HiddenVis
HiddenVis visualizes hidden states inferred by deep learning models from accelerometer time series to support interpretation of temporal profiles associated with health outcomes.
Key Features:
- Visualization of Hidden States: Generates visual representations of latent states produced by deep learning models from time series accelerometer inputs.
- Comparative Cohort Analysis: Compares outcome-associated temporal profiles across cohorts to identify differences in activity patterns.
- Pre-trained Deep Learning Model Integration: Integrates outputs from pre-trained deep learning models to infer hidden states from input time series.
- Accelerometer Time Series Ingestion: Processes continuous accelerometer time series data as input for state inference and downstream analysis.
- Temporal Profile Identification: Identifies critical time periods within daily activity profiles that correlate with health outcomes.
Scientific Applications:
- Health Outcome Prediction: Applied to NHANES accelerometer data to identify differences in 5-year mortality associated with daily activity patterns.
- Temporal Profile Analysis: Detects time-of-day periods within activity data that correlate with health outcomes for clinical and public health research.
- Human Movement Monitoring: Enables analysis of continuous accelerometer measurements to monitor and interpret movement-related health signals.
Methodology:
Implemented using JavaScript, Python, and the ECharts framework; explicitly described steps include importing accelerometer time series data, utilizing pre-trained deep learning models to infer hidden states, and generating visualizations for interpretation of those states in relation to health outcomes.
Topics
Details
- Tool Type:
- command-line tool
- Programming Languages:
- Python
- Added:
- 1/18/2021
- Last Updated:
- 1/30/2021
Operations
Publications
Yan J, Rong R, Xiao G, Zhan X. HiddenVis: a Hidden State Visualization Toolkit to Visualize and Interpret Deep Learning Models for Time Series Data. Unknown Journal. 2020. doi:10.1101/2020.12.11.422030.