The C2AC Roadmap for Modeling and Simulation: Context, Composition, Automation, and Communication

Conceptos Básicos

Simulation studies require better context, model composition, automation, and communication to address limitations effectively.

Resumen

Simulation is crucial, especially highlighted during the COVID-19 pandemic.
Goals include context support, model composition, automation, and communication improvement.
Formal approaches like DEVS, Petri nets, and process algebras are used for simulation models.
Reporting guidelines, provenance, and workflows aid in capturing and utilizing context information.
Domain-specific languages play a key role in modeling and simulation experiments.
Future research directions focus on standardizing context representation, collecting context information, maintaining context evolution, and exploiting context effectively.

Estadísticas

"Simulation has become, in many application areas, a sine-qua-non."
"Simulations were widely used during the pandemic to make forecasts."
"The checklist of TRACE comprises problem formulation, model description, data evaluation, conceptual model evaluation, implementation, verification, model output verification, model analysis, and model corroboration."

Citas

"Simulation has become, in many areas, a sine qua non."
"Simulations were widely used during the pandemic to make forecasts."
"The checklist of TRACE comprises problem formulation, model description, data evaluation, conceptual model evaluation, implementation, verification, model output verification, model analysis, and model corroboration."

Ideas clave extraídas de

Context, Composition, Automation, and Communication -- The C2AC Roadmap for Modeling and Simulation

by Adel... a las arxiv.org 03-28-2024

https://arxiv.org/pdf/2310.05649.pdf

Consultas más profundas

How can the simulation community standardize context representation effectively?

Standardizing context representation in the simulation community can be achieved through the development and adoption of common documentation guidelines and provenance standards. By establishing clear reporting guidelines for simulation studies, researchers can ensure that essential context information, such as research questions, assumptions, data sources, and simulation experiments, is consistently documented. This standardization can help in promoting transparency, reproducibility, and the effective communication of simulation results.
In addition to reporting guidelines, leveraging provenance standards, such as PROV-DM, can provide a structured framework for capturing the process-oriented view of context in simulation studies. Provenance information can help in tracking the evolution of simulation artifacts, understanding the relationships between different components, and ensuring that context information is maintained and accessible over time. By incorporating provenance standards into simulation practices, researchers can establish a common language and methodology for representing and managing context information effectively.

How can the challenges in maintaining and evolving context information in simulation studies be addressed?

Maintaining and evolving context information in simulation studies pose several challenges, including the need for comprehensive documentation, the management of evolving simulation artifacts, and the integration of informal context into formal representations. To address these challenges, researchers can implement tools and methods that facilitate the collection, storage, and retrieval of context information in a structured and accessible manner.
One approach is to utilize workflow systems that capture the provenance of simulation activities and artifacts, providing a detailed record of the simulation study's evolution. By integrating workflow systems with provenance standards, researchers can track changes, variations, and dependencies within the simulation process, enabling better management and maintenance of context information.
Furthermore, the development of feature description languages and model transformation techniques can help in managing variability and evolution in simulation artifacts. By formalizing the representation of context information and incorporating mechanisms for version control and abstraction, researchers can address the challenges of maintaining and evolving context information in simulation studies effectively.

How can provenance information be leveraged to automate simulation experiments effectively?

Provenance information can be leveraged to automate simulation experiments effectively by providing insights into the relationships between different simulation artifacts, activities, and outcomes. By analyzing the provenance data, researchers can identify patterns, dependencies, and best practices in conducting simulation experiments, which can inform the automation process.
One way to automate simulation experiments using provenance information is to develop intelligent systems that can recommend experiment designs, parameter settings, and analysis techniques based on historical data and provenance records. By leveraging machine learning algorithms and data mining techniques, researchers can extract valuable insights from provenance information and use them to guide the automation of simulation experiments.
Additionally, integrating provenance information with workflow systems can enable the automatic generation of simulation experiment pipelines, where each step is informed by the provenance data from previous activities. This approach can streamline the process of setting up, executing, and analyzing simulation experiments, ultimately improving efficiency and reproducibility in simulation studies.