Practitioner Certification

Agentic Digital Twins for
Wastewater Systems

Build a calibrated, cloud-running, agent-queryable SWMM model of your own collection system — then turn it into a decision engine that forecasts wet weather response, predicts pipe condition, and generates a defensible five-year capital plan.

2 Levels Foundation & Advanced
Live Online Two 2-Day Courses
16 Modules Hands-On Curriculum

Build the Twin.
Then Make It Decide.

One system — yours — carried through all sixteen modules. Each course closes with a capstone built live on the final afternoon: not a bolt-on exercise, but the accumulated work of the two days.

Foundation

Build the Twin

Open channel and surcharge fundamentals, automated model construction from GIS, cloud simulation at scale, an MCP server that exposes SWMM to an AI agent, flow monitoring strategy, data QA/QC, and automated dry and wet weather calibration.

Advanced

Make the Twin Decide

A live twin fed by lift station telemetry, radar-driven wet weather nowcasting, optimal flow meter placement, ML condition and SSO risk scoring, I&I versus conveyance optimization, and a risk-based five-year CIP written back into your CMMS.

Tool Stack EPA SWMM 5.2 PySWMM swmm-api Python MCP Docker PostgreSQL / TimescaleDB scikit-learn

Prerequisites — this is a hands-on engineering program.

You will write code. Comfort with basic Python (variables, loops, functions, reading a script) is expected, along with working familiarity with SWMM or another collection system hydraulic model. New to modeling? Start with the free Wastewater Modeling Fundamentals course. Self-paced pre-work covering the Python environment, cloud workspace setup, and a refresher on open channel flow and RDII concepts is included and must be completed before day one. No machine learning or AI background is assumed. If you lead a utility rather than model for one, the one-day Executive Program is built for you instead.

Foundation Certification

Certified Agentic Modeling Practitioner — Wastewater

$2,450
2 Days Live Online + Pre-Work
Module 1

Modeling First Principles & the Agentic Shift

Before automating anything, be certain what the solver is doing. This module rebuilds the hydraulic and hydrologic fundamentals that every downstream automation depends on, then draws a hard line around where an AI agent may and may not operate.

  • Open channel flow, Manning’s equation, surcharge, and pressurized conditions
  • What the SWMM dynamic wave solver computes — and where it becomes unstable
  • Dry weather flow, RDII, and the wet weather response decomposed
  • Where an LLM agent belongs in the loop, and where it must never be
  • Keeping deterministic hydraulics and probabilistic ML strictly separated
Module 2

Model Anatomy & Automated Model Build

A model you cannot rebuild by script is a model you cannot automate. Take the INP file apart, then construct one programmatically from your own GIS and billing data.

  • INP file anatomy: junctions, conduits, pumps, storage, weirs, orifices, subcatchments
  • GIS to model: sewer geometry, invert elevations, and connectivity repair at scale
  • Automated dry weather flow allocation from billing, parcel, and census data
  • Scripted model construction with PySWMM and swmm-api
  • Automated scenario generation: design storms, pump failure, and blockage cases
Module 3

Running Simulations in the Cloud

One run on a laptop is an exercise. Decades of continuous simulation on demand is infrastructure. Containerize the solver and drive it at scale, without a surprise bill.

  • Headless SWMM execution and containerizing the solver
  • Parallel long-term continuous simulation and design storm sweeps
  • Handling large binary output files and extracting time series efficiently
  • Reproducible runs: model versioning, result versioning, and provenance
  • Right-sizing compute and controlling cost for multi-decade continuous runs
Module 4

MCP Servers & Agent Plumbing

The core technical skill of the program. Build a Model Context Protocol server that exposes your collection system model to an AI agent as a set of safe, validated tools.

  • What MCP is, and why it beats bespoke API glue for every new model you add
  • Building an MCP server that exposes SWMM as agent-callable tools
  • Tool design in practice: run_storm, query_surcharge, find_overflows, compare_scenarios
  • Guardrails: rejecting unstable time steps, invalid geometry, and unsafe requests
  • The prompt → simulation → interpretation loop, with mandatory human checkpoints
Module 5

Sensor Strategy & Selection

Calibration is only as good as the field data behind it. Design a flow monitoring program deliberately, and specify instruments that survive a sewer environment.

  • Level, area-velocity, flow, rain gauge, hydrogen sulphide, and temperature sensors
  • Specification that matters: range, accuracy, fouling resistance, access, power, comms
  • Basin-level monitoring design for defensible I&I quantification
  • Integrating SCADA, lift station telemetry, and temporary flow monitoring campaigns
  • Permanent instrumentation versus temporary campaign monitoring for calibration
Module 6

Data QA/QC

Every failed calibration this instructor has reviewed failed here first. Build the automated validation pipeline that stands between raw flow monitoring data and any model that informs a consent decree.

  • Silt and fouling artifacts, backwater effects, and negative velocity records
  • Depth-velocity scattergraphs as a first-line QA tool
  • Validating rain gauge records against radar rainfall
  • Dry weather and wet weather separation, and basin flow balance checks
  • Building a validation pipeline that runs before any calibration is attempted
Module 7

Automated Calibration & Validation

Move from weeks of manual RTK fitting to a repeatable, agent-driven calibration loop — with honest acceptance criteria for a model that may end up in a regulatory submission.

  • Calibration parameters: roughness, RTK unit hydrographs, subcatchment width, infiltration
  • Staged calibration — dry weather first, then wet weather response
  • Objective functions on volume, peak rate, and timing
  • Automated RTK parameter fitting and agentic calibration loops
  • Acceptance criteria and uncertainty for a model used in a consent decree
Module 8 — Capstone

Foundation Capstone

The final afternoon of day two. Assemble everything into one working system, built on the data you brought to class, and defend it to the room.

  • Automated model build from your GIS and billing data
  • Cloud execution environment with versioned, reproducible runs
  • Working MCP server driving your model from natural language
  • Staged dry and wet weather calibration against your own flow monitoring
  • Presentation and peer review of your model’s limits, not just its results

Foundation Capstone Deliverable

A calibrated, cloud-running, agent-queryable SWMM model of your own sewershed or basin — built from your GIS and billing data, calibrated separately for dry and wet weather against your own flow monitoring, and driven through an MCP server by natural language.

Advanced Certification

Certified Digital Twin Strategist — Wastewater

$4,950
2 Days Live Online + Pre-Work
Module 1

Live Digital Twin Architecture

Connect the calibrated model to live telemetry. The step from a model you run to a twin that runs itself is architectural, not algorithmic.

  • Real-time ingestion from lift station SCADA and permanent flow monitors
  • State estimation and continuous tracking of antecedent system condition
  • Latency budgets: operational overflow response versus long-term planning
  • Twin maturity levels — and being honest about which one you actually need
  • Failure handling: what the twin does when telemetry drops or a meter fouls
Module 2

Hyper-Local Weather & Wet Weather Forecasting

Overflow response is a forecasting problem. Predict the wet weather response before the storm arrives, and stage crews and storage accordingly.

  • Radar rainfall estimation, gauge-radar fusion, and bias correction
  • Zero to six hour nowcasting for overflow and surcharge prediction
  • Numerical weather prediction downscaled to basin scale
  • Forecast-driven storage and pumping decisions ahead of the event
  • Ensemble forecasts converted into SSO risk triggers and proactive crew staging
Module 3

Optimal Sensor Placement

Where the next flow meter goes is an optimization problem, not a site-visit judgement call. Quantify what an instrument is worth before deploying it.

  • Placement optimized for I&I source isolation and overflow detection
  • Basin subdivision strategy and information value per meter deployed
  • Detection coverage and time-to-detect objectives for SSO response
  • Budget-constrained optimization across a multi-year flow monitoring program
  • Rolling campaign design as basins are characterized and retired
Module 4

ML-Based Condition & Risk Modeling

Build likelihood and consequence of failure models that survive cross-examination — and learn the specific ways condition data misleads.

  • Likelihood of failure from CCTV and NASSCO condition coding, age, material, sags, roots
  • Consequence of failure: SSO potential, receiving water, and hydraulic criticality
  • Predicting condition for uninspected pipe to target the next CCTV program
  • Blockage and grease event prediction from work order history
  • Explainability, data leakage, and inspection bias baked into historic condition data
Module 5

Automated Design & Optimization

Let the agent generate and test thousands of alternatives across the classic wastewater trade-off — then choose from the Pareto front defensibly.

  • Agentic sizing of relief sewers, storage, pumping, and real-time control
  • I&I removal versus conveyance versus storage, optimized rather than argued
  • Multi-objective trade-offs: capital cost, overflow volume, level of service, O&M
  • Constraint handling and automated regulatory compliance checks
  • Closed validation loop — every candidate design re-simulated before it survives
Module 6

CIP Development & Recommendations

The flagship module, and the seam with the Executive Program. Turn condition risk and hydraulic deficiency into a sequenced, budgeted, defensible capital program.

  • Generating candidate projects from condition risk and hydraulic deficiency
  • Sequencing against consent decree milestones and regulatory commitments
  • Multi-year phasing under hard annual budget ceilings
  • Rehabilitate, replace, or remove I&I — the economics, done explicitly
  • Assembling the board and regulator-ready justification package
Module 7

Asset Management Integration

A recommendation that never reaches a work order changes nothing. Close the loop between the twin and the field crew, in both directions.

  • Writing recommendations back to CMMS as work orders and rehabilitation projects
  • Risk-driven CCTV inspection scheduling that replaces fixed-cycle inspection
  • Feeding SSO, blockage, and cleaning history back into the risk model
  • ISO 55000 and CMOM program alignment
  • Field mobile workflows and structured crew feedback
Module 8 — Capstone

Advanced Capstone

The final afternoon of day two. Wire the full decision chain together on your own data, from live telemetry through to a ranked capital program.

  • End-to-end agentic digital twin running on your live data
  • Wet weather forecasting driving operational overflow response
  • ML condition risk scores validated against your own CCTV and SSO history
  • Optimized, risk-based five-year CIP with full traceability from data to project
  • Board and regulator-ready presentation, defended to the room and the instructor

Advanced Capstone Deliverable

A working end-to-end decision pipeline for your collection system — wet weather forecasting, ML condition and SSO risk scores, and I&I versus conveyance optimization — producing a first-pass risk-based five-year CIP with a regulator-ready justification package. Built in the room on a basin you bring, and ready to extend to your full system.

Who Approves What You Build?

In Advanced Module 6 you produce a risk-based capital plan. The one-day Executive Program teaches your GM, director, or CFO to interrogate and defend that same plan — so the work you do actually gets funded.

Ready to Build Your Collection System Twin?

Sign up for the Wastewater practitioner track and leave with a working agentic digital twin of your own collection system.