly setups should ensure adequate mixing and seconds-to-minutes of contact before the wellhead.

 

    • Monitoring: Track kill with ATP or culture methods; confirm PAA residual decay to protect downstream chemistries and equipment.

 

 

The strategic takeaway

You don’t need a ban to feel the pinch. GA’s sensitizer classification, safety ceilings, and the drumbeat of regulatory review create ongoing compliance drag and reputational risk. PAA offers the inverse: robust performance against the bugs that matter (including SRB), rapid, clean decomposition, and an ESG-aligned story your stakeholders can endorse. Moving now locks in operational reliability and regulatory resilience for the years ahead. If you’re ready to evaluate a PAA program—bench tests, pad trial design, spec language, and full changeover—Brainerd Chemical can help you build a plan that meets your HSE, performance, and cost targets.

 

Partner With the Future of Oilfield Water Treatment

For energy leaders, staying ahead of risk isn’t just about compliance—it’s about choosing solutions that safeguard people, protect assets, and deliver lasting performance. With Brainerd Chemical Company, you gain more than a supplier. You gain a partner committed to innovation, safety, and reliability in every drop of chemistry we deliver.

Our PAA-based biocide programs are engineered to help you meet today’s operational challenges and tomorrow’s regulatory expectations—reducing downtime, streamlining water reuse, and strengthening ESG performance.

Let’s talk about your next project. Contact our technical specialists today at +1 (918) 622-1214 to learn how Brainerd Chemical Company can help you build safer, cleaner, and future-ready operations.

 

About Brainerd Chemical Company

Brainerd Chemical Company is a leading U.S. manufacturer and distributor of specialty and commodity chemicals, serving energy, agriculture, water treatment, and manufacturing industries. Our mission is simple: to safely supply the solutions you need, the support you want, and the reliability you depend on—every single day.

 

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Boosting Well Integrity with Peracetic-Acid Biocides

In today’s fracking landscape, ensuring well integrity isn’t just about production, it’s the frontline of return on investment (ROI), safety, and sustainable water management. Recent field investigations in the Permian Basin underscore how peracetic acid (PAA) based biocides are no longer an alternative to traditional chemical treatment methods — PAA is the benchmark providing a cleaner kill, faster and more responsibly.

ROI – Lower Costs, Higher Performance

PAA offers striking cost efficiency. Its high selectivity means much lower dosages are needed compared to bleach or chlorine dioxide, which require two to four times more product (epa.gov). This dosage reduction translates directly to lower chemical costs, reduced transportation expenses, and fewer logistical complexities at the well pad.

But the savings don’t stop there. By effectively controlling microbial-induced corrosion and H₂S-related damage, PAA helps prevent premature equipment failures and production slugging—yielding fewer interventions and better asset longevity.

Safety – Smarter Chemistry, Safer Operations

PAA decomposes into benign byproducts—oxygen, water, and acetic acid—so no harmful residuals linger in flowback or recycled frac water. The vinegar‑like odor acts as a natural leak detector during handling. Plus, being liquid at ambient conditions, it avoids the handling dangers posed by chlorine dioxide gas. Overall, PAA reduces exposure risks for field crews and minimizes environmental release threats.

Efficiency – Maximizing Water Management Potential

Effective water recycling is central to sustainable fracking. PAA shines here: it oxidizes iron sulfides and H₂S in flowback tanks, prevents biofilm build-up, and simplifies solids separation—all in one integrated step (researchgate.net). Operators have reported near-100% suspension of microbes and H₂S in recycled frac water, boosting reuse rates and slashing freshwater dependence.

Permian Basin Proof: A Real-World Study

A recent Permian Basin trial assessed oxidizers in real on-site water ponds. Through enzymatic ATP and AMP measurements, PAA showed superior microbial kill and significantly reduced regrowth risk compared to bleach or ClO₂—especially in high‑organic loading scenarios. Its lower reactivity with organics made it a clear winner.

Fracking-Specific Water Benefits

Pre-frac treatment: Treat frac water with PAA to suppress SRBs and biofilms before injection.

Mid-job addition: Inject during frack operations to immediately neutralize microbes and H₂S generated downhole.

Recycling cycles: Post-frac, PAA cleans residual contaminants—enhancing water quality for reuse.

Post-job maintenance: Periodic treatment prevents fouling or corrosion in frac tanks and pipelines.

This integrated approach not only safeguards wellbore integrity but also supports zero-discharge and full-cycle water reuse programs—especially critical in arid regions like the Permian.

Industry Shift to the Cleaner Kill

Major players are taking notice. Recently completed real-world completion fluid tests pitted peracetic acid–based biocides against conventional glutaraldehyde-based programs. The PAA treatment provided a cleaner kill exceeding microbial kill rates while lowering environmental persistence.

Takeaways for Frac Operators

BenefitImpact
Cost savingsReduced dosage → supply/logistics savings
Safety gainsSafer handling; no toxic residues
Operational uptimeFewer corrosion events and field interventions
Water sustainabilityCleaner recycled frac water, less freshwater usage

The Bottom Line

Peracetic acid isn’t just another biocide—it’s a strategic upgrade. From killing microbes to cutting costs and keeping crews safer, PAA checks every box for modern frac operations.Ready or not, PAA is no longer the alternative – it’s the benchmark.

About Brainerd Chemical Company

Brainerd Chemical Companies mission to safely supply our customers with the solutions they need, the support they want, and the reliability they depend on to meet the challenges they face every day.

Media Inquiries:

Brainerd Chemical Company:  1+ (918) 622-1214

SOURCE: Brainerd Chemical Company.

How PAA Biocides Support Safer, Cleaner Flow Assurance

Peracetic acid-based (PAA) biocides are rapidly being adopted by producers and service companies because of the fast-acting and environmentally responsible characteristics compared to traditional biocides. With rapid antimicrobial action and biodegradable by products, PAA supports safer water handling, cleaner infrastructure, and more efficient flow assurance across drilling, stimulation, and production phases while also reducing regulatory risks.

As Brian Miller, President of Brainerd Chemical Company, stated, “It [PAA] is safer, all the while protecting and cleaning the land during the production process”.

This emphasis on safety and environmental stewardship positions Brainerd Chemical as a valuable partner for oil and gas producers seeking effective and responsible chemical solutions in the Permian Basin.

PAA biocides are effective in preventing and minimizing MIC, reservoir souring, and biofilm formation that slows down production. Common target organisms include:

  • Sulfate-Reducing Bacteria (SRB) – produce hydrogen sulfide, a corrosive and toxic gas.
  • Acid-Producing Bacteria (APB) – generate organic and inorganic acids that corrode metal infrastructure.
  • Slime-Forming Bacteria – produce biofilms that protect SRB and APB colonies and clog flow paths.

As operational demands and environmental expectations rise, producers are quickly shifting toward PAA as a reliable and responsible microbial control solution.

Properties and Performance of Peracetic Acid-Based Biocides

Peracetic acid is an oxidizing biocide formed from the reaction of acetic acid and hydrogen peroxide. It decomposes into acetic acid, oxygen, and water, leaving no harmful residues.

Key attributes include:

  • Broad-spectrum efficacy against bacteria, fungi, and spores.
  • Fast-acting microbial kill, often within minutes.
  • Effective over a wide pH range, making it suitable for varied water chemistries.
  • Biodegradable byproducts, which simplify environmental compliance and water reuse.

These characteristics make PAA suitable for treating both raw water and produced water used in hydraulic fracturing and well injection operations.

Applications in the Permian Basin

Operators in the Permian are applying PAA-based biocides in several key use cases:

  • Hydraulic Fracturing Fluids – To prevent bacterial growth in frac water, especially when reusing produced water.
  • Water Transfer and Storage Systems – To prevent biofilm buildup in temporary tanks, pipelines, and blenders.
  • Hydrostatic Testing – To protect pipelines and surface equipment prior to startup.
  • Well Maintenance – Periodic biocide treatments are used to control microbial fouling and corrosion.

Operational and Regulatory Considerations

PAA’s relatively low toxicity profile and minimal environmental persistence help operators address both operational risks and regulatory expectations. It is compatible with many water treatment systems and can help reduce the chemical load in discharge or re-injection scenarios.

The short half-life of PAA in the environment reduces concerns over long-term contamination, which is especially relevant near populated or environmentally sensitive areas.

Using The Right PAA Product

Selecting the correct peracetic acid (PAA) biocide formulation is essential to maintaining operating efficiency and microbial control across varying oilfield conditions. Products are engineered with specific concentrations, stability profiles, and compatibility characteristics suited for different applications, from high-temperature wells to water with elevated organic load. For example, stabilized versions like Brainerd Chemical Companies Terrastat® 1522-S or 22-S may be preferred in storage-intensive operations, while Terrastat® 15-OF offers similar properties but for instances that do not need an EPA registration.

Choosing the right formulation ensures optimal biocidal performance, minimizes dosing costs, reduces system downtime, and helps meet site-specific safety and environmental requirements. Collaboration with chemical suppliers and field engineers is critical to matching product selection with water chemistry, flow rates, and operational priorities.

Brainerd Chemical Company offers PAA Biocide solutions tailored to Permian basin production that include:

Terrastat® 1522-S is designed to scavenge hydrogen sulfide, iron sulfide, and other contaminants from drilling, completion, and production waters.  Terrastat® 1522-S PAA is typically used in:

  • Well drilling operations
  • Formation fracturing operations
  • Productivity enhancement systems
  • Secondary recovery systems
  • Pipeline and tank maintenance
  • Drilling muds, fracturing fluids, well squeezed fluids
  • Flooding, injection and produced water sanitation

Terrastat® 15-OF is a non-registered PAA that is designed to scavenge hydrogen sulfide, iron sulfide, and other contaminants from drilling, completion, and production waters.  Terrastat® 15-OF PAA is typically used in:

  • Drilling muds
  • Workover & completion fluids
  • Water flooding operations
  • Saltwater disposals and injection wells

Terrastat® 22 is designed to scavenge hydrogen sulfide, iron sulfide, and other contaminants from drilling, completion, and production waters. Terrastat® 22 PAA is typically used in:

  • Drilling muds
  • Workover & completion fluids
  • Water flooding operations
  • Saltwater disposals and injection wells

Terrastat® 22-S is designed to scavenge hydrogen sulfide, iron sulfide, and other contaminants from drilling, completion, and production waters.  Terrastat® 22-S PAA is typically used in:

  • Drilling muds
  • Packing fluids
  • Secondary oil recovery systems
  • Saltwater disposals and injection wells

A Smarter Path to Safer Production

PAA-based biocides are becoming a strategic asset because they enable operators reduce regulatory risks, lower environmental impact and in many cases – improve operating efficiency. Their rapid action, broad efficacy, and environmental profile make them well suited for modern production strategies that rely on water reuse and minimal environmental impact.

By controlling microbial threats with lower toxicity and higher efficacy, producers and service companies can drive sustainable productivity across the Permian Basin. That’s not just good chemistry — it’s good business.

Fast & Reliable Peracetic Acid Supply

As an Oklahoma-based, family-owned enterprise, we keenly aware of how important speed, reliability and safety are vital to your success. With multiple manufacturing locations and built-in supply chain redundancies, Brainerd Chemical’s reliability is second to none.

Count on Brainerd Chemical Company to provide:

Fast and Reliable Distribution

With six strategically located facilities and a robust hybrid distribution network, we ensure your mixed acids and specialty chemicals arrive safely, on time, and where you need them—minimizing downtime and maximizing supply chain efficiency. In fact, our Tuttle facility was specifically built to more efficiently serve our oil and gas clients.

Built-In Safety and Compliance

At Brainerd, safety isn’t an afterthought—it’s built into every process. Our team follows strict safety and regulatory protocols to handle and transport both hazardous and non-hazardous materials with the highest level of care and compliance.

Custom Solutions

Flexibility is central to our service model. Whether you need custom chemical blends, specialty packaging, or precise delivery schedules, our team works with you to develop tailored solutions that meet your exact operational requirements.

When you work with Brainerd Chemical, you gain more than a supplier—you gain a strategic ally dedicated to supporting your operations with quality, responsiveness, and innovation. We’re here to move your business forward, one delivery at a time.

For technical consultations on safe, responsible and effective oilfield biocide solutions, contact Brainerd Chemical Company at +1 (918) 622-1214.

About Brainerd Chemical Company

Brainerd Chemical Companies mission to safely supply our customers with the solutions they need, the support they want, and the reliability they depend on to meet the challenges they face every day.

Media Inquiries:

Brainerd Chemical Company:  1+ (918) 622-1214

SOURCE: Brainerd Chemical Company.

PAA Helps Overcome Rural Wastewater Treatment Challenges

Water is life, and for rural communities, ensuring its safety is paramount. Yet, these communities often operate under significant challenges such as limited budgets, minimal technical staff, and aging infrastructure compared to their urban counterparts. Yet these facilities must meet the same stringent regulatory requirements for effluent quality.

Peracetic acid (PAA) disinfection offers a promising solution for rural applications, offering significant operational, economic, and environmental advantages over traditional chlorination or UV systems. This article examines the practical applications and benefits of using PAA water treatment processes in facilities serving smaller populations.

The Rural Wastewater Challenge

Rural treatment facilities typically process lower water volumes but face greater variability in flow rates and influent characteristics. Many operate lagoon systems or small package plants, where implementing complex disinfection technologies can be prohibitively expensive.

Historically, these facilities have relied heavily on chlorine disinfection, which requires dechlorination steps to prevent environmental harm, or UV systems that demand significant maintenance and energy inputs.

Peracetic acid (PAA) continues gaining popularity as an alternative to traditional chlorine-based disinfectants in wastewater treatment. According to Koivunen and Heinonen-Tanski (2013), PAA disinfection offers advantages in scenarios with limited infrastructure—precisely the situation many rural facilities face. Their research demonstrated effective pathogen reduction at lower doses than traditionally required for chlorination, reduced toxicity and compliance with discharge limits, improved personal and environmental safety, as well as reduced cost through streamlined operations.

How PAA Works for Rural Applications

Peracetic acid works through oxidation, effectively destroying pathogenic microorganisms by disrupting their cell membranes. What makes PAA particularly suitable for rural applications?

Operational Simplicity: PAA requires minimal contact time compared to chlorine—typically 10-15 minutes versus 30+ minutes—allowing for smaller contact chambers and retrofitting into existing systems without major capital investment (Luukkonen & Pehkonen, 2017).

No Harmful Byproducts: Unlike chlorine, PAA breaks down into benign components (primarily water, oxygen, and acetic acid), eliminating the need for dechlorination equipment and chemicals—a significant advantage for facilities with limited technical capacity.

Effectiveness Across Conditions: PAA maintains disinfection efficacy across a wide pH range (5.5-8.2) and in the presence of suspended solids—conditions often encountered in rural systems with less advanced primary and secondary treatment (Antonelli et al., 2016).

Commercial products like Terrastat® have been formulated specifically with these advantages in mind, offering PAA concentrations and delivery systems suitable for smaller facilities.

Potential Operational Benefits

For water districts with lower-volume (3,000+/- residents) operations facing increasingly strict effluent requirements and challenges related to aging chlorination equipment, results can be compelling when comparing chlorination to PAA. While each situation is unique, Pilot programs typically reveal significant benefits highlighted by:

Capital Savings: By repurposing existing contact chambers and eliminating dechlorination equipment, one operation found capital costs would be 42% lower than projected costs for new chlorination equipment.

Operational Simplicity: Staff training requirements may potentially decrease

Environmental Compliance: Fecal coliform, E. Coli or Enterococci levels consistently meet permit requirements with greater reliability than older chlorination systems.

Reduced Chemical Handling and Associated Risks: Elimination of gaseous chlorine reduces risks to worker safety, which is of particular importance in facilities with limited staff.

Simplicity: For small systems, the simplicity of PAA is often noted as the biggest advantage. Operators don’t need specialized technical knowledge to maintain effective disinfection.

Sustainability Benefits

The sustainability advantages of PAA disinfection are particularly relevant for rural communities where environmental stewardship often connects directly to local livelihoods:

Reduced Chemical Transportation: PAA’s effectiveness at lower doses means fewer chemical deliveries—particularly valuable for remote locations.

Ecological Safety: McFadden et al. (2014) demonstrated that PAA disinfection poses significantly lower risks to aquatic ecosystems than chlorinated effluent, particularly in sensitive receiving waters like the small streams often downstream of rural facilities.

Energy Efficiency: Compared to UV systems, PAA requires little electrical input for disinfection, reducing both operational costs and carbon footprint.

Climate Resilience: PAA systems maintain efficacy during flow variations caused by increasingly common extreme weather events, providing operational stability during challenging conditions.

Implementation Considerations

For rural facilities considering PAA implementation, several factors deserve attention:

Dosing Systems: Manufacturers like Prominet Pumps, Watson & Marlow, Blue & White or Pyxis Labs now offer simplified dosing systems specifically designed for smaller facilities.

Regulatory Approval: While PAA has gained regulatory acceptance, permit modifications may be required.

Staff Training: Though simpler than chlorination, proper handling procedures for concentrated PAA remain essential.

Key Takeaways

For rural wastewater treatment facilities seeking cost-effective, environmentally sound disinfection solutions, Brainerd Chemical Company offers a comprehensive line of Terrastat® PAA-based products, expert service and reliable delivery that offers compelling advantages.

The operational simplicity, minimal infrastructure requirements, and strong environmental profile make Terrastat® PAA-based products particularly well-suited to the unique challenges of rural water treatment applications.

Do You Know? Hydrogen Peroxide

Hydrogen peroxide is an incredibly versatile chemical used in a variety of applications including:

  • Healthcare:  Hospitals use hydrogen peroxide products to kill pathogens like cryptosporidiosis and norovirus.
  • Aerospace: H2O2 propulsion systems powered thrusters in the Gemini and Apollo spacecraft; today, many small satellites are controlled with H2O2 vapor systems.
  • Energy: Oil & natural gas producers use hydrogen peroxide based PAA biocides because they are effective while reducing environmental risks.
  • Water and sewage treatment: Hydrogen peroxide is a prime ingredient in PAA, an eco-friendly disinfectant revolutionizing the industry with safer, more responsible solutions.

Brainerd Chemical supplies hydrogen peroxide in concentrations ranging from 1-50% in pail, drum, or tote packaging as well as bulk delivery.

About Brainerd Chemical Company

Brainerd Chemical Company is one of the largest independent suppliers of chemicals and related services in the continental United States. They specialize in manufacturing, blending, packaging, and distributing chemical products across a diverse range of industrial sectors.

Media Inquiries:

Brainerd Chemical Company:  1+ (918) 622-1214

Leading Oil & Gas Producers Shift to PAA Biocide Programs

Faced with rising costs and tighter sustainability regulations, oil and gas producers are under pressure to improve their water management practices. Leading industry executives are shifting away from traditional microbial control chemistries in favor of PAA-based biocides with the ability to enhance productivity while safeguarding people, assets, and the environment.

PAA biocides offer significant benefits to oil and gas producers by optimizing hydrocarbon recovery processes, reducing freshwater demand and related costs, enhancing safety, and mitigating regulatory risks. Unlike traditional chemicals like glutaraldehyde or THPS, PAA is an environmentally friendly option.

Traditional biocides like CIO2 can be effective, but they pose significant risks concerning safe handling and potential contamination of wells and groundwater. On the other hand, peracetic acid-based products provide broad-spectrum effectiveness while reducing risks to both humans and the environment. And they minimize adverse interactions with other chemicals present in frac fluids, such as friction reducers and scale inhibitors.

Reducing Infrastructure Costs by Recycling Fracking Water

High producing operators actively work to reduce water use which is why the adoption of PAA biocides is growing exponentially. Water is crucial in the fracking process. It creates fracking fluid; initiates pressure at the start of operations and is key for cleanup and debris flushing. Over the years, the water required per well has steadily increased. Geology and multiple other factors influence water demand at the well site. According to the American Petroleum Institute (API), a typical fracking operation utilizes around 4 million gallons of water per well. Reusing and recycling frack water increases operational efficiency by reducing costs related to sourcing, transporting, and storing fresh water.

Pros and Cons of Chlorine Dioxide for Microbial Control

Chlorine dioxide (ClO2) has been a popular choice for microbial control in the oil and gas industry, but there is a misconception that it can handle all microbial issues on its own. Operators need to be aware that while effective in various applications, its efficacy decreases after initial topside decontamination.  High doses are needed to eliminate bacteria during fracturing operations, which can lead to corrosion and reduced productivity. It’s crucial for industry professionals to realize that no single biocide is effective in every production phase. Successful microbial control requires a customized program that uses the right biocide for each specific phase and application.

Comprehensive Microbial Prevention and Control Programs

To effectively prevent microbial contamination in oil and gas operations, a structured approach across three main phases—preparing the water, decontaminating the well, and protecting the reservoir—is essential. At Brainerd, we tailor our biocide recommendations to the specific needs of each phase, considering factors like temperature, salinity, and both aerobic and anaerobic conditions, along with the control duration required.

During water injection, native downhole populations, along with microbes introduced with the water, can lead to bacterial contamination in wells. Introducing a potent biocide into drilling and stimulation fluids is critical for gaining initial control. It is equally important to manage microbial growth in the reservoir continuously. Biocides capable of maintaining their effectiveness under high temperatures, pressures, and salinities are crucial to prevent issues like reservoir souring, asset corrosion, and the formation of in situ biofilms over time.

Expert Microbial Control Advice and Service

Brainerd Chemical Company water treatment technologies are effective against a broad spectrum of micro-organisms over a wide pH range. Operators use our chemistries to reduce bacteria, hydrogen sulfide, iron sulfide and other oilfield contaminates in topside and downhole applications without the harmful byproducts and safety risks associated with traditional chemistries. 

Whether you need treatment technologies for injection water or produced water reuse or disposal, Brainerd Chemical microbial control solutions will help you control costs, meet specifications and reduce regulatory risks. We support you with proven biocide chemistries, reliable service and a proven team of experts able to advise you.

Our Terrastat® line of specialty peracetic acid biocides can be utilized during drilling, fracturing, productivity enhancement, and secondary recovery as a biocide and oxidizer. And they are compatible with other water treatment chemicals and work in a variety of water-intensive applications.

ProductBlendTypical ApplicationsUses
Terrastat® 15-S16% peracetic acid and 10.5% hydrogen peroxide.Scavenge hydrogen sulfide, iron sulfide, and other contaminants from drilling, completion, and production waters.Well drilling operations. Formation fracturing operations. Productivity enhancement systems. Secondary recovery systems. Pipeline and tank maintenance. Drilling muds, fracturing fluids, well squeezed fluids Flooding, injection and produced water sanitation.  
Terrastat® 1522-S16% peracetic acid and 23% hydrogen peroxideControl anaerobic sulfide-forming bacteria or aerobic slime forming bacteria.Fresh or recycled waters. Secondary recovery systems. Pipeline and tank maintenance. Drilling muds, fracturing fluids, well squeezed fluids. Flooding, injection and produced water sanitation.  
Terrastat® 2223.5% peracetic acid and 9% hydrogen peroxide.Scavenge hydrogen sulfide, iron sulfide, and other contaminants from drilling, completion, and production waters.Drilling muds. Workover & completion fluids. Water flooding operations. Saltwater disposals and injection wells.  
Terrastat® 22-S22% peracetic acid and 5% hydrogen peroxide.Scavenge hydrogen sulfide, iron sulfide, and other contaminants from drilling, completion, and production waters.Drilling muds. Packing fluid. Secondary oil recovery systems.  

Optimizing Energy Production Through PAA

Oilfield microbial control methods are constantly evolving. And, with pressure from rising operational costs and environmental regulation risks, leading operators are incorporating PAA-based biocides into their microbial control programs to boost productivity while safeguarding personnel, assets, and the environment.

Microbial control methods in oilfields are continually advancing, making it essential for operators to ensure their programs are optimized at every stage of production.

Partnering with a trusted PAA biocide supplier like Brainerd Chemical Company offers operators essential technical expertise and exceptional service to help them continually optimize operations through every stage of production.  

About Brainerd Chemical Company

Brainerd Chemical Company is a leading manufacturer and supplier of innovative technologies and peroxyacetic acid formulations, delivering wide-ranging solutions that optimize water treatment improving safe, efficient and environmentally responsible operations. Through our hybrid distribution network, our team delivers a complete line of EPA and FDA approved products for a variety of industries including oil & gas production, industrial water treatment, meat and poultry processing, food & beverage, agriculture, animal health, wastewater treatment and more.

Media Inquiries:

Brainerd Chemical Company:  1+ (918) 622-1214

SOURCE: Brainerd Chemical Company.