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Home›Simulation›Agent-Based Discrete-Event Simulation — Hybrid Simulation Combining Autonomous Agents and Event Queues
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Agent-Based Discrete-Event Simulation — Hybrid Simulation Combining Autonomous Agents and Event Queues

Agent-Based Discrete-Event Simulation (AB-DES) · Also known as: AB-DES, Hybrid ABM-DES, Agent-DES, Hybrid Agent-Based Discrete-Event Simulation

Agent-based discrete-event simulation (AB-DES) is a hybrid modeling paradigm that couples autonomous agent behavior with an event-driven execution engine. It captures the decision-making heterogeneity of individual entities while maintaining the precise, time-stamped flow control of discrete-event simulation, making it suitable for complex systems where both individual agency and process sequencing matter.

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Agent-based Discrete-Event Simulation
Agent-Based ModelingAgent-based system dynam…Discrete-Event SimulationMONTE-CARLO-SIMULATIONAgent-based Markov modelAgent-based queueing sim…Bayesian Discrete-Event…

When to use it

Use AB-DES when the system involves both heterogeneous autonomous actors making individual decisions and well-defined sequential processes with precise timing. It is especially appropriate for healthcare pathways, supply chain logistics, emergency response, and manufacturing systems where worker or customer behavior varies but process stages are fixed. Do not use AB-DES when the system is homogeneous and process-driven with no meaningful agent heterogeneity (standard DES suffices), or when interactions are purely emergent with no event-driven sequencing (pure ABM suffices). Avoid it when data on both agent behavior and event timing are unavailable, as the model will be under-constrained.

Strengths & limitations

Strengths
  • Captures both individual heterogeneity (agent behavior) and process sequencing (event timing) in a single coherent model.
  • Enables richer what-if analysis than either ABM or DES alone by varying both behavioral rules and process parameters.
  • Naturally represents systems where human decision-making interacts with institutional processes.
  • Supports parallel and distributed execution for large-scale scenarios.
  • Validated in real-world domains including healthcare, logistics, and emergency management.
Limitations
  • Model design and implementation complexity is significantly higher than pure ABM or pure DES.
  • Requires calibration data for both agent behavior parameters and event timing distributions, which may be difficult to obtain.
  • Computational cost can be high for large agent populations with fine-grained event granularity.
  • Verification and validation requires expertise in both simulation paradigms.

Frequently asked

How does AB-DES differ from pure agent-based modeling?

Pure ABM advances time in fixed steps and focuses on emergent collective behavior. AB-DES uses a global event calendar to advance time only when events occur, which is more efficient for sparse processes and preserves exact timing of state changes — critical when sequencing matters.

What software tools support AB-DES?

AnyLogic is the most widely used commercial platform that natively supports all three paradigms (ABM, DES, SD) in a single model. Repast Simphony and MASON can be extended to incorporate event queues, though they require more custom development.

How many replications are needed?

There is no universal answer, but common practice is to run a pilot study of 10–30 replications, estimate output variance, and calculate the required sample size for the desired confidence interval width. Stochastic models typically require at least 30 replications for reliable inference.

When should I choose pure DES over AB-DES?

Choose pure DES when entities can be treated as homogeneous (all patients, all customers, all parts behave identically) and individual decision logic is not needed. AB-DES adds complexity that is only justified when behavioral heterogeneity meaningfully affects system-level outcomes.

Is AB-DES suitable for real-time decision support?

Generally no — AB-DES models are calibrated and validated offline. Some fast, simplified AB-DES models can run quickly enough for near-real-time scenario testing, but full-scale models are typically used for planning and policy analysis rather than live operational control.

Sources

  1. Lagergren, J. H., & Buckley, E. (2010). A hybrid approach to simulation: Combining agent-based and discrete event simulation. Proceedings of the 2010 Winter Simulation Conference, pp. 170–181. IEEE. link ↗
  2. Agent-based model. Wikipedia. link ↗

How to cite this page

ScholarGate. (2026, June 3). Agent-Based Discrete-Event Simulation (AB-DES). ScholarGate. https://scholargate.app/en/simulation/agent-based-discrete-event-simulation

Related methods

Agent-Based ModelingAgent-based system dynamicsDiscrete-Event SimulationMONTE-CARLO-SIMULATION

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Set this method beside its closest kin and read them side by side — the library lays the books on the table; the choice is yours.

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  • Agent-based system dynamicsSimulation↔ compare
  • Discrete-Event SimulationSimulation↔ compare
  • MONTE-CARLO-SIMULATIONDecision-making↔ compare
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Referenced by

Agent-based Markov modelAgent-based queueing simulationAgent-based system dynamicsBayesian Discrete-Event Simulation

Similar methods

Agent-based system dynamicsStochastic Discrete-Event SimulationAgent-Based ModelingAgent-based queueing simulationAgent-based microsimulationDiscrete-Event SimulationAgent-based Markov modelPolicy Scenario Discrete-Event Simulation

Related reference concepts

Computational Techniques • Simulation ModelingEconomic Modeling and SimulationSimulationComputer SimulationComputable and Other Applied General Equilibrium ModelsStatistical Simulation Methods: General

Spotted an issue on this page? Report or suggest a fix →

ScholarGate — Agent-based Discrete-Event Simulation (Agent-Based Discrete-Event Simulation (AB-DES)). Retrieved 2026-07-21 from https://scholargate.app/en/simulation/agent-based-discrete-event-simulation · Dataset: https://doi.org/10.5281/zenodo.20539026
Quick facts
Originator
Hybridization formalized by multiple authors; Siebers & Aickelin, Lagergren & Buckley among key contributors
Year
2000s
Type
Hybrid simulation paradigm
DataType
Event logs, agent state data, process flow data, timestamped records
Subfamily
Simulation / optimization
Related methods
Agent-Based ModelingAgent-based system dynamicsDiscrete-Event SimulationMONTE-CARLO-SIMULATION
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