Engineering Carbon Intelligence: Decarbonizing the Fine Art Supply Chain

As net-zero commitments move from aspiration to accountability, organizations are discovering that some of their largest emissions sit outside the building envelope. 

In logistics-driven industries, carbon is embedded in transportation networks, climate-controlled storage environments, and material reuse systems. These operational emissions are often categorized as Scope 3 and can represent a significant portion of total impact. 

In fine art logistics, third-party transit alone can account for roughly 40% of overall emissions. The question is no longer whether these emissions exist. It’s how to quantify, model, and reduce them in ways that align with cost, schedule, and performance.

Thornton Tomasetti’s Sustainability, Resilience and Applied Science teams are working with Crozier Fine Arts to do exactly that.

What Is Operational Carbon in Logistics? 

Operational carbon refers to the greenhouse gas emissions generated by the ongoing activities required to maintain and move assets through a supply chain.

In logistics-intensive industries, this includes: 

• Fuel consumption across transportation fleets. 
• Third-party freight and air cargo emissions. 
• Energy use within climate-controlled storage facilities. 
• Material production and reuse cycles. 
• Routing and consolidation inefficiencies. 

Because many of these activities fall within Scope 3 reporting categories, they’re frequently under-measured at the project level. Quantifying operational carbon creates visibility. Modeling it creates opportunity.

Why Logistics Decarbonization Is Becoming a Core Performance Metric 

Much of the sustainability conversation has focused on embodied carbon in new construction. Operational emissions, however, often represent a comparable or greater footprint in transportation-heavy sectors. 

In the fine art industry, legacy environmental standards, some dating back to the mid-20th century, continue to shape storage practices. Transportation decisions are typically optimized for timing and cost, with carbon evaluated later, if at all. 

As reporting frameworks evolve and clients demand greater transparency, operational carbon is becoming a defining metric of performance. 

Embedding carbon into early decision-making strengthens both resilience and regulatory readiness

Applying Systems Engineering to Operational Emissions 

Reducing logistics-related emissions requires more than reporting historical data. It requires system-level analysis. 

Through collaboration with Crozier, we identified a common challenge. Reusable crates can significantly reduce embodied material emissions. Yet transporting empty crates long distances for reuse can offset those gains. 

Determining when reuse delivers a net carbon benefit requires the modeling of multiple variables together:

• Transport Distance 
• Fleet Type and Fuel Source 
• Shipment Consolidation Potential 
• Storage Energy Intensity 
• Material Life-Cycle Impacts 

This integrated approach reflects the same applied science methodology used across data centers, infrastructure systems, and energy networks. Decisions are informed by scenario modeling rather than assumptions.

Transforming the Proposal Phase: Carbon Modeling in Real Time 

To support informed operational decisions, Thornton Tomasetti is developing a project-level carbon modeling framework tailored to Crozier’s global network. The system integrates transportation routing, fleet characteristics, facility energy performance, and material inventories into a unified emissions assessment. 

The objective is straightforward: to provide carbon visibility at the same moment when cost and schedule are evaluated. For example: 

• An expedited delivery may rely on dedicated diesel transport operating under tight timelines.
•  A consolidated shipment through a regional shuttle network may reduce fuel consumption and associated emissions. 

By quantifying these scenarios in advance, project teams can evaluate trade-offs more clearly. Carbon becomes part of the decision, not a post-project calculation.

What Is a Carbon Intelligence Framework? 

A carbon intelligence framework is a decision-support model that evaluates emissions across operational variables before execution. 

Unlike static reporting tools, it: 

• Uses organization-specific operational data. 
• Generates project-level emissions forecasts. 
• Enables Scope 3 transparency. 
• Supports carbon-informed procurement. Identifies routing and consolidation efficiencies. 

This approach aligns sustainability commitments with daily operational choices.

Broader Applications Across Complex Supply Chains 

The principles applied within fine art logistics extend to other sectors managing complex transportation and storage networks, including: 

• Cultural and Traveling Exhibitions
• Sports and Live Event Operations 
• Healthcare and Pharmaceutical Distribution 
• Infrastructure Maintenance Networks
• Data Center Equipment Logistics 
• Port and Aviation Systems 

In each case, operational carbon often represents a significant yet under-optimized emissions source. System-level modeling creates a pathway toward measurable reduction.

Building Resilient, Low-Carbon Operational Networks 

As climate commitments mature, organizations must address emissions embedded within their operational systems. By integrating applied science, computational modeling, and sustainability expertise, Thornton Tomasetti helps clients make carbon visible, measurable, and actionable. 

Operational carbon is becoming a central performance indicator across industries. Embedding carbon intelligence into logistics and storage networks ensures that sustainability goals are supported by data, engineering rigor, and informed decision-making.

Contact Us to Help You Assess Your Operational Carbon Risk