Program
Welcome to the INFORMS TSL Workshop 2025.
We are delighted to present a rich lineup of plenary and keynote talks, alongside a variety of thematic sessions. Please stay tuned for detailed scheduling updates.
Timetable
5/19 Mon | 5/20 Tue | 5/21 Wed | ||||
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9:00-10:15 | MA: Keynote |
TA1: Logistics I |
TA2: Learning III |
WA1: Online Optimization |
WA2: Mobility |
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10:15-10:30 | Coffee Break | Coffee Break | Coffee Break | |||
10:30-12:00 | MB1: VRP I |
MB2: Learning I |
TB1: Logistics II |
TB2: Learning IV |
WB1: Data-Driven Optimization |
WB2: Smart City |
12:00-13:30 | Lunch* | Lunch* | Lunch* | |||
13:30-15:00 | MC1: VRP II |
MC2: Learning II |
TC1: Delivery |
TC2: Network Design |
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15:00-15:30 | Coffee Break | Coffee Break | ||||
15:30-18:00 | Palace Tour | National Assembly Tour |
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18:00-19:00 | Conference Dinner |
*(Lunch is on your own)
📌 Keynote Speech
Title: Intelligent Mobility with Physical AI
Abstract:
In this talk, Dr. Chang will share Kakao Mobility's strategy and vision for the Next Mobility (NEMO) program, which includes autonomous driving, robot delivery, and digital twin solutions. These innovations are expected to revolutionize the industrial ecosystem and impact daily life, emphasizing the role of Physical AI in transforming industries like autonomous driving and robotics.
Speaker: Dr. Christopher Chang
Affiliation: Kakao Mobility Corp. Senior Vice President, Next Mobility Labs Director
Biography:
Dr. Christopher Chang is Senior Vice President at Kakao Mobility Corp., overseeing strategy, R&D, and business development in areas such as autonomous systems, digital twins, and Urban Air Mobility (UAM). He has previously worked at Hyundai Motor, Samsung Electronics, Qualcomm, and NASA-JPL, and holds a Ph.D. in Electrical Engineering from Caltech.
🗓️ Program Schedule
Track | Presentation |
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MB1: VRP I |
Advanced Neural Separation Algorithm for Capacity Inequalities |
Enabling Learning of Heterogeneity in Driver-Customer Interactions: Vehicle Routing with Driver-Dependent Service Times | |
Combining Column-Elimination with Column-Generation | |
MB2: Learning I |
Enhancing Dynamic Pricing in Passenger Transportation Networks Using Offline Reinforcement Learning |
A reinforcement learning approach for resource constrained project scheduling problem in field artillery operations | |
Hierarchical Decomposition Framework for Steiner Tree Packing Problem | |
MC1: VRP II |
A Reinforcement Learning Approach for the Dynamic Vehicle Routing and Scheduling Problem with Stochastic Requests and Time-dependent, Stochastic Travel Times |
Robust Optimization Approach for Time Dependent Vehicle Routing Problem with Time Windows under Travel Time Uncertainty | |
Solving the Min-Max Mixed-Shelves Picker Routing Problem with Hierarchical and Parallel Decoding | |
The Iterative Chainlet Partitioning Algorithm for the Traveling Salesman Problem with Drone and Neural Acceleration | |
MC2: Learning II |
Preference learning for efficient bundle selection in horizontal transport collaborations |
An ALNS Algorithm for the Capacitated Vehicle Routing Problem with a Zone Tariff | |
Hybrid Intelligent Transportation Systems with Reinforcement Learning for Fresh Produce | |
DIANA-Based Dynamic Sub-Zoning for Dynamic Multi-Compartment Vehicle Routing Problem in Reverse Logistics | |
TA1: Logistics I |
Stochastic Programming for Dynamic Temperature Control of Refrigerated Road Transport |
Real-Time Routing Cost Predictions for Time Slot Management | |
A Rank-Based Choice Approach for Capacity-Constrained Supply Chain Planning | |
TA2: Learning III |
Neural Genetic Operators for Combinatorial Optimization |
A Deep Reinforcement Learning Framework for Truck Platoon Schedule Coordination | |
Optimizing Real-Time Warehouse Order Picking with Deep Reinforcement Learning | |
TB1: Logistics II |
Efficient Heuristics for Multi-Port-Multi-Deck Car Carrier Ship Loading Problem with Height Constraint |
A Mixed Truck-and-Robot System with Parcel Return and Robot Reuse | |
Smart Logistics: Multi-Attribute Bidding Optimization via Deep Reinforcement Learning | |
TB2: Learning IV |
Fast Shapley value approximation through machine learning with application in routing problems |
Dynamic Time Slot Management and Vehicle Dispatching Problem with Machine Learning | |
Hypernetwork-Based Concurrent Learning of Optimal Composition Design for Partially Controlled Multi-Agent Systems | |
Urban Region Embedding via Mobility Time Series Contrastive Learning | |
TC1: Delivery |
Neural-Network Aided Optimization for On-Demand Food-Delivery Services with a Mixed Fleet of Drones and Human |
The Pickup and Delivery Problem with Configurations | |
Feasibility Assessment in Attended Home Delivery with Basket Uncertainty | |
TC2: Network Design |
Learning-based simulation-optimization for service network design under uncertainty |
Combined Natural Gas and Hydrogen Pipeline Network Design | |
Traffic Network Layout Optimization with Diffusion Models | |
WA1: Online Optimization |
Classification-based Learning for the Online On-demand Warehousing Problem |
Multi-Camera Predictive Traffic Sensing via Transformer-Enabled Constrained Correlated Online Learning | |
Online Container Allocation and Dynamic Rebalancing with Deep Reinforcement Learning | |
WA2: Mobility |
Fair Fares for Vehicle Sharing Systems |
A predict-then-optimize approach for solving a first-and-last-mile ridesharing problem | |
Integrating Latent Urban Factors in Vertiport Site Selection: A Comprehensive Framework and Seoul Case Study | |
WB1: Data-Driven Optimization |
Data-Driven Bunker Refueling Under Price Uncertainty |
Optimal Planning for Electric Vehicle Public Charging Infrastructure: A Case Study in New York City | |
Data-driven optimization for wildfire suppression resource deployment: A case study of Alberta Wildfire | |
WB2: Smart City |
Dynamic Berth Allocation Policies in the Deep-Sea Terminals |
Single-Vehicle Residential Waste Collection Problem with Turn Penalty, Visual Attractiveness | |
Integrating Urban Air Mobility with Highway Infrastructure: A Strategic Approach for Vertiport Location Selection in the Seoul Metropolitan Area |