Before

Prior to treatment, the manure lagoon showed clear signs of biological imbalance, including significant sludge buildup on the lagoon floor and a persistent scum layer across the surface. These conditions contributed to stronger odors, more challenging agitation, and reduced pumping efficiency. Nutrient analysis indicated a manure profile delivering lower levels of plant-available nitrogen and potassium, while phosphorus remained a limiting factor for land application. As a result, the farm was not capturing the full fertilizer value of its liquid manure and faced operational constraints when applying lagoon slurry as a crop nutrient source.

After

After implementing Pit Puck microbial tablets for manure lagoons, the farm observed a cleaner, more biologically active lagoon with substantially reduced sludge, diminished surface scum, and noticeably lower odor during storage and agitation. Laboratory analysis confirmed a measurable improvement in manure nutrient quality, including an additional 64.6 lbs of usable nitrogen per acre at a 20,000 gallon application rate, helping strengthen crop fertility while reducing dependence on commercial nitrogen fertilizers. Potassium increased, delivering 71.6 more lbs per acre, further enhancing the manure’s value as a fertilizer source. At the same time, phosphorus decreased by 13.4 lbs per acre, a significant advantage due to phosphorus limiting manure application rates, allowing the producer greater flexibility within nutrient management guidelines. Sulfur declined by 5.8 lbs per acre, supporting a more balanced nutrient profile. These field results demonstrate how targeted microbial treatment can improve manure lagoon performance, support more efficient manure management, increase plant-available nutrients, reduce odor, and convert stored manure into a higher-value fertilizer resource for crop production.

Before

Prior to treatment, cold wastewater conditions severely limited biological performance, a common operational challenge in industrial wastewater treatment during winter months. Competitor products retained only 1% to 5% biological activity at 4°C (39°F) compared to warmer conditions, and untreated dairy and pulp and paper wastewater demonstrated minimal BOD reduction. Reduced microbial populations increased the likelihood of sludge carryover, nutrient spikes, odor potential, and slower recovery following flow fluctuations or seasonal loading changes. Without effective low temperature bioaugmentation, operators faced declining treatment efficiency precisely when process stability was most critical.

After

Low Temperature (LT) is a specialized low temperature wastewater bacteria blend designed for reliable cold weather bioaugmentation and consistent treatment performance in challenging environments. Testing showed LT maintained approximately 92% of its biological activity at 4°C (39°F) relative to performance at 25°C (77°F), helping facilities maintain biological activity in cold temperatures when conventional bacteria typically underperform. Measurable BOD reduction was observed in both dairy and pulp and paper industrial wastewater at cold and moderate temperatures over a three day period, confirming dependable cold weather wastewater treatment capability. By sustaining an active microbial population, LT helped control sludge buildup, support nutrient balance, improve hydraulic resilience during variable flows, and stabilize system performance heading into spring startup. The result is more reliable winter wastewater treatment, reduced operational risk, and stronger year round biological performance for facilities operating in low temperature conditions.

Before

Before treatment, the soil showed heavy petroleum staining, persistent hydrocarbon odors, and poor biological activity, indicating that natural attenuation was insufficient to reduce petroleum hydrocarbons to acceptable levels without intervention.

After

Petroleum Treat (PT) was applied as a high-CFU petroleum hydrocarbon degrading bacteria blend within a controlled bioremediation program in which contaminated soil was placed into windrows on site, biologically treated, and then returned to its original condition after remediation; post-treatment analysis showed total petroleum hydrocarbons (C10–C40) reduced from approximately 20,000 ppm to 650 ppm, oil and grease reduced from 1,100 mg/kg to 45 mg/kg, and sulfate levels in soil porewater reduced by approximately 50 percent, with visible petroleum staining eliminated and hydrocarbon odors substantially reduced, confirming effective windrow-based petroleum bioremediation.

Before

Prior to biological treatment, the oil water separator required repeated pumping to manage accumulated petroleum hydrocarbons. TPH levels remained consistently elevated, averaging over 22,000 mg/L, and the municipality incurred approximately $16,000 per year in pumping and disposal costs while still struggling to maintain discharge compliance.

After

Petroleum Treat (PT) Liquid was applied continuously via metering pump, enabling active biological degradation of petroleum hydrocarbons within the separator. TPH concentrations were reduced from 22,940 mg/L to 614 mg/L within 45 days and further reduced to 79 mg/L by day 120, achieving and maintaining regulatory compliance. Once biological treatment stabilized, routine pumping was eliminated entirely, reducing annual pumping costs from $16,000 to $0 while sustaining long-term wastewater treatment performance.

Before

Initial soil analysis showed severe petroleum contamination across multiple carbon ranges, including C15–28, C29–36, and C37–40 fractions. TPH concentrations exceeded 15,000 ppm in several fractions, with strong petroleum odors indicating active volatile and semi-volatile hydrocarbons. Based on baseline conditions, traditional remediation methods were expected to require extended treatment periods to achieve meaningful reduction.

After

After only 15 days of treatment, Petroleum Treat (PT) achieved significant TPH reduction across all measured hydrocarbon fractions and fully eliminated petroleum odors within the first 8 days. Laboratory results showed PT consistently outperformed two competing microbial products, delivering up to 73 percent reduction in heavy C37–40 hydrocarbons and substantially higher removal across mid-range fractions. These results reflect early-stage biodegradation only. Continued application and treatment time will further reduce remaining hydrocarbons as microbial activity continues to mineralize residual petroleum compounds. The data confirms Petroleum Treat’s ability to rapidly initiate and sustain petroleum bioremediation, significantly shortening cleanup timelines for high-TPH soil remediation projects.

Before

Untreated control plants grown under the same conditions showed slower growth, thinner foliage, reduced root mass, and limited yield development. Poor soil biology restricted early establishment and overall plant vigor, resulting in lower productivity at harvest.

After

Green pepper plants treated with Multi-Tricho soil inoculant demonstrated visibly stronger growth, thicker leaves, and significantly greater root mass compared to the control. At harvest, treated plants produced 156 g of peppers versus 63 g in the control, representing a 147% yield increase despite no fertilizer input. The results highlight how a multi-strain Trichoderma inoculant can enhance root development, support soil biological activity, and improve crop performance and yield under challenging soil conditions.

Before

Plots receiving only water and standard nutrition showed slower germination and reduced early growth. Turf emergence was less uniform, and overall plant height development lagged compared to treated areas, indicating limited root-zone biological activity during early establishment.

After

Weekly applications of Multi-Tricho significantly improved both germination and early growth compared to the control. Treated plots demonstrated faster, more uniform turf establishment and increased plant height, with the higher application rate delivering the strongest performance. By enhancing root-zone biological activity and supporting early root development, the multi-strain Trichoderma inoculant improved stand consistency and early vigor in Mustang III turfgrass.

Before

Prior to treatment, plants receiving standard nutrient solutions or water alone showed reduced root length and root mass, lower transplant survival, slower vegetative growth, and smaller leaf area. Control plants exhibited weaker root systems, delayed development, and lower overall productivity compared to biologically treated plants.

After

Following application of a high-CFU multi-strain Trichoderma inoculant, plants showed substantially stronger root development, increased root mass and length, improved transplant survival, and faster vegetative growth. Treated plants exhibited greater plant height, increased foliage, improved uniformity, and higher fruit production compared to untreated controls and a commercial Trichoderma benchmark. The results demonstrate improved rhizosphere balance, root vigor, and overall plant performance under intensive growing conditions.

Before

Prior to treatment, the grease trap contained thick surface grease, hardened deposits along the walls, and visible solids accumulation. Strong odors were present, indicating elevated volatile fatty acids and hydrogen sulfide activity. Even after cleanouts, grease rapidly re-accumulated, requiring frequent service and ongoing odor management.

After

After three months of continuous treatment, the grease trap showed visibly cleaner conditions with minimal grease accumulation and no detectable odors. Flow through the trap improved, grease buildup between pump-outs was significantly reduced, and routine

Before

Prior to treatment, the thatch layer measured approximately three inches in depth. Turf surfaces exhibited reduced firmness, inconsistent ball roll, and limited infiltration following irrigation and rainfall. The dense organic mat interfered with root development and moisture distribution, increasing maintenance challenges and limiting overall turf quality.

After

After 40 days of treatment with Thatch Treat, the thatch layer was reduced from approximately three inches to 0.5 inches without the use of mechanical equipment. Turf color, density, and overall vigor visibly improved across treated areas. The reduction in organic matter resulted in enhanced infiltration, firmer playing surfaces, and improved turf resilience, achieving effective thatch control while avoiding downtime, labor costs, and surface disruption associated with mechanical methods.

Before

Prior to biological treatment, the grease trap showed severe organic and solids loading. BOD measured 2,328 mg/L and TSS reached 2,660 mg/L, indicating poor grease breakdown and heavy sludge accumulation. Pumping costs averaged approximately $1,029 per service event, driven by rapid solids buildup and the need for frequent cleanouts.

After

Following implementation of biological grease trap treatment, the system demonstrated sustained and progressive improvement. BOD levels were reduced to below 200 mg/L and TSS fell to below 230 mg/L, reflecting effective digestion of fats, oils, grease, and suspended solids. As solids accumulation declined, pumping frequency was dramatically reduced and pumping costs dropped to approximately $20. The grease trap stabilized operationally, odors were minimized, and long-term maintenance costs were significantly lowered.

Before

Prior to biological treatment, the waste piping showed extreme grease accumulation, with pipe diameters nearly closed by hardened fats, oils, and grease. One section (Leg 1) required full pipe replacement due to irreversible blockage. Manual cleaning revealed thick, rigid grease deposits that quickly re-formed, offering no sustainable solution. Odors persisted, and flow capacity remained severely restricted.

After

Within approximately 14 days, inspections confirmed significant grease softening and removal, with restored pipe cross-section and improved flow. A direct comparison between manually cleaned piping and biologically treated piping showed the treated pipe substantially cleaner in less than two weeks. Odors were reduced, flow reliability improved, and maintenance demands dropped. The site transitioned toward preventive biological grease control instead of reactive mechanical intervention.

Before

After

Ammonia Treat for Poultry (ATp) was applied as a granular microbial treatment directly to the high-rise manure pits. Within 4–5 days, ammonia levels dropped to below 50 ppm, delivering rapid poultry ammonia control even under winter ventilation constraints, with further reduction to below 20 ppm within 6–8 days. Bird irritation was eliminated, stress levels declined, and feed conversion improved as barn air quality stabilized. Based on consistent results, ease of application, and labor savings, the producer adopted once-monthly ATp applications as a standard practice and discontinued multiple less effective alternative products.

Before

Prior to treatment, ponds accumulated heavy organic sludge and emitted sulfur odors. Shrimp showed stress symptoms, uneven growth, and higher mortality. Elevated ammonia required 8–10 water exchanges per cycle, increasing operating costs and reducing pond stability. Pond bottoms deteriorated rapidly, forcing periodic soil removal and limiting the number of viable production cycles.

After

With Aquaculture Treat (AQ), pond bottoms remained firm and aerobic with no sulfur odors. Water exchange was eliminated during the production cycle. Shrimp showed improved health, uniform growth, and higher survival. Total harvest increased from 3,650 kg to 4,268 kg in a 7,000 m² pond, feed conversion improved from 1.79 to 1.37, and survival increased from 69% to 77%. The farm achieved an estimated ROI of over 1,200% per cycle through higher yields and lower operating costs.

Before

After

Ammonia Treat (AM) microbes were applied to the petrochemical wastewater system to support biological ammonia removal under existing operating conditions. Within three days, effluent ammonia dropped to 2 mg/L and then stabilized below 1 mg/L, consistently meeting the new discharge limits. Because AM contains heterotrophic, carbon-utilizing ammonia-reducing bacteria, COD was also reduced, improving overall wastewater treatment performance without relying on conventional nitrifying bacteria.

Before

After

Ammonia Treat (AM) powder was applied directly to the landfill leachate with proper aeration to support biological activity. The high-CFU ammonia-reducing bacteria rapidly established and began consuming ammonia. Within 10 hours, ammonia levels dropped from 850 mg/L to 60 mg/L, dramatically improving treatability and reducing odor intensity. After 26 hours, ammonia was further reduced to 4 mg/L, demonstrating fast, effective biological ammonia removal in high-strength landfill leachate conditions.

Before

Prior to treatment, the pond showed visible algae and surface scum, elevated turbidity, and strong odors. Organic accumulation and unstable nutrient cycling negatively affected pond aesthetics and aquatic life.

After

A high-CFU beneficial pond bacteria powder was applied as directed. Within two weeks, water clarity visibly improved, surface scum and algae pressure were significantly reduced, and odors were eliminated as organic matter and excess nutrients were biologically digested.

Before

Los microbios Bio-Green Distilled Spirits Treat (DST) y Wastewater Treat (WT) se aplican al tanque de aireación existente una vez al día. El producto en polvo se aplicó a través de la entrada del tanque de aireación.

After

Los malos olores se eliminan en 7 días. Después de 14 días de tratamiento, la capa de espuma en la parte superior del tanque casi se eliminó. El nivel de agua en el tanque de aireación se redujo en más de 1 metro, lo que representa más de 1 metro de lodo consumido en el fondo del tanque. La capacidad de tratamiento del tanque de aireación aumentó debido a la reducción del lodo. Los costos de electricidad se redujeron debido a la reducción de la carga orgánica, lo que provocó una disminución de la carga en los aireadores.

Before

Los mataderos avícolas de 90 000 animales por día tenían una acumulación excesiva de grasa en la superficie, aceites y grasas (FOG) y muy malos olores en los tanques de tratamiento. La capacidad de tratamiento de aguas residuales era de 2.250 metros cúbicos por día, con un tiempo de retención de 8 días. Baja eficiencia en la reducción de la DBO, con un efluente final de 860 mg/L.

After

Se eliminaron los olores y las grasas, aceites y grasas superficiales (FOG). La DBO se redujo de 860 mg/L a 121 mg/L en los efluentes. La eficiencia de la planta de tratamiento de aguas residuales aumentó del 55% al 86% a los 90 días del tratamiento.