Learning Through Discovery

Research in Action

Students investigate authentic NASA observations, analyze exoplanet light curves, and develop computational thinking by exploring how astronomers search for planets beyond our solar system.

Powered by NASA Public Data

NASA light curve used for exoplanet research

Explore NASA Data

Students investigate real observations from NASA missions such as Kepler and TESS to understand how astronomers search for planets orbiting distant stars.

Python notebook used for exoplanet data analysis

Analyze with Python

Using Python and data analysis techniques, students identify patterns, investigate planetary transits, and explore how computational tools support modern astrophysics.

How Students Investigate Exoplanets

  1. Collect NASA Data
  2. Clean & Prepare Data
  3. Analyze Light Curves
  4. Detect Transit Signals
  5. Investigate Planet Candidates

Current Research Investigations

FUTURE MISSION

Nancy Grace Roman Space Telescope

Developing a predictive simulation pipeline to quantify the atmospheric characterization potential of the Roman CGI and WFI.

  • Bayesian Retrieval
  • Roman CGI Sim
  • Nested Sampling
ACTIVE MISSION

Cross-Mission Validation: WASP-96b

Benchmarking TESS photometry against JWST NIRISS spectra to resolve the abundance-cloud degeneracy in Hot Jupiters.

  • petitRADTRANS
  • lightkurve
  • JWST NIRISS
TECHNICAL INFRASTRUCTURE

Large-Scale Data Engineering

Collaborating on automated light-curve processing and pipeline optimization during a professional research residency.

  • Data Pipelines
  • Automated QA
  • Python Engineering
ML RESEARCH

Augmented Detection & Flux Analysis

Extending baseline CNN models with synthetic data augmentation to improve exoplanet detection in low SNR environments.

  • TensorFlow
  • Data Augmentation
  • CNN Architectures