The planning-stage estimation of fuel-related carbon emissions from construction equipment is constrained by a mismatch between the detailed operational data required for high-resolution methods and the limited information available before construction begins. This study develops a transparent, deterministic framework that converts basic project information and bill of quantities (BOQ) data into equipment workloads, operating hours, fuel consumption, and fuel-related carbon emissions. Standardized productivity values from the 2025 Standard Production Unit System for Construction Works, hourly fuel-consumption rates from the 2025 Construction Equipment Cost Estimation Table, the IPCC fuel-combustion methodology, and an ecoinvent-based upstream fuel factor are integrated through process-level conversion rules. The methodological contribution lies in operationalizing these existing data sources as a traceable low-data estimation chain rather than introducing new productivity or emission factors. In a residential-building case study, earthwork and retaining works and reinforced concrete works accounted for most of the recorded diesel consumption. The predicted fuel-consumption intensity was 10.5 L/m2 compared with an actual value of 13.9 L/m2, while the excavator estimate showed a substantially larger equipment-level deviation. Analytical sensitivity analysis indicates that workload and fuel-rate assumptions affect estimates proportionally, whereas productivity assumptions have an inverse effect. The framework is therefore intended as a preliminary planning and screening tool; equipment-level calibration requires higher-resolution operating-hour and refueling records.
Construction-stage carbon emissions from environmental remediation projects remain poorly quantified despite growing demands for low-carbon infrastructure. This study develops a carbon accounting framework for landfill vertical barrier engineering based on a full-scale remediation project in Haikou, China. Carbon emiss...
The construction and maintenance of pavement structures significantly contribute to global carbon emissions, emphasizing the need for region-specific studies to address local conditions and practices. This study aims to estimate the carbon emissions associated with pavement structures under Vietnamese conditions, consi...
Huy Minh Nguyen, N. Huynh, Mai Anh Duc et al.· IOP Conference Series: Earth...· 0 citations
Accurate pre-construction carbon accounting for power equipment is critical for grid decarbonization, yet a standardized methodology applicable to transmission and substation projects remains lacking. This study develops a pre-construction carbon accounting methodology for transmission and substation equipment and appl...
Zi-Long Zhou, Ting-Ming Ye, He-Hong Ma et al.· Energies· 0 citations
The industrial sector in Liaoning Old Industrial Base exhibits energy consumption per unit of added value substantially above the national average, with carbon emissions from industrial energy consumption characterized by a large baseline and stringent reduction constraints. To address these challenges, this study appl...
Cement production accounts for about 8% of global CO2 emissions, making it the largest industrial source in the construction material chain. Replacing cement with industrial by-products (IBPs) in concrete is a core pathway to reducing carbon footprint, but a scientifically sound allocation method is essential for accur...
Lei Pan, Yuan-Feng Wang, Yu-Fang Fu et al.· Carbon Footprints· 0 citations
Background: Large-scale one-to-one computing initiatives in K-12 education generate supply chain and environmental impacts that are rarely quantified before procurement decisions are made. Methods: This study applies a scenario-based environmental estimation approach, informed by supply chain management principles, to...
S. Warren, Z. Teel, Ting Wang et al.· Logistics· 0 citations
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