Designing products with low carbon footprints

Over the past decade, expectations placed on technical products have shifted in fundamental ways. Where differentiation once centered primarily on performance, safety, reliability, and cost efficiency, today’s customers and markets increasingly view sustainability as a baseline requirement rather than a secondary consideration. Environmental and societal impact now sit alongside traditional engineering metrics when products and services are specified, evaluated, and selected.

This shift reflects a broader alignment with global sustainability frameworks, including the United Nations’ Sustainable Development Goals. The way technology is designed, deployed, and supported has measurable consequences for the environment and for the communities in which organizations operate. As a result, product requirements are expanding beyond functional excellence to include transparency around lifecycle impact and long-term responsibility.

Importantly, this evolution does not require abandoning proven engineering disciplines. The same systematic thinking that enabled organizations to deliver step changes in safety, reliability, and cost can be applied to sustainability objectives. What changes is not the rigor of the approach, but the scope of what is considered “in scope” for product success.

A particularly effective way to operationalize this broader perspective is through concurrent lifecycle management in product development. Rather than treating design, manufacturing, operation, maintenance, and end-of-life as sequential handoffs, these phases are considered in parallel from the earliest concept stages. This approach allows teams to design in reliability, serviceability, and resilience before products ever reach customers, reducing downstream risk and lifecycle cost.

Sustainability considerations can be integrated in the same manner. As products move from feasibility into development, estimating lifecycle emissions and resource use becomes part of the core engineering deliverables, not an afterthought. These estimates are then refined and validated as products are introduced, scaled, and deployed in real-world conditions. Doing this well requires robust methods to quantify impact across manufacturing, operation, maintenance, and disposal—but when those capabilities are in place, sustainability becomes a managed design parameter rather than an abstract aspiration.

For organizations developing complex technical products, the implication is clear: sustainability is no longer a parallel initiative. It is increasingly a design requirement—one that can be addressed effectively by extending established lifecycle and systems-engineering practices to meet the expectations of today’s markets.