Summary of the recent literature and insights
| No. | Authors | Type of decision model | PI domain | Risk/resilience theme | Relevance to SC/logistics risk |
|---|---|---|---|---|---|
| 1 | Kulkarni et al. (2022) | MILP, Graph-theoretic heuristic | Parcel delivery, logistics hubs | Disruption risks, network resilience | High – Resilient network design under disruption |
| 2 | Peng et al. (2021) | Two-stage stochastic programming | Production-inventory-distribution systems | Disruptions, mitigation planning | High – Strategic resilience planning using PI |
| 3 | Tordecilla et al. (2025) | Multi-period MILP, Lexicographic optimisation | Hyperconnected supply chain networks | Cost-resilience trade-offs | High – Decision support for resilient PI design |
| 4 | Ji et al. (2023) | Hybrid optimisation | Supply–production–distribution | Flexibility, sustainability | Medium – Emphasis on sustainable design |
| 5 | Peng et al. (2024) | Multi-objective optimisation, hybrid heuristic | Production-routing with modular capacity | Resilience, sustainability | High – Rapid response to disruptions via modular PI |
| 6 | Yang et al. (2017) | Inventory disruption model | Interconnected logistics services | Hub and plant disruptions | Medium – Early empirical evidence of PI resilience |
| 7 | Fahim et al. (2021) | Conceptual framework | Maritime ports | Resilience, digitalisation | Medium – Infrastructure risk management |
| 8 | Gastón Cedillo-Campos et al. (2024) | Analytical cargo theft model (CTM) | Road transportation | Cargo theft risk | High – Focused on operational risk |
| 9 | Nguyen et al. (2022) | Bibliometric mapping | PI & Digital Twin integration | Research trends, digital risks | Medium – Overview of maturity and themes |
| 10 | Zhao et al. (2024) | Data traceability framework | Cyber-physical PI systems | Transparency, risk prediction | Medium – Enhances risk visibility across networks |
| 11 | Essghaier et al. (2023) | Fuzzy multi-objective MIP, ε-constraint | Truck scheduling in rail–road PI hubs | Multimodal uncertainty, resource allocation | High – Scheduling under operational uncertainty |
| 12 | Nikitas et al. (2020) | Conceptual and exploratory | Smart mobility, urban logistics | AI integration, long-term resilience | Medium – Strategic insight into PI-enabled urban systems |
| No. | Authors | Type of decision model | PI domain | Risk/resilience theme | Relevance to SC/logistics risk |
|---|---|---|---|---|---|
| 1 | MILP, Graph-theoretic heuristic | Parcel delivery, logistics hubs | Disruption risks, network resilience | High – Resilient network design under disruption | |
| 2 | Two-stage stochastic programming | Production-inventory-distribution systems | Disruptions, mitigation planning | High – Strategic resilience planning using PI | |
| 3 | Multi-period MILP, Lexicographic optimisation | Hyperconnected supply chain networks | Cost-resilience trade-offs | High – Decision support for resilient PI design | |
| 4 | Hybrid optimisation | Supply–production–distribution | Flexibility, sustainability | Medium – Emphasis on sustainable design | |
| 5 | Multi-objective optimisation, hybrid heuristic | Production-routing with modular capacity | Resilience, sustainability | High – Rapid response to disruptions via modular PI | |
| 6 | Inventory disruption model | Interconnected logistics services | Hub and plant disruptions | Medium – Early empirical evidence of PI resilience | |
| 7 | Conceptual framework | Maritime ports | Resilience, digitalisation | Medium – Infrastructure risk management | |
| 8 | Analytical cargo theft model (CTM) | Road transportation | Cargo theft risk | High – Focused on operational risk | |
| 9 | Bibliometric mapping | PI & Digital Twin integration | Research trends, digital risks | Medium – Overview of maturity and themes | |
| 10 | Data traceability framework | Cyber-physical PI systems | Transparency, risk prediction | Medium – Enhances risk visibility across networks | |
| 11 | Fuzzy multi-objective MIP, ε-constraint | Truck scheduling in rail–road PI hubs | Multimodal uncertainty, resource allocation | High – Scheduling under operational uncertainty | |
| 12 | Conceptual and exploratory | Smart mobility, urban logistics | AI integration, long-term resilience | Medium – Strategic insight into PI-enabled urban systems |
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