Abstract
Simulation-based approach provides a very powerful, rich, and versatile paradigm for many disciplines, methodologies, and studies. Already over 170 disciplines, methodologies, and approaches are simulation-based. The article clarifies the essence and power of simulation-based approach. To reach this aim the following is done: First, as a basis, the essence of simulation which consists of experimentation and experience is covered. The historic rise of the experimentation in early 17th century as a basis of scientific method as well as the additional benefits of simulated experiments are covered. The unique advantages of coupling simulation and the working of real systems are explained. Possibilities offered by simulation to gain three types of experience are clarified. A brief history of model-based approach as well as the first discipline for which model-based approach was promoted are explained. Richness and versatility of simulation and benefits of its use are detailed. The power gained by first and higher-order synergies of simulation with several other disciplines such as system theories, systems engineering, computers, software engineering, software agents, and reliability are mentioned. The already achieved shift of paradigm from model-based to simulation-based is strongly endorsed.
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Appendix
Appendix
Over 170 Simulation-based Disciplines, Methodologies, and Approaches
–A– |
simulation-based acquisition |
simulation-based activity |
simulation-based after-action review |
simulation-based analysis |
simulation-based algorithm |
simulation-based application |
simulation-based approach |
simulation-based architectural design |
simulation-based artificial neural networks |
simulation-based assessment (of competence) |
simulation-based assessment (of skills) |
simulation-based augmented reality |
–B– |
simulation-based B-factor analysis |
simulation-based Bayesian data fusion |
simulation-based Bayesian filtering |
simulation-based Bayesian g-formula |
simulation-based Bayesian inference |
simulation-based benchmarking |
simulation-based bias correction |
simulation-based breeding design |
simulation-based building energy optimization |
–C– |
simulation-based calibration |
simulation-based case study |
simulation-based casting |
simulation-based coaching |
simulation-based communication workshop |
simulation-based comparison |
simulation-based complex adaptive systems |
simulation-based control |
simulation-based costing |
simulation-based creation (of digital twin) |
simulation-based curriculum |
simulation-based cyber-physical systems |
–D– |
simulation-based data engineering |
simulation-based decision making |
simulation-based decision support |
simulation-based demo |
simulation-based design |
simulation-based diagnosis |
simulation-based discipline |
simulation-based discovery |
simulation-based discrete optimization |
simulation-based drug discovery |
simulation-based dynamic programming |
simulation-based dynamic traffic assignment |
–E– |
simulation-based e-learning |
simulation-based e-training |
simulation-based earthquake scenario |
simulation-based econometric model |
simulation-based education (SBE) |
simulation-based educational workshop |
simulation-based emergency response planning |
simulation-based engineering |
simulation-based environment |
simulation-based era analysis |
simulation-based estimation |
simulation-based estimator |
simulation-based evaluation |
simulation-based event-analysis |
simulation-based experiential learning |
–F– |
simulation-based fault detection |
simulation-based fault injection |
simulation-based feasibility study |
–G– |
simulation-based games |
simulation-based genetic algorithm |
–H– |
simulation-based H-infinity estimator |
simulation-based hardware verification |
simulation-based health care |
simulation-based health care education |
simulation-based heuristic |
–I– |
simulation-based inference |
simulation-based innovation |
simulation-based instruction |
simulation-based internal models |
simulation-based interprofessional education |
simulation-based intervention |
simulation-based interview |
simulation-based invention |
simulation-based investigation |
simulation-based irrigation scheduling |
simulation-based iteration |
–L– |
simulation-based learning |
simulation-based learning methodology |
–M– |
simulation-based M-estimator |
simulation-based M-step value iteration |
simulation-based mastery learning |
simulation-based medical education |
simulation-based medical learning |
simulation-based medical teaching |
simulation-based medical training |
simulation-based method |
simulation-based methodology |
simulation-based military training |
simulation-based monitoring |
simulation-based movie |
–N– |
simulation-based neonatal resuscitation |
simulation-based neonatal resuscitation curriculum |
simulation-based network control |
simulation-based nursing education |
–O– |
simulation-based optimal design |
simulation-based optimization |
–P– |
simulation-based paramedic training |
simulation-based parameter optimization |
simulation-based patient |
simulation-based patient safety |
simulation-based performance analysis |
simulation-based performance control |
simulation-based petroleum engineering |
simulation-based planning |
simulation-based platform |
simulation-based post-cardiac arrest care |
simulation-based proof |
–Q– |
simulation-based quality improvement |
–R– |
simulation-based reality |
simulation-based reliability evaluation |
simulation-based research |
simulation-based robot |
simulation-based robot command |
simulation-based robot control |
simulation-based robot development |
simulation-based robot programming |
simulation-based robot-assisted |
simulation-based robot-assisted surgical training |
–S– |
simulation-based scenario |
simulation-based scheduling |
simulation-based science |
simulation-based search |
simulation-based security |
simulation-based simplification |
simulation-based skill acquisition |
simulation-based software engineering |
simulation-based statistical inference |
simulation-based strategy |
simulation-based structure optimization |
simulation-based study |
simulation-based support |
simulation-based surgery |
simulation-based surgery planning |
simulation-based surgical training |
simulation-based system |
simulation-based system analysis |
simulation-based system assessment |
simulation-based system design |
simulation-based system development |
simulation-based system emergency evacuation |
simulation-based system identification |
simulation-based system integration |
simulation-based system reliability |
simulation-based system specification |
simulation-based system testing |
simulation-based system validation |
simulation-based systems engineering |
–T– |
simulation-based t-peel test |
simulation-based t-test |
simulation-based t values |
simulation-based teaching (SBT) |
simulation-based team training |
simulation-based testing |
simulation-based testing platform |
simulation-based thorascopy training |
simulation-based tool |
simulation-based traffic assignment |
simulation-based training |
simulation-based tutorial |
–U– |
simulation-based UAS swarm selection |
simulation-based understanding |
simulation-based usability evaluation |
–V– |
simulation-based V&V |
simulation-based V&V method |
simulation-based V/F speed control |
simulation-based validation |
simulation-based value-at-risk |
simulation-based verification |
simulation-based virtual laboratory |
simulation-based virtual reality |
simulation-based vocational education |
simulation-based vocational training |
simulation-based V-process |
–W– |
simulation-based Web course |
simulation-based workshop |
–X– |
simulation-based X-ray system design |
–Z– |
simulation-based z-score method |
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Ă–ren, T. (2021). Shift of Paradigm from Model-Based to Simulation-Based. In: Obaidat, M., Ă–ren, T., Szczerbicka, H. (eds) Simulation and Modeling Methodologies, Technologies and Applications. SIMULTECH 2019. Advances in Intelligent Systems and Computing, vol 1260. Springer, Cham. https://doi.org/10.1007/978-3-030-55867-3_2
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DOI: https://doi.org/10.1007/978-3-030-55867-3_2
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