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Main Authors: Sego, T. J., König, Matthias, Fonseca, Luis L., Pathirana, Dilan, Bergmann, Frank T., Grecco, Hernán E., Silberberg, Mauro, Ray, Subhasis, Fain, Baylor, Knapp, Adam C., Tiwari, Krishna, Hermjakob, Henning, Sauro, Herbert M., Glazier, James A., Laubenbacher, Reinhard C., Malik-Sheriff, Rahuman S.
Format: Preprint
Published: 2024
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Online Access:https://arxiv.org/abs/2406.16820
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author Sego, T. J.
König, Matthias
Fonseca, Luis L.
Pathirana, Dilan
Bergmann, Frank T.
Grecco, Hernán E.
Silberberg, Mauro
Ray, Subhasis
Fain, Baylor
Knapp, Adam C.
Tiwari, Krishna
Hermjakob, Henning
Sauro, Herbert M.
Glazier, James A.
Laubenbacher, Reinhard C.
Malik-Sheriff, Rahuman S.
author_facet Sego, T. J.
König, Matthias
Fonseca, Luis L.
Pathirana, Dilan
Bergmann, Frank T.
Grecco, Hernán E.
Silberberg, Mauro
Ray, Subhasis
Fain, Baylor
Knapp, Adam C.
Tiwari, Krishna
Hermjakob, Henning
Sauro, Herbert M.
Glazier, James A.
Laubenbacher, Reinhard C.
Malik-Sheriff, Rahuman S.
contents Reproducibility is a fundamental requirement for validating scientific claims in computational research. Stochastic computational models are widely used in fields such as systems biology, financial modeling and environmental sciences. However, achieving reproducibility in stochastic simulations remains challenging, as each run can produce different outcomes. Existing infrastructure and software tools do not address independent reproduction of simulation results. Without independent reproducibility, results and conclusions lack credibility, as it remains unclear whether observed findings reflect model behavior or are artifacts of stochastic variation or an underpowered study. To bridge this gap, we introduce the Empirical Characteristic Function Equality Convergence Test (EFECT), a data-driven method to quantify the reproducibility of stochastic simulation results. EFECT employs empirical characteristic functions to compare reported results with those independently generated by assessing distributional inequality, termed EFECT error. Additionally, we establish the EFECT convergence point, a quantitative metric for determining the required number of simulation runs to achieve an EFECT error value of a priori significance. EFECT is applicable to all bounded, real-valued outputs, regardless of the model type or simulation method that produced them. We tested EFECT with over 40 use cases to demonstrate its broad applicability and effectiveness. EFECT standardizes stochastic simulation reproducibility, establishing a workflow that guarantees reliable results, supporting a wide range of stakeholders, and thereby enhancing validation of stochastic simulation studies, across a model's lifecycle. To promote standardization, we are developing the open-source software library libSSR in multiple programming languages for easy integration of EFECT.
format Preprint
id arxiv_https___arxiv_org_abs_2406_16820
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle EFECT: A Method to Quantify the Reproducibility of Stochastic Simulations
Sego, T. J.
König, Matthias
Fonseca, Luis L.
Pathirana, Dilan
Bergmann, Frank T.
Grecco, Hernán E.
Silberberg, Mauro
Ray, Subhasis
Fain, Baylor
Knapp, Adam C.
Tiwari, Krishna
Hermjakob, Henning
Sauro, Herbert M.
Glazier, James A.
Laubenbacher, Reinhard C.
Malik-Sheriff, Rahuman S.
Methodology
Reproducibility is a fundamental requirement for validating scientific claims in computational research. Stochastic computational models are widely used in fields such as systems biology, financial modeling and environmental sciences. However, achieving reproducibility in stochastic simulations remains challenging, as each run can produce different outcomes. Existing infrastructure and software tools do not address independent reproduction of simulation results. Without independent reproducibility, results and conclusions lack credibility, as it remains unclear whether observed findings reflect model behavior or are artifacts of stochastic variation or an underpowered study. To bridge this gap, we introduce the Empirical Characteristic Function Equality Convergence Test (EFECT), a data-driven method to quantify the reproducibility of stochastic simulation results. EFECT employs empirical characteristic functions to compare reported results with those independently generated by assessing distributional inequality, termed EFECT error. Additionally, we establish the EFECT convergence point, a quantitative metric for determining the required number of simulation runs to achieve an EFECT error value of a priori significance. EFECT is applicable to all bounded, real-valued outputs, regardless of the model type or simulation method that produced them. We tested EFECT with over 40 use cases to demonstrate its broad applicability and effectiveness. EFECT standardizes stochastic simulation reproducibility, establishing a workflow that guarantees reliable results, supporting a wide range of stakeholders, and thereby enhancing validation of stochastic simulation studies, across a model's lifecycle. To promote standardization, we are developing the open-source software library libSSR in multiple programming languages for easy integration of EFECT.
title EFECT: A Method to Quantify the Reproducibility of Stochastic Simulations
topic Methodology
url https://arxiv.org/abs/2406.16820