Lifecycle Assessment Engine

Ingests a finished product's Bill of Materials (BOM) and recursively explodes it into its constituent raw materials and sub-components. The engine maps each input to a specific elementary flow from nature, such as crude oil extraction or water withdrawal, establishing the physical basis for the inventory. This eliminates manual mapping errors and enables analysis of products with thousands of parts.

Selects the most appropriate emission factor from a managed, version-controlled database based on activity metadata. The engine evaluates criteria such as:

• Geographic location of the supplier
• Technology level of the manufacturing process
• Energy grid mix at the time of production This ensures that a kilowatt-hour of electricity in Germany is differentiated from one in China, maintaining scientific rigor.

Translates the life cycle inventory of emissions and resource extractions into quantifiable environmental impacts using established scientific models. Beyond Global Warming Potential (GWP100), the engine calculates:

• Eutrophication (aquatic nutrient loading)
• Acidification (terrestrial ecosystem damage)
• Water Scarcity Footprint This prevents burden-shifting by ensuring a reduction in carbon doesn't inadvertently cause a critical water crisis.

Allows users to modify system parameters and instantly recalculate the footprint to identify emission hotspots. An engineer can simulate swapping virgin aluminum for 100% post-consumer recycled content or changing a transport mode from air to rail. The engine quantifies the delta, generating a Marginal Abatement Cost Curve (MACC) to prioritize the most cost-effective decarbonization levers.

Maintains an immutable data provenance chain for every calculation. The engine records the source of each emission factor, the timestamp of the BOM data, and the identity of the user who made modifications. It generates standardized reports aligned with ISO 14067 (Product Carbon Footprint) and ISO 14044, ensuring the output is defensible under third-party assurance scrutiny.

Connects directly to enterprise systems like Product Lifecycle Management (PLM) and Enterprise Resource Planning (ERP) software via REST APIs. This allows the LCA engine to pull real-time BOMs and supplier data, rather than relying on static CSV imports. It enables continuous, automated footprint updates as product designs evolve, embedding sustainability directly into the engineering workflow.

A comprehensive life-cycle analysis method that accounts for total energy consumption and greenhouse gas emissions from fuel production (well-to-tank) through to its combustion in a vehicle (tank-to-wheel). This is a critical input for the LCA Engine's transportation phase.

• Distinguishes between fuel source impacts and tailpipe emissions
• Essential for comparing electric, hydrogen, and combustion vehicles
• Prevents burden-shifting by capturing upstream energy production

The computational process of quantifying indirect greenhouse gas emissions that occur in a company's value chain. The LCA Engine relies on this to model impacts from purchased goods and services, upstream transportation, and product end-of-life treatment.

• Covers 15 categories including capital goods and franchises
• Often represents >80% of a company's total carbon footprint
• Requires supplier-specific data and industry-average proxies

The Global Logistics Emissions Council Framework, a universally recognized methodology for calculating and reporting logistics emissions across a multi-modal supply chain. It provides the standardized accounting rules that a Lifecycle Assessment Engine uses for the distribution phase.

• Aligns with the ISO 14083 standard
• Ensures consistent carbon accounting across carriers and modes
• Covers all transport legs from raw material to last-mile delivery

A software component that automatically selects the most appropriate CO2e conversion factor from a managed database. The LCA Engine calls this to translate activity data—such as kWh consumed or ton-miles transported—into a carbon footprint.

• Factors vary by fuel type, vehicle load, and geography
• Must handle data gaps with conservative default values
• Requires continuous updates to reflect grid decarbonization

A virtual replica of a physical supply chain network that simulates the carbon impact of operational decisions in real-time. It allows the LCA Engine to run scenario testing without physical-world consequences.

• Models changes in sourcing, routing, or modal choice
• Enables 'what-if' analysis for product design decisions
• Integrates real-time IoT data for dynamic emission tracking

A cryptographically secured, immutable record of the origin, chain of custody, and transformation history of an emission data point. This ensures the integrity of every input fed into the Lifecycle Assessment Engine for audit and reporting.

• Uses verifiable credentials and distributed ledger technology
• Tracks data from primary supplier meters through to final report
• Essential for regulatory compliance and green claim substantiation