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NEONA / PROJECT 001HACKATHON PROTOTYPE

ExoScope.

A world away.
A signal within reach.

Exploring exoplanet candidates through machine learning, feature engineering, and a visual web interface.

Open original prototype
EXOSCOPE / SIGNAL STUDYILLUSTRATIVE
100.5100.099.599.098.598.0-0.10-0.050.000.050.10RELATIVE BRIGHTNESS (%)ORBITAL PHASETRANSIT
FIG. 02 / UNDERSTANDING A TRANSIT

When a planet crosses in front of its star, the measured brightness can dip. Adjust the depth and noise to explore this idea. Synthetic data for explanation only; this does not run ExoScope’s classifier. About transits ↗

01 / THE QUESTION

More data.
More possibilities to explore.

Exoplanet searches rely on interpreting astronomical observations. A signal is a starting point for investigation, not confirmation of a new world.

ExoScope’s goal is to help automate data analysis and provide an accessible platform for researchers and enthusiasts. Our prototype combines machine learning with visual exploration.

02 / THE TECHNICAL APPROACH

From dataset
to an explorable result.

The project brings two strands together: machine-learning experiments and a web service for interacting with data.

  1. INPUT / 01

    Exoplanet data

    Choose the default dataset or upload a custom CSV in the original prototype.

  2. PREPARE / 02

    Feature engineering

    The presentation identifies feature engineering as part of the model approach.

  3. MODEL / 03

    Tree-based learning

    Compare XGBoost, LightGBM, and Random Forest on the project’s classification task.

  4. EXPLORE / 04

    Web interface

    Search, filter, visualize, and request prediction scores through the prototype.

High-level workflow based on the project presentation and prototype interface. Exact preprocessing, model inputs, and deployment details are not specified in the presentation.

03 / REPORTED RESULTS

Three models.
An initial comparison.

The 2025 presentation reports the following scores. XGBoost has the highest reported F1 and ROC-AUC among these three models.

Scores reported in the ExoScope 2025 presentation
ModelF1 scoreROC-AUC
XGBoost0.850.91
LightGBM0.830.89
Random Forest0.820.88

Source: ExoScope presentation, “Our solution.” Dataset size, split strategy, class balance, uncertainty estimates, and evaluation protocol are not specified in the presentation. These are reported prototype results, not independently validated performance claims.

04 / DEVELOPMENT DIRECTION

A prototype.
A clear set of next questions.

The presentation outlines five future improvements. These are proposed directions, not released capabilities or dated commitments.

  1. 01

    Model optimization

    Improve and evaluate the existing modeling approach.

    PLANNED
  2. 02

    Neural-network experiments

    Explore neural models alongside the current tree-based baselines.

    PLANNED
  3. 03

    Automatic data updates

    Investigate a workflow for refreshing the available data.

    PLANNED
  4. 04

    Web-platform extension

    Extend the prototype’s interface and functionality.

    PLANNED
  5. 05

    Open access and collaboration

    Develop opportunities for wider use and collaboration.

    PLANNED
05 / PROJECT ORIGINS

Built by NeoNa.
Started at Space Apps.

2025

NASA Space Apps Challenge

Challenge: “A World Away: Hunting for Exoplanets with AI.”

ExoScope was developed by NeoNa. Participation in the challenge is part of the project’s history; it does not imply a NASA partnership or endorsement.

EXPLORE THE ORIGINAL

See the prototype.

The original hackathon web application opens separately.

Open ExoScope