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most citedComplexity and Philosophy

166 citations · 2.1k across the 99 of their papers we have counts for

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38 papers · 1 filter

nlin.AO2022★ 26 cited

Temporal, structural, and functional heterogeneities extend criticality and antifragility in random Boolean networks

Amahury Jafet López-Díaz, Fernanda Sánchez-Puig, Carlos Gershenson

Most models of complex systems have been homogeneous, i.e., all elements have the same properties (spatial, temporal, structural, functional). However, most natural systems are het…

nlin.AO2020★ 16 cited

Antifragility Predicts the Robustness and Evolvability of Biological Networks through Multi-class Classification with a Convolutional Neural Network

Hyobin Kim, Stalin Muñoz, Pamela Osuna +1

Robustness and evolvability are essential properties to the evolution of biological networks. To determine if a biological network is robust and/or evolvable, it is required to com…

nlin.AO2019★ 52 cited

Self-Organization and Artificial Life

Carlos Gershenson, Vito Trianni, Justin Werfel +1

Self-organization can be broadly defined as the ability of a system to display ordered spatio-temporal patterns solely as the result of the interactions among the system components…

nlin.AO2019★ 8 cited

A Multilayer Structure Facilitates the Production of Antifragile Systems in Boolean Network Models

Hyobin Kim, Omar K. Pineda, Carlos Gershenson

Antifragility is a property from which systems are able to resist stress and furthermore benefit from it. Even though antifragile dynamics is found in various real-world complex sy…

nlin.AO2018★ 36 cited

A Novel Antifragility Measure Based on Satisfaction and Its Application to Random and Biological Boolean Networks

Omar K. Pineda, Hyobin Kim, Carlos Gershenson

Antifragility is a property that enhances the capability of a system in response to external perturbations. Although the concept has been applied in many areas, a practical measure…

nlin.AO2018★ 3 cited

Self-Organization and Artificial Life: A Review

Carlos Gershenson, Vito Trianni, Justin Werfel +1

Self-organization has been an important concept within a number of disciplines, which Artificial Life (ALife) also has heavily utilized since its inception. The term and its implic…

nlin.AO2017★ 1 cited

Trajectory stability in the traveling salesman problem

Sergio Sánchez, Germinal Cocho, Jorge Flores +3

Two generalizations of the traveling salesman problem in which sites change their position in time are presented. The way the rank of different trajectory lengths changes in time i…

nlin.AO2016★ 1 cited

Self-organized UAV Traffic in Realistic Environments

Csaba Virágh, Máté Nagy, Carlos Gershenson +1

We investigated different dense multirotor UAV traffic simulation scenarios in open 2D and 3D space, under realistic environments with the presence of sensor noise, communication d…

nlin.AO2016★ 2 cited

Cybernetic Cities: Designing and controlling adaptive and robust urban systems

Carlos Gershenson, Paolo Santi, Carlo Ratti

Cities are changing constantly. All urban systems face different conditions from day to day. Even when averaged regularities can be found, urban systems will be more efficient if t…

nlin.AO2016★ 1 cited

Improving Urban Mobility by Understanding its Complexity

Carlos Gershenson

Urban mobility systems are composed multiple elements with strong interactions, i.e. their future is co-determined by the state of other elements. Thus, studying components in isol…

nlin.AO2015★ 12 cited

Measuring the Complexity of Continuous Distributions

Guillermo Santamaría-Bonfil, Nelson Fernández, Carlos Gershenson

We extend previously proposed measures of complexity, emergence, and self-organization to continuous distributions using differential entropy. This allows us to calculate the compl…

nlin.AO2015★ 65 cited

When slower is faster

Carlos Gershenson, Dirk Helbing

The slower is faster (SIF) effect occurs when a system performs worse as its components try to do better. Thus, a moderate individual efficiency actually leads to a better systemic…

nlin.AO2014★ 1 cited

Requisite Variety, Autopoiesis, and Self-organization

Carlos Gershenson

Ashby's law of requisite variety states that a controller must have at least as much variety (complexity) as the controlled. Maturana and Varela proposed autopoiesis (self-producti…

nlin.AO2014★ 63 cited

Measuring the Complexity of Self-organizing Traffic Lights

Dario Zubillaga, Geovany Cruz, Luis Daniel Aguilar +5

We apply measures of complexity, emergence and self-organization to an abstract city traffic model for comparing a traditional traffic coordination method with a self-organizing me…

nlin.AO2013★ 11 cited

The Past, Present and Future of Cybernetics and Systems Research

Carlos Gershenson, Peter Csermely, Peter Erdi +2

Cybernetics and Systems Research (CSR) were developed in the mid-twentieth century, offering the possibility of describing and comparing different phenomena using the same language…

nlin.AO2013★ 1 cited

Information Measures of Complexity, Emergence, Self-organization, Homeostasis, and Autopoiesis

Nelson Fernandez, Carlos Maldonado, Carlos Gershenson

This chapter reviews measures of emergence, self-organization, complexity, homeostasis, and autopoiesis based on information theory. These measures are derived from proposed axioms…

nlin.AO2011

Facing Complexity: Prediction vs. Adaptation

Carlos Gershenson

One of the presuppositions of science since the times of Galileo, Newton, Laplace, and Descartes has been the predictability of the world. This idea has strongly influenced scienti…

nlin.AO2011★ 23 cited

Living in Living Cities

Carlos Gershenson

This paper presents an overview of current and potential applications of living technology to some urban problems. Living technology can be described as technology that exhibits th…

nlin.AO2011★ 51 cited

The Implications of Interactions for Science and Philosophy

Carlos Gershenson

Reductionism has dominated science and philosophy for centuries. Complexity has recently shown that interactions---which reductionism neglects---are relevant for understanding phen…

nlin.AO2011★ 1 cited

Self-organizing traffic lights at multiple-street intersections

Carlos Gershenson, David A. Rosenblueth

Summary: Traffic light coordination is a complex problem. In this paper, we extend previous work on an abstract model of city traffic to allow for multiple street intersections. We…

nlin.AO2010★ 1 cited

Guiding the Self-organization of Random Boolean Networks

Carlos Gershenson

Random Boolean networks (RBNs) are models of genetic regulatory networks. It is useful to describe RBNs as self-organizing systems to study how changes in the nodes and connections…

nlin.AO2010

Complexity

Carlos Gershenson

There is no single definition of complexity (Edmonds 1999; Gershenson 2008; Mitchell 2009; De Domenico, et al., 2019), as it acquires different meanings in different contexts. A ge…

nlin.AO2009★ 21 cited

Self-organizing urban transportation systems

Carlos Gershenson

Urban transportation is a complex phenomenon. Since many agents are constantly interacting in parallel, it is difficult to predict the future state of a transportation system. Beca…

nlin.AO2006★ 73 cited

Self-organizing traffic lights: A realistic simulation

Seung-Bae Cools, Carlos Gershenson, Bart D'Hooghe

We have previously shown in an abstract simulation (Gershenson, 2005) that self-organizing traffic lights can improve greatly traffic flow for any density. In this paper, we extend…