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Optimal Transport for Supply Chain Resilience 2026

Optimal Transport for Supply Chain Resilience 2026
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Technology Landscape 2026

Optimal Transport for Supply Chain Resilience

Mathematical programming, AI-driven optimization, and network-theoretic approaches are converging to build disruption-resilient supply chains. Patent and literature signals spanning 2014–2026 reveal where this field is heading.

80+
records retrieved in this dataset
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3
active or pending patents in this dataset
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2021–2023
peak publication activity period in this dataset
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5
key technology sub-domains identified in this dataset
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Published byPatSnap Insights Team··9 min readVerified by PatSnap Eureka Data
Field Overview

From Theoretical Models to Deployable AI Systems

Supply chain resilience optimization spans mathematical programming, network flow analysis, AI-driven decision systems, and simulation-based assessment. Among the 80+ records retrieved in this dataset, the heaviest publication activity falls in 2021–2023, coinciding with post-COVID-19 supply chain stress and accelerated digitalization.

The field has evolved through three phases: a foundational phase (2014–2018) establishing resilience as a measurable, optimizable property; an acceleration phase (2019–2021) where robust stochastic programming became standard; and a deployment and digitalization phase (2022–2026) dominated by AI, digital twins, and Industry 4.0 integration.

Technology Cluster Distribution — Records by Approach in This Dataset
Technology cluster distribution: Mathematical Programming ~28 records, Network Flow ~18 records, AI/ML Optimization ~15 records, Simulation/Digital Twins ~12 records, Sustainability Co-optimization ~10 recordsHorizontal bar chart showing approximate distribution of retrieved records across five key technology clusters in the optimal transport supply chain resilience dataset.Mathematical Programming~28 recordsNetwork Flow & Graph Theory~18 recordsAI/ML Optimization~15 recordsSimulation / Digital Twins~12 records↗ Click bars to explore

Key sub-domains include resilience quantification and indexing, stochastic and robust optimization models using MILP and scenario-based programming, network topology and flow analysis, AI/ML-augmented decision systems including reinforcement learning and digital twins, and sustainability-resilience co-optimization using multi-objective programming.

In this dataset, patent filing activity is concentrated in a single assignee — IBM holds 3 filings spanning 2022–2026 — while academic literature innovation is distributed across dozens of institutions globally, with China-based empirical studies representing the most frequent geographic context in retrieved records.

PatSnap Eureka Data derived from patent and literature records retrieved via targeted searches across the optimal transport and supply chain resilience domain; dataset snapshot only.Explore the data ↗
Data Deep Dive

Filing Timeline and Technology Cluster Breakdown

Patent filings in this dataset cluster around IBM’s 2022–2026 US filings and an emerging 2025 CN filing from Nanjing Xiaozhuang College. Literature publication volume accelerated sharply after 2019, with the systematic review noting 94 papers published in 2017–2019 versus only 47 between 2007 and 2016.

Patent Assignees by Filing Count — Retrieved Records (Dataset Snapshot)

IBM accounts for 3 of the 5 total patent records in this dataset, with the remaining 2 filings from Nanjing Xiaozhuang College and Dr. R. Bhuvana respectively.

Patent assignee filing counts in this dataset: IBM 3 filings, Nanjing Xiaozhuang College 1 filing, Dr. R. Bhuvana 1 filingHorizontal bar chart showing patent filing counts per assignee in retrieved records for optimal transport supply chain resilience.IBM (US)3Nanjing Xiaozhuang College (CN)1Dr. R. Bhuvana (IN)1↗ Click bars to explore

Literature Publication Volume by Phase — Optimal Transport Supply Chain Resilience

Publication volume in this dataset grew from 47 papers (2007–2016) to 94 papers (2017–2019), with a further surge post-2020 driven by COVID-19 empirical validation studies and digitalization research.

Literature publication volume by phase: 2007-2016 = 47 papers, 2017-2019 = 94 papers, 2020-2023 = surge (post-COVID)Vertical bar chart showing literature publication volume across three phases of the supply chain resilience field based on systematic review data in retrieved records.04080120160472007–2016942017–2019150+2020–2023↗ Click bars to explore
PatSnap Eureka Publication counts for 2007–2019 sourced from systematic review in retrieved records; 2020–2023 figure is an estimate based on retrieved dataset volume.Explore the data ↗
Application Domains

Key Deployment Contexts for Supply Chain Resilience Optimization

Optimal transport and resilience optimization methods have been applied across diverse sectors and geographies in this dataset, from Nigerian gas pipeline networks to Chinese highway freight systems and global food trade networks.

MILP · Contingency Pipeline Design

Nigerian Natural Gas Network

An integrated MILP model applied to a real Nigerian gas infrastructure network yielded a 93.6% performance improvement through contingency pipeline design. The 2022 study jointly optimizes resilience and sustainability objectives. This represents one of the most quantitatively validated applications in the dataset.

Energy & Natural Resources
Digital Twin · COVID-19 Response

JD.COM E-Commerce Supply Chain

JD.COM deployed a digital twin-driven smart supply chain platform during COVID-19 disruption, enabling real-time network reconfiguration. A 2021 case study also documented JD.COM’s integrated use of digital platforms and delivery modification to strengthen resilience. These studies represent the most detailed e-commerce deployment examples in the dataset.

E-Commerce & Retail
Agent-Based Model · Criticality Mapping

Tanzania Road Transport Network

A 2020 agent-based supply chain model simulated firm behavior under transport-supply disruptions across Tanzanian road infrastructure, generating criticality maps that identified non-linear loss scaling at specific nodes. The study demonstrates how physical transport network topology directly shapes supply chain resilience outcomes and food security impacts.

Food & Agriculture
Complex Network · Information Theory

Global Food Trade Network

A 2021 study applied information theory-based network flow analysis to 50 years of global commodity trade data, quantifying the efficiency-resilience tradeoff in food trade networks. The complex network framework provides a direct application of optimal transport concepts to international food supply systems, revealing structural vulnerabilities at scale.

Food & Agriculture
PatSnap Eureka Application domain examples drawn from literature and patent records retrieved in this dataset; geographic settings include Nigeria, China, Tanzania, and global commodity trade networks.Explore insights ↗
Patent Assignees

Key Patent Assignees in Optimal Transport Supply Chain Resilience (Retrieved Records)

In this dataset, IBM accounts for 3 of the 5 total patent records, all directed at AI-driven software systems for supply chain resilience optimization filed between 2022 and 2026 in the US jurisdiction. Nanjing Xiaozhuang College filed 1 pending CN patent in 2025, representing emerging academic patent activity in Asia in retrieved records.

Assignee Filing Counts — Optimal Transport Supply Chain Resilience (Dataset Snapshot)

Assignee filing counts: IBM 3 filings, Nanjing Xiaozhuang College 1 filing, Dr. R. Bhuvana 1 filing (dataset snapshot)Horizontal bar chart showing patent filing counts per assignee in retrieved records for supply chain resilience optimization.International Business Machines3Nanjing Xiaozhuang College1Dr. R. Bhuvana1↗ Click bars to explore
Spatio-Temporal AI · Joint ML Optimization

International Business Machines Corporation

IBM holds 3 patent records in this dataset spanning 2022–2026, all active US filings directed at AI-driven supply chain resilience software systems. Key patents include a 2023 core system using spatio-temporal climate forecasts and reasoning graphs for dynamic policy generation, a 2026 extension adding cluster-level Pareto optimization across upstream-downstream nodes, and a 2022 patent applying deep reinforcement learning and Gaussian Process Regression with joint carbon footprint and risk optimization. Two filings are active; one is inactive.

United States
Simulation-Reinforcement Learning · Multi-Objective

Nanjing Xiaozhuang College

Nanjing Xiaozhuang College filed 1 pending CN patent in July 2025, covering a multi-objective supply chain resilience optimization method using a hybrid simulation-reinforcement learning framework. The patent introduces a composite Supplier Stability Index (SSI) incorporating political, public opinion, operational, and accident data, and targets a cost-service-resilience balanced objective function. This is the most recent patent in the dataset and signals emerging academic-to-patent translation in China.

China — CN
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See all assignees and emerging CN/IN filers in this space
Beyond IBM and Nanjing Xiaozhuang College, this dataset also includes a 2025 IN pending filing from Dr. R. Bhuvana on operations management perspectives for supply chain resilience. Unlock the full assignee breakdown and monitor new CNIPA and USPTO filings as academic research translates into IP.
Dr. R. Bhuvana — IN CNIPA emerging filers + more
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PatSnap Eureka Patent assignee data sourced from patent records retrieved in this dataset; 3 assignees identified across US, CN, and IN jurisdictions.Explore players ↗
Emerging Directions

Five Forward-Looking Signals from 2023–2026 Records

The most recent filings and publications in this dataset (2023–2026) point to five identifiable forward-looking directions, ranging from fully automated network-wide AI re-optimization to multi-risk long-horizon resilience assessment frameworks.

Spatio-Temporal AI with Feedback Loops

The 2026 IBM patent extends AI-driven systems to include Pareto optimization across node clusters with real-time upstream-downstream communication. This signals movement toward fully automated, network-wide resilience re-optimization triggered by climate and operational signals. The system uses joint ML model optimization with temporal feedback loops across supply chain nodes.

Simulation-Reinforcement Learning Hybrids

The 2025 CN patent from Nanjing Xiaozhuang College introduces a hybrid simulation-reinforcement learning framework that trains emergency strategies in virtual environments. It combines political, public opinion, operational, and accident data into a composite Supplier Stability Index (SSI). This cost-service-resilience balanced objective function approach represents a frontier in deployable multi-objective optimal transport.

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Unlock multi-risk long-horizon resilience assessment and whitespace analysis
The 2023 Multi-Component Resilience Assessment Framework moves beyond single-hazard metrics to multi-risk, long-term assessment—a prerequisite for strategic supply chain design. Access the full emerging directions analysis and patent whitespace map in PatSnap Eureka.
Multi-risk resilience indexingTransport criticality whitespace+ more
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PatSnap Eureka Emerging directions derived from patent filings (2022–2026) and literature records (2023) retrieved in this dataset.Explore emerging trends ↗
Method Comparison

Mathematical Programming vs. AI-Driven Optimization for Supply Chain Resilience

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DimensionMathematical Programming (MILP/Stochastic)AI/ML-Driven Optimization (RL/Deep Learning)
Primary ApproachMixed-integer linear programming, stochastic/robust optimization, scenario-based programmingReinforcement learning, deep learning, Gaussian Process Regression, spatio-temporal feedback
Objective StructureMulti-objective: cost minimization, social and environmental supplier scores (ε-constraint, goal programming)Multi-objective: resilience + carbon footprint + risk jointly optimized via ML model
Key Example from Dataset93.6% performance improvement via contingency pipeline design in Nigerian gas network (2022 MILP study)IBM 2023 US patent: spatio-temporal climate forecasts drive dynamic resiliency policy via reasoning graphs
Maturity PhaseAcceleration phase (2019–2021); became standard in literature by post-COVID periodDeployment and digitalization phase (2022–2026); most patent-intensive cluster in this dataset
Patent Activity in DatasetPrimarily in academic literature; limited direct patent protection identified in this dataset3 active/pending US patents from IBM (2022–2026) covering deployable software systems
Real-Time CapabilityGenerally offline/batch; proactive-reactive combined strategies using LHS and SAA methodsReal-time policy updates via temporal feedback loops and upstream-downstream inter-node communication
Carbon/Sustainability IntegrationThree-objective robust stochastic model minimizing cost, maximizing social and environmental scoresIBM ML patent explicitly integrates carbon footprint estimation into resilience plan generation loop
Whitespace Opportunity”>Transport criticality mapping methods remain primarily in literature with limited patent protectionReinforcement learning for supply chain recovery has limited prior art in this dataset outside IBM
PatSnap Eureka Comparison dimensions derived from patent and literature records retrieved in this dataset; not representative of the full industry landscape.Compare in Eureka ↗
Frequently asked questions

Frequently Asked Questions: Optimal Transport for Supply Chain Resilience

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Data and insights on this page are based on a limited patent and literature dataset and are for reference only. Figures may not represent the complete technology landscape.

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