TimeTrial
TimeTrial optimizes experimental designs and benchmarks cycle detection algorithms to improve detection of gene expression oscillations in transcriptomic time-series studies of circadian biology.
Key Features:
- Design optimization: Simulates and evaluates the impact of sampling frequency, duration, noise levels, and waveform shapes on the detection of periodic patterns in transcriptomic data.
- Synthetic and biological data integration: Integrates synthetic datasets and real biological datasets for comprehensive benchmarking of cycle detection algorithms.
- Algorithm performance benchmarking: Assesses performance of cycle detection algorithms across varied experimental scenarios, highlighting how sampling frequency, duration, noise levels, and waveform shapes influence outcomes.
- Guidance on experimental design choices: Systematically varies design parameters to identify sampling schemes that maximize accuracy and reproducibility of oscillatory gene detection.
Scientific Applications:
- Circadian biology: Improves reliability and precision of detecting genes under circadian control by optimizing time-series experimental design and benchmarking cycle detection.
- Transcriptomic time-series experimental optimization: Informs selection of sampling schemes and experimental parameters to enhance detection of periodic gene expression in transcriptomic studies.
Methodology:
Performs systematic exploration of experimental design choices using synthetic data to model ideal conditions and real biological datasets to reflect practical challenges, and evaluates cycle detection algorithms.
Topics
Details
- Programming Languages:
- R, Python
- Added:
- 1/18/2021
- Last Updated:
- 2/27/2021
Operations
Publications
Ness-Cohn E, Iwanaszko M, Kath W, Allada R, Braun R. TimeTrial: An Interactive Application for Optimizing the Design and Analysis of Transcriptomic Times-Series Data in Circadian Biology Research. Unknown Journal. 2020. doi:10.1101/2020.04.15.043695.