/propexo

A Proposal Tutorial for Transiting Exoplanet Atmospheres

Primary LanguageJupyter Notebook

Support Migrated

This repository has been migranted to PICASO. Please install PICASO and proceed to this tutorial here: https://natashabatalha.github.io/picaso/notebooks/workshops/SaganSchool2020/JWSTProposalTutorial.html

A Proposal Tutorial for Exoplanet Atmospheres (support migrated)

Created for the Sagan Summer School. Huge thank you to Dr. Hannah Wakeford (Bristol) and Dr. Ehsan Gharib-Nezhad (NASA Ames) for comments and fixes.

Setup Up

Clone the repository

git clone https://github.com/natashabatalha/propexo.git
cd propexo

Create conda environment from yml file.

conda env create -f propexo.yml

Activate environment and open up jupyter notebook.

conda activate propexo
jupyter notebook

Table of Contents

  1. What accuracy in planet properties do I need?

1.1. Using Exoplanet Archive API to Query Confirmed Targets

  1. What tools do I need? How do I use them?

2.1. Use PandExo to run initial constant (𝑅𝑝/𝑅∗)2 to determine approx precision

2.2. Use CHIMERA to determine first guess atmospheric transmission signal

2.3. Check Exo.MAST for available data so we can validate our assumptions

2.4. Use PICASO to determine first guess atmospheric emission signal

  1. How can I "prove" observability?

3.1 Can an atmosphere be detected: Addressing cloud concerns and quantifying statistical significance in transmission

3.2 Can an atmosphere be detected: Addressing unknown climate and quantifying statistical significance in emission

3.3 Can a specific molecule be detected?

3.4 Can any physical parameters be constrained? Information content theory for initial constraint estimates