Construction material delivery across multiple sites faces uncertain demand, changing site readiness, limited logistics capacity, restricted storage, and transport-related emissions. This study develops a BIM–IoT-driven digital twin for fourth-party logistics (4PL) orchestration of just-in-time material delivery under uncertainty. The framework integrates BIM information with operational data on project progress, shipment status, inventory, site readiness, and logistics availability. A scenario-based multi-objective MILP uses rolling-horizon optimization to minimize logistics cost, delivery deviation, site congestion, and carbon emissions. It distinguishes implemented decisions from immediate decisions and scenario-dependent recourse. Transportation uncertainty is addressed by separating dispatch from arrival and incorporating conditional value at risk. For large instances, an Event-Aware Rolling-Horizon NSGA-II uses scenario-linked encoding, Pareto warm starts, event-affected gene masks, adaptive operators, and hierarchical feasibility repair. In the case application, BIM–IoT digital-twin updating with JIT control reduced delivery deviation by 36.1% and site congestion by 32.2%, while the complete policy achieved 90.6% on-time delivery. Across benchmark classes, ERH-NSGA-II increased hypervolume by 8.4–88.2% and reduced IGD+ by 30.9–85.8% relative to conventional NSGA-II. The framework also provides quantitative decision rules for logistics capacity, storage, data quality, consolidation, and carbon restrictions.
Type of Study:
Research |
Subject:
Logistic & Apply Chain Received: 2026/06/3 | Accepted: 2026/08/16 | Published: 2026/09/8