How EarthCheck Design Influences Long-Term Operational Efficiency

Introduction: A Step Forward After Certification

Green building certifications have long served as a tool for assessing and evaluating buildings and providing opportunities for improvement, especially when integrated from the design stage. They set a bar, create accountability, and signal a commitment to doing better.

But after design, what then? Where will these improvements take us further? This is a question I've often faced during the analysis and implementation of improvements. And the answer, I've come to understand, lies in considerations beyond technical design alone: how design decisions translate into long-term building operations, and how they are supported by non-technical elements such as operational policies., such as operational policies that are closely and intentionally arranged alongside it.

As discussed widely in the industry, diverse green building rating tools exist and can be chosen based on building context and the goal of pursuing certification itself. We can find rating tools across a broad spectrum in terms of how much focus they place on policy and operational stage considerations. But then we have EarthCheck, which stands apart from many frameworks by placing long-term operational efficiency at the heart of its design approach.

EarthCheck Design, built on over 30 years of expertise, provides the Building Planning and Design Standard (BPDS), which is a set of science-based guidelines, tools, and indicators to support architects, designers, and developers during the planning and design phase. Globally recognised in benchmarking, certification, and advisory services, it covers a wide range of building typologies, from tourism and commercial to residential and mixed-use developments.

Designing for Efficiency, Not Just Performance

One of the core principles I've come to appreciate in EarthCheck Design is its emphasis on systems thinking at the design stage. Rather than optimising individual components and their contributions to building performance in isolation, the framework encourages project teams to consider how building systems interact with each other, with future occupants, and with the surrounding environment over time.

This directly addresses the questions clients often ask me: How will these systems be sustained and monitored in the following years? How can we make sure the efficiency we achieved during certification is carried through into the operational stage? By addressing these questions and looking at all building stages systematically, we can align our goals from the start and produce buildings that are not just efficient at opening, but resilient to the operational pressures that come with time.

A good example of this is how EarthCheck's framework requires project teams to work with operational policies beyond just technical specifications: how building design aligns with the country's NDC (Nationally Determined Contributions), commitments to avoid single-use plastics during the operational stage, how sustainability data will be stored and managed, and how the EarthCheck report itself, once completed, will be communicated to all operational teams. This last point matters more than it might seem: it ensures that the people running the building day-to-day understand the reasons behind its design, and can carry the sustainability intent forward rather than inadvertently working against it.

Another aspect that I appreciate is how EarthCheck also provides industry-specific benchmarking that varies across geographies: different countries, different benchmarks. We, as built environment professionals, understand how much context matters in performance analysis and design considerations. This adjustment to sector and regional realities ensures that resource management strategies are realistic and measurable, and, critically, maintainable without constant recalibration.

Operational Efficiency as a Wellbeing Outcome

This is a connection that I think remains underexplored in sustainability discourses. Operational efficiency is often framed purely in financial or environmental terms, such as reduced utility bills or a lower carbon footprint. But from a health and well-being perspective, the two are deeply intertwined.

Buildings that are operationally inefficient tend to become uncomfortable environments over time. Poorly calibrated ventilation systems get switched off or overridden. Lighting controls that are too complex end up left on permanently. Thermal comfort complaints lead to interventions that undermine the original design intent. The gap between design aspiration and operational reality erodes not just efficiency metrics, but the quality of the indoor environment itself. This performance gap is well-documented across the industry. 

EarthCheck Design, by front-loading operational thinking, helps close this gap by requiring project teams to move back and forth between components so that each one relates to and complements the others throughout the design process. It is encouraging to see this kind of design-to-operation continuum embedded directly into the framework rather than left as an afterthought.

A Strategic Case for Developers and Asset Owners

For developers and asset owners, the strategic case for EarthCheck Design is increasingly clear. Operational costs over a building's lifetime far exceed initial capital expenditure, and design decisions that genuinely support long-term efficiency (even when they require upfront investment) tend to deliver disproportionate returns over time.

There is also a reputational and regulatory dimension worth acknowledging. As ESG disclosures become more prominent and scrutiny intensifies, the ability to demonstrate not just initial performance but sustained operational efficiency will become a meaningful differentiator. EarthCheck's benchmark-driven approach, with its emphasis on continuous improvement, positions certified assets well for exactly this kind of accountability.

Conclusion: Design is the First Operational Decision

Every design decision is, in effect, an operational decision. The choice of facade material, the lighting layout, the location of submetering, and the locations of temporary waste collection sites: these choices will shape how a building performs for the next 10, 20, or 50 years. They will determine how much it costs to run and how comfortable it is to occupy.

EarthCheck Design recognises this with its systematic and holistic view of the design stage, embedding long-term operational thinking into the earliest phases of a project. I believe that is what responsible, sustainable design looks like and can be the standard the industry holds itself to.

References

EarthCheck. (n.d.). EarthCheck Design: Building Planning and Design Standard (BPDS). EarthCheck. https://earthcheck.org/what-we-do/certification/earthcheck-design/

EarthCheck. (2025). EarthCheck Building Planning and Design Standard, Version 5.0. EarthCheck Pty Limited. https://earthcheck.org/wp-content/uploads/2025/04/The-EarthCheck-Building-Planning-and-Design-Standard_Version-5.0_2025.pdf

EarthCheck. (2025). Alila Shanghai is sustainable by design. EarthCheck Case Studies. https://earthcheck.org/case-studies/alila-shanghai-sustainable-by-design/

Delgarm, N., et al. (2020). A review of data collection and analysis requirements for certified green buildings. PMC / National Library of Medicine. https://pmc.ncbi.nlm.nih.gov/articles/PMC7413204/

Thermal Control Magazine. (2025, September). Green buildings from certification to performance. https://www.thermalcontrolmagazine.com/green-buildings/green-buildings-from-certification-to-performance/

Yan, D., et al. (2018). A review of operating performance in green buildings: Energy use, indoor environmental quality and occupant satisfaction. Energy and Buildings. https://doi.org/10.1016/j.enbuild.2018.11.017