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Dynamics of a birth-death process based on combinatorial innovation
Mike Steel1, Wim Hordijk2, Stuart A Kauffman3
1Biomathematics Research Centre, University of Canterbury, Christchurch, New Zealand.
Human creativity involves combining existing items to generate new ones, a process modeled by a birth-death model. This model predicts a
Area of Science:
- * Complex Systems Science
- * Innovation Studies
- * Mathematical Modeling
Background:
- * Human creativity often involves combinatorial processes, generating novel ideas or technologies from existing components.
- * Understanding the dynamics of idea generation and extinction is crucial for innovation studies.
Purpose of the Study:
- * To develop a mathematical model for human creativity based on combinatorial processes.
- * To analyze the growth dynamics and 'explosive' phases in the emergence of new ideas or items.
- * To provide a framework for understanding human productivity and creativity patterns.
Main Methods:
- * A stochastic birth-death model with non-linear combinatorial terms was employed.
- * The model incorporates two key parameters (P, α) to capture item generation and extinction.
- * Analytical expressions for mean and variance of 'time to explosion' were derived and compared with simulations.
Main Results:
- * The model exhibits a characteristic 'hockey-stick' growth pattern: slow initial growth followed by rapid expansion.
- * Exact mathematical expressions for the model's key dynamic properties were obtained.
- * Simulations validated the theoretical predictions of the model.
Conclusions:
- * The proposed birth-death model effectively captures the combinatorial nature of human creativity and innovation.
- * The 'hockey-stick' behavior is a predictable outcome of this combinatorial growth process.
- * The model offers a quantitative approach to studying human productivity and creativity, with potential applications in various fields.
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