Conveyance, Pipelines & Tie-Ins infrastructure and Engineering
Water Infrastructure

Conveyance, Tie-Ins & Pipeline Engineering

integrated conveyance systems designed for real-world operability

Water Management Infrastructure Engineering and Project Development Services

Our approach to coordinated conveyance design

Translating system intent from modelling into operations

Conveyance design performs best when hydraulic modelling, physical design, and operating requirements are developed from one system basis. This alignment allows routes, tie-ins, and control points to be tested against site conditions before they constrain construction or downstream infrastructure.

Our integrated performance approach connects conveyance decisions to storage, treatment, source control, and future site development. The same design intent is carried through detailed design, construction support, commissioning, and later modification, reducing reinterpretation between teams and protecting system performance as the project advances.

Water Management Infrastructure Engineering and Project Development Services
service outcomes

Protect schedules and system capacity

Coordinated conveyance design converts hydraulic and site requirements into infrastructure that can be built, connected, and commissioned without transferring unresolved constraints into later project phases.

Water Management Infrastructure Engineering and Project Development Services
sustained performance

Enabling durable, maintainable conveyance systems

Conveyance requirements rarely remain static over the asset lifecycle. Production changes, new treatment capacity, revised water balances, and site expansion can alter flow, pressure, routing, and tie-in requirements.

Our approach builds modification pathways into the system through accessible tie-ins, isolation points, capacity allowances, and clear operating limits. This allows conveyance infrastructure to be expanded, reconfigured, or connected to new assets without avoidable outages, operational workarounds, or wholesale replacement.

Water Management Infrastructure Engineering and Project Development Services

explore our latest projects

Freshwater Reservoir Design & Construction Management
Stormwater Management Infrastructure Engineering Design
Dam Consequence of Failure
Water Management Infrastructure Engineering and Project Development Services
Freshwater Storage Reservoir Inspection & Change Detection Analysis
Mining Water Infrastructure Development and Equipment

228,500 m3 Lined Freshwater Reservoir Design and Construction Management

Integrated Sustainability designed and managed construction of a 228,500 m³ freshwater reservoir, integrating geotechnical investigation, water management, quality control, and on-site delivery.

3,000,000 m3 Freshwater Storage Feasibility Evaluation

Integrated Sustainability evaluated four municipal freshwater storage reservoirs up to 3,000,000 m³, covering site selection, conceptual design, dam classification, flood studies, and hydropower potential.

Raw Water Reservoir Safety Assessment for a Municipality in British Columbia

Integrated Sustainability completed a Dam Consequence of Failure Classification for a proposed raw water reservoir, assessing downstream impacts to people, infrastructure, and environmental and cultural values.

153,600 m3 Freshwater Reservoir Construction Support

Integrated Sustainability supported construction of a 153,600 m³ unlined freshwater reservoir, integrating geotechnical design, dam safety classification, and commissioning documentation.

Embankment Stability and Liner Integrity Assessment Using Drone Based Topographic Survey

Integrated Sustainability assessed a freshwater reservoir using visual inspection and drone-based change detection to evaluate embankment stability, liner integrity, and structural condition.

Tailings Facility Reclamation & Passive Closure with 61,000 m³ Dewatered

Integrated Sustainability delivered turnkey closure construction for a mine tailings facility, dewatering 61,000 m³ and completing backfill, cover placement, spillway construction, and toe berm expansion.
Water Management Infrastructure Engineering and Project Development Services

When is open-channel conveyance preferable to a pipeline?

Open channels may be appropriate where flows are variable, gravity conveyance is practical, and water quality or containment requirements permit exposed flow. Pipelines are generally better suited to pressurized service, controlled water quality, constrained corridors, or applications where leakage, overflow, or exposure must be limited. Selection should consider lifecycle maintenance, terrain, climate, operating control, and the consequence of system failure.

How are allowances for future conveyance capacity established?

Future capacity should be based on credible development, water balance, and operating scenarios rather than a general oversizing allowance. The design should consider potential changes in production, storage, treatment, reuse, and discharge requirements, then identify where capacity allowances or future connections create practical value. Excess capacity can increase capital cost and impair hydraulic performance, so optionality must be targeted.

What information is required before tie-in design can progress?

Tie-in design typically requires verified connection geometry, asset condition, operating pressure and flow, materials, control philosophy, isolation capability, and acceptable outage windows. Existing drawings alone may not provide sufficient certainty for brownfield connections. Field verification and coordination with operations are often required before connection details and changeover sequencing can be finalized.

What determines whether existing conveyance infrastructure can support a new duty?

Existing infrastructure must be assessed against more than nominal flow capacity. Hydraulic performance, pressure class, transient response, material compatibility, asset condition, control logic, and remaining service life all influence whether the system can accept a new operating duty. A line may appear adequate under steady-state conditions but still introduce unacceptable pressure losses, surge exposure, maintenance limitations, or restrictions elsewhere in the water system.

How are outages mitigated during conveyance tie-ins and upgrades?

Outages are mitigated by defining isolation, bypass, sequencing, and commissioning requirements before construction begins. The design should identify which parts of the system must remain live, how temporary flow will be maintained, and when control can safely transfer to the new infrastructure.

Where shutdowns cannot be avoided, the work is structured around the shortest credible outage window with clear contingency and restart requirements. This reduces dependence on field improvisation and limits disruption to treatment, storage, and ongoing operations.

Lifecycle Accountability for Industrial Water Assets

Combine deep technical expertise with execution and operational experience

Complex and high-consequence industrial projects require a practical mindset to enable agile development and positive environmental outcomes.

Our vertically integrated water services platform combines science, engineering, equipment fabrication, and operations to provide fit-for-purpose assets that drive accountability and performance.

Water Management Infrastructure Engineering and Project Development Services

conveyance, pipeline, and tie-in design

Engage with our engineers to discuss how our multi-discplinary teams can help accelerate your project.