01
Operating and lab data
Flows, loads, diurnal and seasonal patterns, energy and chemical use, key pollutants and effluent results from STP, ETP, GWTP, vehicle wash, laundry and side streams.
Consulting & Design · Baseline → Requirements → Fit → Procurement → Delivery support
Baseline diagnostics and planning help establish a clear starting point for early project work. We support companies that need specialist support to organise site details, plant data, and site limitations so that RFI work, early comparison, and next-step planning can move forward on a clear basis.
This stage helps define what the site is producing, how the site actually behaves, which constraints matter, and what further data or checks may be needed before options are compared or scope is taken forward.
We convert sampling, site constraints, and operating conditions into a baseline everyone can work from, so the next steps - targets, treatment lines, and specs - are clearer and easier to compare.
Baseline work is treated too lightly, and variability, constraints, and information gaps stay hidden until bids and delivery.
Scope becomes clearer early. Later comparisons are faster, and the chosen solution is less likely to run into site issues.
We provide process design authority for the early process basis, including the operating picture, the critical constraints, the unknowns that still matter, approval logic, and the checks needed before options are compared or scope is taken forward. Detailed mechanical packages, fabrication drawings, and construction design remain with your EPC/OEM.
Baseline work feels abstract until you tie it to the stream you are actually trying to control. This view shows the information focus we typically use for different streams, so the next stage is not built on assumptions.
Define the project information for variability, shocks, and hydraulics so downstream sizing and controls are not built on “typical” numbers.
Baseline data pack, gaps register, and an information plan that prevents technology selection based on ‘typical’ numbers.
Confirm stability, pathogen intent, and aesthetics so reuse routing and monitoring depth match actual end use.
Reuse-ready baseline plus the minimum check plan vendors need to propose credible treatment lines.
Define stabilisation status, dewatering behaviour, and routing constraints so reuse decisions are clear and buildable.
Biosolids baseline, constraints notes, and routing assumptions to avoid later redesign.
Clarify scaling/fouling drivers, solids route, and heat viability so concentration choices and connections stay realistic.
High‑TDS baseline + viability screen that prevents ‘ZLD later’ surprises.
Pinpoint septicity drivers and hotspots, then confirm monitoring + dosing feasibility before committing to controls.
Odour risk map, monitoring concept, and actionable mitigation hypotheses for the next stage.
Baseline work makes variability, constraints and gaps clear, so requirements and sizing are based on project information, not assumptions.
We start with project information, pulling operating data, lab results, and site knowledge into one simple baseline that design, operations, and management can all recognise.
01
Flows, loads, diurnal and seasonal patterns, energy and chemical use, key pollutants and effluent results from STP, ETP, GWTP, vehicle wash, laundry and side streams.
02
Current tankage, unit processes, networks, bypasses, and how operators actually run the plant, not just what the original drawings say.
03
Persistent alarms, non-compliance events, odour issues, sludge handling bottlenecks and space, access or power constraints that any design must respect.
Using the collected data, we build a clear picture of where things are working and where they are not, not to “audit” operations, but to make the design summary clear.
Performance
Parameters that regularly approach or exceed limits, unstable processes, underperforming units and sections of the system that are under- or over-utilised.
Operations
Manual workarounds, high operator burden, excessive chemical or energy use, and how sludge and biosolids are currently thickened, dewatered, stored and moved.
A baseline is not a single set of numbers. It is the working picture the project is built on. The job is to define what “normal” looks like, what “peak” looks like, and which conditions need extra protection.
Fast risk closure
We focus on the shortest set of checks that change the decision, avoiding over-testing while keeping the design basis clear and well supported.
Design-ready
We translate ranges and scenarios into a working range: expected, peak, and upset cases, plus the checks needed at commissioning.
Baseline errors do not always look dramatic on paper. They often show up later as conservative overbuild, scope growth during commissioning, or systems that struggle when conditions shift.
We plan around a working range so equipment and controls can handle practical variability.
We map variability drivers (production, cleaning/CIP, wet-weather, tanker inputs) and align sampling and log review to them.
Residuals are part of the baseline from day one, not a later add-on.
We test only what changes the decision, and we document triggers for extras.
Reuse targets drive parameters, barriers, and monitoring, and we define intent early.
We write project information and verification in the same language so commissioning checks and sustained reporting stay aligned.
Across all our specialist design work, we focus on operating plants and facilities handling:
Key outputs
Baseline summary, what is generated, how it varies, and where it goes today
Information plan pack, sampling summary, parameter set, and decision triggers
Working range, expected / peak / upset cases vendors can design to
Constraints & connections, connection points, space/power, site conditions, and O&M notes
Everything is distilled into a baseline that can be shared across technical, commercial and management teams. It answers three questions: what is being generated, how does it vary, and what is happening to it today.
This project information is what we use next to align requirements, reuse possibilities and savings logic before discussing specific technologies.