Hybrid simulation is a modeling approach that combines two or more different simulation methods. This allows for a more comprehensive and accurate representation of the real-world system being modeled. For example, a hybrid simulation model could use discrete-event simulation to model the interactions between individual entities in a system, and system dynamics to model the overall behavior of the system.

Hybrid modeling is a powerful and versatile technique that can be used to model a wide variety of complex systems. By combining different simulation methods, hybrid models can achieve a higher level of accuracy, efficiency, and flexibility than single-method models. If you are working on a complex simulation project, hybrid simulation may be the right approach for you.

Advantages of Hybrid Simulation

There are several advantages to using hybrid simulation. First, it can be used to model systems that are too complex or too large to be modeled using a single simulation method. Second, it can be used to model systems that involve a combination of discrete and continuous events. Third, it can be used to model systems that exhibit chaotic or unpredictable behavior.

Types of Hybrid Simulation Modeling

There are two main types of hybrid simulation: Sequential hybrid simulation and parallel hybrid simulation. In sequential hybrid simulation, the different simulation methods are executed sequentially. In parallel hybrid simulation, the different simulation methods are executed in parallel.

  • Sequential hybrid simulation is a process where the different simulation methods are executed sequentially. This means that the output of one simulation method is used as the input for the next simulation method. This approach is often used when the different simulation methods are incompatible or when it is necessary to ensure that the results of the simulation are consistent.
  • Parallel hybrid simulation is a process where the different simulation methods are executed in parallel. This means that the different simulation methods are running at the same time and their results are combined to produce a final output. This approach is often used when the different simulation methods are compatible and when it is necessary to speed up the simulation process.

What is the difference between these methods, you can read in the article  add link

Applications of Hybrid Modeling

Hybrid simulation can be used in a wide variety of applications, including:

  • Supply Chain Optimization: Utilize hybrid simulation to optimize supply chains, considering both continuous flow of goods and discrete events like order processing and delivery.
  • Manufacturing Process Analysis: Improve manufacturing processes by employing hybrid simulation to model continuous production lines and discrete events such as machine breakdowns and maintenance.
  • Traffic Flow Management: Enhance traffic flow management using hybrid simulation to model continuous traffic movement and discrete events like accidents and road closures.
  • Healthcare Systems Modeling: Model healthcare systems using hybrid simulation to analyze patient flows, resource allocation, and discrete events like hospital admissions and discharge.

Benefits of Hybrid Modeling

Hybrid modeling is a powerful technique that can be used to improve the accuracy, efficiency, and flexibility of simulation models. By combining different simulation methods, hybrid models can be used to model complex systems that would be difficult or impossible to model using a single method. Additionally, hybrid models can be used to run simulations more quickly and efficiently, which can save time and money.

List of Hybrid Simulation Methods.

Here are some of the most common hybrid simulation methods:

  • Discrete-event simulation (DES) is a simulation method that models the behavior of a system by tracking the occurrence of discrete events.
  • System dynamics (SD) is a simulation method that models the behavior of a system by tracking the flow of information and resources through the system.
  • Agent-based modeling (ABM) is a simulation method that models the behavior of a system by tracking the interactions between individual agents in the system.
  • Monte Carlo simulation is a simulation method that uses random numbers to generate a distribution of possible outcomes.

 

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Chief Executive Officer (CEO)

Ilia Savchenko

Chief Technology Officer (CTO)

Igor Yeremenko

Business Development Manager (BizDev)

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