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Community-based benchmarking improves spike rate inference from two-photon calcium imaging data
Author(s) -
Philipp Berens,
Jeremy Freeman,
Thomas Deneux,
Nikolay Chenkov,
Thomas McColgan,
Artur Speiser,
Jakob H. Macke,
Srinivas C. Turaga,
Patrick Mineault,
Peter Rupprecht,
Stephan Gerhard,
Rainer W. Friedrich,
Johannes Friedrich,
Liam Paninski,
Marius Pachitariu,
Kenneth D. Harris,
Ben Bolte,
Timothy A. Machado,
Dario L. Ringach,
Jasmine T. Stone,
Luke E. Rogerson,
Nicolas J. Sofroniew,
Jacob Reimer,
Emmanouil Froudarakis,
Thomas Euler,
Miroslav Román Rosón,
Lucas Theis,
Andreas S. Tolias,
Matthias Bethge
Publication year - 2018
Publication title -
plos computational biology
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 2.628
H-Index - 182
eISSN - 1553-7358
pISSN - 1553-734X
DOI - 10.1371/journal.pcbi.1006157
Subject(s) - inference , benchmark (surveying) , benchmarking , spike (software development) , calcium imaging , computer science , artificial intelligence , artificial neural network , convolutional neural network , deep learning , machine learning , range (aeronautics) , biological neural network , neural coding , algorithm , pattern recognition (psychology) , calcium , chemistry , engineering , software engineering , geodesy , organic chemistry , marketing , aerospace engineering , business , geography
In recent years, two-photon calcium imaging has become a standard tool to probe the function of neural circuits and to study computations in neuronal populations. However, the acquired signal is only an indirect measurement of neural activity due to the comparatively slow dynamics of fluorescent calcium indicators. Different algorithms for estimating spike rates from noisy calcium measurements have been proposed in the past, but it is an open question how far performance can be improved. Here, we report the results of the spikefinder challenge, launched to catalyze the development of new spike rate inference algorithms through crowd-sourcing. We present ten of the submitted algorithms which show improved performance compared to previously evaluated methods. Interestingly, the top-performing algorithms are based on a wide range of principles from deep neural networks to generative models, yet provide highly correlated estimates of the neural activity. The competition shows that benchmark challenges can drive algorithmic developments in neuroscience.

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