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Notes
- 1.
By input parameters in this statement we mean “everything that may affect the output of the model”, e.g. the random seed, the pseudo-random number generator employed and, potentially, information about the microprocessor and operating system on which the simulation was run, if these could make a difference.
- 2.
The reader can see an interesting comparative analysis between agent-based and equation-based modelling in (Parunak et al. 1998).
- 3.
Note that the thematician faces a similar problem when building his non-formal model. There are potentially an infinite number of models for one single target system.
- 4.
Each individual member of this set can be understood as a different model or, alternatively, as a different parameterisation of one single –more general– model that would itself define the whole set.
- 5.
There are some interesting attempts with INGENIAS (Pavón and Gómez-Sanz 2003) to use modelling and visual languages as programming languages rather than merely as design languages (Sansores and Pavón 2005; Sansores et al. 2006. These efforts are aimed at automatically generating several implementations of one single executable model (in various different simulation platforms).
- 6.
See a complete epistemic review of the validation problem in Kleindorfer et al. (1998).
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Acknowledgements
The authors have benefited from the financial support of the Spanish Ministry of Education and Science (projects DPI2004–06590, DPI2005–05676 and TIN2008–06464–C03–02), the Spanish Ministry for Science and Innovation (CSD2010–00034) within the framework of CONSOLIDER-INGENIO 2010 and of the JCyL (projects VA006B09, BU034A08 and GREX251–2009). We are also very grateful to Nick Gotts, Gary Polhill, Bruce Edmonds and Cesáreo Hernández for many discussions on the philosophy of modelling.
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Gilbert (2007) provides an excellent basic introduction to agent based modelling. Chapter 3 summarizes the different stages involved in an agent-based modelling project, including verification and validation. The paper entitled “Some myths and common errors in simulation experiments” (Schmeiser 2001) discusses briefly some of the most common errors found in simulation from a probabilistic and statistical perspective. The approach is not focused specifically on agent based modelling but on simulation in general. Yilmaz (2006) presents an analysis of the life cycle of a simulation study and proposes a process-centric perspective for the validation and verification of agent-based computational organization models. Finally, Chap. 8 in this volume (David 2013) discusses validation in detail.
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Galán, J.M., Izquierdo, L.R., Izquierdo, S.S., Santos, J.I., del Olmo, R., López-Paredes, A. (2013). Checking Simulations: Detecting and Avoiding Errors and Artefacts. In: Edmonds, B., Meyer, R. (eds) Simulating Social Complexity. Understanding Complex Systems. Springer, Berlin, Heidelberg. https://doi.org/10.1007/978-3-540-93813-2_6
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