
Agricultural land application is the most used biosolids recycling method; set rate in dry tons per acre by agronomic crop needs or pollutant limits, and address odor and nuisance issues.
Calculate the agronomic rate by estimating plant available nitrogen per dry ton from nitrate, ammonia, and organic nitrogen, adjusted with volatilization and mineralization factors, using a liquid biosolids example.
Explain domestic septage under Part 503, applied to non public sites with no pollutant limits, using the 0.0026 factor to calculate gallons per acre and lime treatment for pathogen control.
Link percent solids to dry and wet ton conversions to determine plant available nitrogen for agronomic rate. Then convert wet tons to gallons per acre using 8.34 lbs per gallon.
Apply a systematic, multi-step method to calculate dry ton per acre from 800,000 gallons of 3% biosolids on a 45.9-acre field, yielding 2.2 dry tons per acre.
Convert copper concentration from dry mass to wet mass using total solids percentages, as shown with 25 mg/kg dry solids and 22% total solids.
Limit regulated pollutants through pretreatment and local limits to improve biosolids quality, and outline national discharge limits and categorical standards under 40 CFR part 403 for electroplating and metal finishing.
Explore current biosolids issues focused on PFAS, their health risks, and regulatory actions, including the EPA lifetime advisory and Maine limits, plus firefighting foams and AFFF sources.
Explore covid-19's impact on biosolids under 40 cfr part 503 subpart b, noting class a restrictions of three cfus per 4 g dry biosolids and ppe use.
Day 2 practice exam explanations cover buffer zones, reporting requirements, land application standards, nutrient calculations, agronomic rates, and practical steps for biosolids management.
Study the biosolids land applier training material, memorize conversion factors like 8.34 wet pounds per gallon and 43,560 square feet per acre, and avoid leaving any multiple choice question blank.
Highlight biosolids land applier benefits and resources, including free consultations, CEU credits, live webinars, the biosolids land applier support tool basic, blast premium, study guides, and carbon capture assessment.
Part 2 of Day 2 of this certification training course!
Every year, water reclamation facilities generate tens of millions of tons of organic residuals known as sewage sludge. The question of what to do with this material remains a financial and public health challenge for water utilities, government health agencies and other environmental and public-policy stakeholders. Given the legal ban on ocean disposal and the exorbitant costs associated with landfilling and incineration, residuals recycling (or beneficial use) has become the financially preferred option for sewage sludge management.
In the United States (US), sewage sludge recycling is a regulatory process that is defined by Title 40 of the US Code of Federal Regulation Part 503 Subpart B (Part 503). The first step in this process is the legally-recognized transformation of sewage sludge into biosolids. By regulatory definition, biosolids are sewage sludge that meets the nationally-recognized quality requirements necessary for environmental recycling.
Biosolids beneficial use represents a new and exciting approach to enhance agricultural production, combat climate change and achieve environmental sustainability. A new technical series narrated by Dr. Mike McFarland explores the myriad options for recycling biosolids to protect ecological resources and enhance food security. An excellent course for those seeking land applier certification.
In Day 2, Part 2 of this online course, Dr. McFarland will focus on the following topics:
Agricultural Land Application (APA)
Agronomic Rate Determination (ARD)
Domestic Septage
Methods To Control Biosolids
Relevant Biosolids Issues
And at the end of this module, there will be the final practice test!