Javascript must be enabled to continue!
dockerHDDM: A user-friendly environment for Bayesian Hierarchical Drift-Diffusion Modeling
View through CrossRef
Drift diffusion models (DDMs) are pivotal in understanding evidence accumulation processes during decision-making across psychology, behavioral economics, neuroscience, and psychiatry. Hierarchical drift diffusion models (HDDM), a Python library for hierarchical Bayesian estimation of DDMs (Wiecki et al., 2013), has been widely used among researchers, including those with limited coding proficiency, in fitting DDMs and other sequential sampling models. However, issues of compatibility in installation and lack of support for more recently Bayesian modeling functionalities poses serious challenges for new users, limiting broader adaptation and reproducibility of HDDM. To address these issues, we created dockerHDDM, a user-friend computational environment for HDDM with new features. dockerHDDM brings three improvements: (1) easy-to-install once docker is installed, ensuring reproducibility and saving time for researchers; (2) compatible with machine with apple chips; (3) seamlessly integration with ArviZ, a state-of-the-art Bayesian modeling library. This tutorial serves as a practical, hands-on guide for researchers to leverage dockerHDDM’s capabilities in conducting efficient Bayesian hierarchical analysis of DDMs. The notebook presented here and within the docker image will enable researchers with various programming levels to model their data with HDDM.
Center for Open Science
Title: dockerHDDM: A user-friendly environment for Bayesian Hierarchical Drift-Diffusion Modeling
Description:
Drift diffusion models (DDMs) are pivotal in understanding evidence accumulation processes during decision-making across psychology, behavioral economics, neuroscience, and psychiatry.
Hierarchical drift diffusion models (HDDM), a Python library for hierarchical Bayesian estimation of DDMs (Wiecki et al.
, 2013), has been widely used among researchers, including those with limited coding proficiency, in fitting DDMs and other sequential sampling models.
However, issues of compatibility in installation and lack of support for more recently Bayesian modeling functionalities poses serious challenges for new users, limiting broader adaptation and reproducibility of HDDM.
To address these issues, we created dockerHDDM, a user-friend computational environment for HDDM with new features.
dockerHDDM brings three improvements: (1) easy-to-install once docker is installed, ensuring reproducibility and saving time for researchers; (2) compatible with machine with apple chips; (3) seamlessly integration with ArviZ, a state-of-the-art Bayesian modeling library.
This tutorial serves as a practical, hands-on guide for researchers to leverage dockerHDDM’s capabilities in conducting efficient Bayesian hierarchical analysis of DDMs.
The notebook presented here and within the docker image will enable researchers with various programming levels to model their data with HDDM.
Related Results
dockerHDDM: A user-friendly environment for Bayesian Hierarchical Drift-Diffusion Modeling
dockerHDDM: A user-friendly environment for Bayesian Hierarchical Drift-Diffusion Modeling
Drift diffusion models (DDMs) are pivotal in understanding evidence accumulation processes during decision-making across psychology, behavioral economics, neuroscience, and psychia...
dockerHDDM: A user-friendly environment for Bayesian Hierarchical Drift-Diffusion Modeling
dockerHDDM: A user-friendly environment for Bayesian Hierarchical Drift-Diffusion Modeling
Drift diffusion models (DDMs) are pivotal in understanding evidence accumulation processes during decision-making across psychology, behavioral economics, neuroscience, and psychia...
dockerHDDM: A user-friendly environment for Bayesian Hierarchical Drift-Diffusion Modeling
dockerHDDM: A user-friendly environment for Bayesian Hierarchical Drift-Diffusion Modeling
Drift diffusion models (DDMs) are pivotal in understanding evidence accumulation decision-making processes during decision-making across psychology, behavioral economics, neuroscie...
Sample-efficient Optimization Using Neural Networks
Sample-efficient Optimization Using Neural Networks
<p>The solution to many science and engineering problems includes identifying the minimum or maximum of an unknown continuous function whose evaluation inflicts non-negligibl...
Figs S1-S9
Figs S1-S9
Fig. S1. Consensus phylogram (50 % majority rule) resulting from a Bayesian analysis of the ITS sequence alignment of sequences generated in this study and reference sequences from...
A new sea ice state dependent parameterization for the free drift of sea ice
A new sea ice state dependent parameterization for the free drift of sea ice
Abstract. Free drift estimates of sea ice motion are necessary to produce a seamless observational record combining buoy and satellite-derived sea ice motion vectors. We develop a ...
Comment on: Macroscopic water vapor diffusion is not enhanced in snow
Comment on: Macroscopic water vapor diffusion is not enhanced in snow
Abstract. The central thesis of the authors’ paper is that macroscopic water vapor diffusion is not enhanced in snow compared to diffusion through humid air alone. Further, mass di...
Intrusion Detection in IoT Data Streams based onEMNCD with Concept Drift
Intrusion Detection in IoT Data Streams based onEMNCD with Concept Drift
Abstract
With the widespread application of smart devices, the security of IoT systems faces entirely new challenges. The IoT data stream operates in a non-stationary, dyna...

