Project Delivery

Sustainability Must Be Designed Into Both the Deliverable and the Delivery System

A practical framework for integrating sustainability into both what a project creates and how the project is governed, sourced and delivered.

EraNorth Insights · 9 min read

A sustainable outcome can be undermined by an unsustainable delivery process, just as a responsible project process can still produce a poor long-term asset.

A project team can procure responsibly, reduce travel, minimise waste and run an efficient delivery process, yet create a product with high lifetime resource consumption.

Another project can deliver an asset with excellent long-term environmental performance while creating avoidable waste, unsafe work, poor labour practices or weak stakeholder outcomes during delivery.

Both cases reveal the same problem: sustainability has at least two project boundaries.

The Strategic Context

Silvius's 2017 review describes two relationships between sustainability and project management: the sustainability of the project's product and the sustainability of the process used to deliver and manage the project.

This distinction is highly practical.

The product perspective asks whether the asset, service, system or capability being created performs sustainably across its lifecycle. The process perspective asks how the temporary project organisation uses resources, procures, travels, engages people, governs decisions and creates impacts while delivery is underway.

The supplied MPM416 material expands the second perspective into themes including labour practices, human rights, society and customers, ethical behaviour, transport, energy, water, waste, materials and resources, return on investment and business agility.

The older Withgott and Brennan textbook extract provides historical examples of sustainability efforts in institutional settings through waste reduction, energy conservation, water efficiency, building design, purchasing, transport, habitat restoration and education. Those examples are dated and should not be treated as current benchmarks, but the pattern remains useful: sustainability becomes real through operating decisions.

What Leaders Commonly Misread

The first misread is treating a “green” product as proof of a sustainable project. The delivery chain matters too.

The second is measuring process sustainability without challenging the product. Saving paper in project meetings is immaterial if the asset design locks in high resource consumption for decades.

The third is applying the same indicators to every initiative. Materiality varies. Water may be critical in one project and negligible in another. Human-rights exposure may sit deep in one supply chain and be limited in another. Business agility may be strategically significant for a digital platform but less central to a fixed-purpose asset.

The fourth is waiting until execution to consider sustainability. By then, architecture, site, materials, contracts and suppliers may already be locked in.

The fifth is assuming sustainability requirements are always additive costs. Some can reduce whole-of-life cost, waste, energy use or operational risk. Others do create real trade-offs. The purpose of governance is to distinguish them with evidence.

Reframing the Issue

The practical question is not, “What sustainability activities should the project perform?”

It is:

Which design and delivery decisions determine the material economic, social and environmental consequences of this initiative?

That turns sustainability into part of engineering, procurement, commercial strategy, workforce planning and governance.

Strategic Analysis: Two Sustainability Architectures

Architecture 1: the deliverable

The project's output should be assessed across the lifecycle most relevant to the decision. Depending on project type, this may include:

  • energy and resource demand in operation;
  • maintainability and service life;
  • material intensity and reusability;
  • waste and disposal implications;
  • environmental impacts;
  • accessibility, safety and user outcomes;
  • resilience to future regulation or resource constraints;
  • flexibility for future modification rather than premature replacement.

The aim is not to maximise every criterion. It is to identify the few design choices that create long-lived consequences.

Architecture 2: the delivery system

The temporary project organisation also makes consequential choices. These include supplier selection, transport, workforce practices, health and safety, training, ethical procurement, energy and water use, waste, data practices and stakeholder engagement.

For large supply chains, the commercial model may have greater impact than office-level initiatives. A procurement specification can influence material choice, labour expectations, transport distance, traceability and disposal responsibility.

This is why sustainable project management belongs inside normal delivery governance.

A Materiality-Based Delivery Framework

A project can use the following categories as prompts rather than a universal checklist.

DimensionDeliverable questionsDelivery-system questions
EconomicWhole-of-life value? Adaptability? Operating cost?Procurement value? Cost transparency? Option value?
PeopleSafety, accessibility, customer and community effects?Labour practices, training, inclusion, health and safety?
MaterialsDurability, reuse, maintainability, end-of-life?Supplier selection, waste, packaging, traceability?
Energy and emissionsOperational demand and future exposure?Site energy, travel, logistics and temporary works?
Water and environmentConsumption, discharge, land or habitat effects?Construction or delivery impacts, recycling and controls?
Ethics and governanceResponsible use, privacy or societal effects?Procurement integrity, corruption controls, decision transparency?

The table should lead to prioritisation. A project might identify three material issues rather than attempt to optimise fifteen minor ones.

Decision Framework

Sustainability decisions should be made at four points.

1. Selection

Does the proposed initiative itself support a credible strategic need, or would a different intervention create the outcome with fewer resources and impacts?

2. Design

Which architecture, technology, material, process or service-model choices create long-term consequences? What alternatives have been considered?

3. Procurement and delivery

What supplier, labour, logistics, resource and ethical requirements should be embedded contractually or operationally?

4. Handover and operation

What performance must operations monitor to ensure the intended sustainability outcomes survive the project?

At each point, leaders should identify decision thresholds. For example, an option may be rejected if it creates unacceptable safety consequences, fails a regulatory requirement, produces excessive whole-of-life exposure or contradicts a stated enterprise commitment.

The purpose is not to convert every sustainability issue into a numerical score. Some criteria are thresholds, some are trade-offs and some are uncertainties requiring further evidence.

Related article: Sustainability Changes the Definition of Project Value

From Strategy to Execution

Immediately, require material projects to distinguish product sustainability from process sustainability. This alone prevents teams from focusing on whichever side is easiest to report.

Over the medium term, build project-type sustainability profiles. A manufacturing line might emphasise energy, material efficiency, worker safety, maintainability and supplier practices. A software platform might emphasise accessibility, energy use, privacy, ethical data practice and adaptability. An infrastructure project might emphasise lifecycle materials, community impacts, water, ecology, resilience and construction practices.

Over the long term, connect project requirements to enterprise procurement and operational standards. Project teams should not reinvent supplier expectations or lifecycle metrics each time. Where issues are recurring and material, they belong in organisational systems.

The older campus examples in Withgott and Brennan also suggest a useful implementation principle: measurement can create a baseline for improvement. Audits of resource use, waste or operational performance can reveal where action will matter most. The specific historical figures should not be reused as contemporary benchmarks, but the management logic remains sound.

Measurement should nevertheless follow the decision. Projects can easily produce extensive sustainability data that no one uses. Before adding an indicator, leaders should identify the decision it informs, the owner who can act on it and the threshold that would change behaviour. This keeps the information architecture proportionate and helps distinguish material lifecycle evidence from reporting activity that has little influence on design or delivery.

Signals to Monitor

Integration is weak when:

  • sustainability requirements appear after concept design;
  • project teams can report process initiatives but not lifecycle impact of the output;
  • procurement decisions are based on purchase price while whole-of-life consequences are ignored;
  • suppliers receive broad sustainability language without measurable requirements;
  • dozens of indicators are collected with no connection to decisions;
  • operational owners cannot explain how sustainability performance will be maintained after handover;
  • project sustainability targets conflict with schedule or commercial incentives and nobody owns the trade-off;
  • “green” features are added late while the core architecture remains unchanged.

Questions for the Leadership Team

  1. What is the most material sustainability impact of the deliverable itself?
  2. What is the most material sustainability impact of the way we are delivering it?
  3. Which decision locks in the largest lifecycle consequence?
  4. Which sustainability requirements belong in supplier selection or contracts?
  5. What should be measured during operation rather than during the project?
  6. Which impacts are thresholds and which are trade-offs?
  7. Are we focusing on visible minor actions while ignoring a larger design choice?

References

Silvius, G 2017, ‘Sustainability as a new school of thought in project management’, Journal of Cleaner Production, vol. 166, pp. 1479–1493.

Withgott, J & Brennan, S 2008, ‘Sustainable solutions’, in Environment: The Science Behind the Stories, 3rd edn, Pearson/Benjamin Cummings, San Francisco, pp. 657–681.

Closing Perspective

Sustainability becomes operational when it enters normal project decisions: what to build, how to design it, whom to buy from, how to deliver, what to measure and what operations must sustain.

The product and the project process are different systems, but both can create lasting consequences. Strong leaders examine both, focus on material issues and make trade-offs while there is still time to change the design. Sustainability that arrives after the key commitments have been made is mostly reporting. Sustainability designed into the decision is management.


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