activity
20112022
most citedChimera states: Coexistence of coherence and incoherence in networks of coupled oscillators

801 citations · 1.4k across the 12 of their papers we have counts for

collaborators

12 papers

cs.CY2022

Inferring school district learning modalities during the COVID-19 pandemic with a hidden Markov model

Mark J. Panaggio, Mike Fang, Hyunseung Bang +7

In this study, learning modalities offered by public schools across the United States were investigated to track changes in the proportion of schools offering fully in-person, hybr…

nlin.AO2019★ 29 cited

Model reconstruction from temporal data for coupled oscillator networks

Mark J Panaggio, Maria-Veronica Ciocanel, Lauren Lazarus +2

In a complex system, the interactions between individual agents often lead to emergent collective behavior like spontaneous synchronization, swarming, and pattern formation. The to…

nlin.CD2018★ 48 cited

Chaos in Kuramoto oscillator networks

Christian Bick, Mark J. Panaggio, Erik A. Martens

Kuramoto oscillators are widely used to explain collective phenomena in networks of coupled oscillatory units. We show that simple networks of two populations with a generic coupli…

math.OC2016

Prediction and Optimal Scheduling of Advertisements in Linear Television

Mark J Panaggio, Pak-Wing Fok, Ghan S Bhatt +19

Advertising is a crucial component of marketing and an important way for companies to raise awareness of goods and services in the marketplace. Advertising campaigns are designed t…

nlin.AO2016★ 70 cited

Chimera states in two populations with heterogeneous phase-lag

Erik Andreas Martens, Christian Bick, Mark J Panaggio

The simplest network of coupled phase-oscillators exhibiting chimera states is given by two populations with disparate intra- and inter-population coupling strengths. We explore th…

nlin.PS2015★ 101 cited

Chimera states in networks of phase oscillators: the case of two small populations

Mark J. Panaggio, Daniel M. Abrams, Peter Ashwin +1

Chimera states are dynamical patterns in networks of coupled oscillators in which regions of synchronous and asynchronous oscillation coexist. Although these states are typically o…

nlin.PS2015★ 88 cited

Basins of Attraction for Chimera States

Erik A. Martens, Mark J. Panaggio, Daniel M. Abrams

Chimera states---curious symmetry-broken states in systems of identical coupled oscillators---typically occur only for certain initial conditions. Here we analyze their basins of a…

nlin.CD2014★ 92 cited

Chimera states on the surface of a sphere

Mark J. Panaggio, Daniel M. Abrams

A chimera state is a spatiotemporal pattern in which a network of identical coupled oscillators exhibits coexisting regions of asynchronous and synchronous oscillation. Two distinc…

nlin.CD2014★ 801 cited

Chimera states: Coexistence of coherence and incoherence in networks of coupled oscillators

Mark J. Panaggio, Daniel M. Abrams

A chimera state is a spatio-temporal pattern in a network of identical coupled oscillators in which synchronous and asynchronous oscillation coexist. This state of broken symmetry,…

physics.soc-ph2013★ 2 cited

Symmetry breaking in optimal timing of traffic signals on an idealized two-way street

Mark J Panaggio, Bertrand J Ottino-Löffler, Peiguang Hu +1

Simple physical models based on fluid mechanics have long been used to understand the flow of vehicular traffic on freeways; analytically tractable models of flow on an urban grid,…

nlin.CD2012★ 113 cited

Chimera states on a flat torus

Mark J. Panaggio, Daniel M. Abrams

Discovered numerically by Kuramoto and Battogtokh in 2002, chimera states are spatiotemporal patterns in which regions of coherence and incoherence coexist. These mathematical oddi…

q-bio.PE2011★ 40 cited

A model balancing cooperation and competition explains our right-handed world and the dominance of left-handed athletes

Daniel M. Abrams, Mark J. Panaggio

An overwhelming majority of humans are right-handed. Numerous explanations for individual handedness have been proposed, but this population-level handedness remains puzzling. Here…