A 0.06 MGD MWTP in Utah was struggling with weekly toxic hits that were killing off the biomass in their system. The facility serviced a large resort that received thousands of visitors annually and a local distilling operation. Toxicity at the plant is sourced from extremely high biological oxygen demand (BOD) and fats, oils, and grease from the resort. Additionally, the chemicals and surfactants in the influent from the distillery were poisoning the biology. These toxic waste inputs prevented a stable biomass from establishing in the system. Without functional biological treatment, the facility’s effluent had frequent high BOD and NH3 concentrations.
The operators added activated sludge from a neighboring plant to restart the system each time toxic waste killed off the biology. Hauling and implementing activated sludge was becoming financially and operationally taxing, so the facility manager sought alternative seeding options. After reviewing BioLynceus’s references of work, the management decided to treat their plant toxicity with PBII.
To reinstate efficient wastewater processing after a toxic hit or influent overload, a daily dose of PBII was applied to the MWTP aeration basin for three to five days. The treatment increased the abundance of nitrifying and organotrophic bacteria that helped improve effluent BOD and NH3 levels. The system’s recovery time from toxic hits was also decreased during bioaugmentation. After multiple successes with PBII, the plant manager reported, “I am extremely pleased with the BioLynceus® product and have seen a huge change in effluent quality.”
Treating toxic upsets with PBII quickly and cost-effectively instilled a healthy biomass at the MWTP.
Nitrification Bioaugmentation in an Activated Sludge Process
Augmenting wastewater processes with culturesof nitrifying bacteria can increase abundance andnitrification efficiency correspondingly. Additionally,implementing organic matter degrading microbiologyin a system can increase the time available for bacteriato oxidize...
Nitrification Treatment in an Aerated Lagoon System
Municipal Lagoon systems are often challenged withfacilitating nitrification. Nitrifying bacteria are responsiblefor removing ammonia from wastewater. These organismsare generally in low abundance in lagoon processes for a fewreasons; [1] nitrification is an...
F:M Stability in a National Park Wastewater Network
The F:M in the wastewater treatment network at aNational Park in Wyoming was optimal from July –October. There was consistent organic carbon loadingduring this time from tourist activities. However, whenthe park closed for the winter, the biomass declineddue to...
F:M Treatment with Candy Carbon® at an Activated Sludge Plant
Many wastewater systems experiencing high infiltrationand inflow (I&I) have issues with hydraulic overloadingwhich impacts biomass stability. I&I can impair thecapacity of the wastewater collection system andwastewater treatment infrastructure.1Increased flows...
F:M Stabilization at a Mechanical Wastewater Treatment Plant
Wastewater treatment plants receiving inconsistentinfluent loads are often challenged with maintainingan effective biological treatment. Many of the keymicroorganisms in wastewater processes are dependenton organic substrate to grow and divide. When influentflows are...
F:M Stability in a Sequencing Batch Reactor
In many resort towns, the influent loads to thewastewater treatment system are highly variablethroughout the year. During the tourist seasons there isan abundance of wastewater to sustain the biomass attreatment facilities, but when the transient populationleaves,...
F:M Treatment in an Activated Sludge Plant
Wastewater systems located in regions with high annual precipitation, such as the Pacific Northwest, are prone to experiencing biological washouts due to high infiltration and inflow (I&I) from collection systems. I&I can critically disrupt the biological...
Candy Carbon® Denitrification in an Activated Sludge System
For many municipal wastewater treatment facilities, removing inorganic nitrogen to permitted discharge levels is a challenging requirement. Without the role of biological nutrient removal (BNR) in treatment systems, effluent wastewater will have high concentrations of...
Denitrification with Candy Carbon® at an Industrial Wastewater Treatment Plant
Denitrification efficiency in wastewater treatment is dependent on several environmental conditions. The wastewater plant must maintain a consistent anoxic zone, abundance of denitrifying microorganisms, and organic carbon source. For optimum performance, denitrifying...










