FLIGHT DATA FOR RESEARCH

AeroScope provides researchers with real-time and historical ADS-B flight data through multiple export formats and a comprehensive API. Designed for academic rigor and reproducibility.

RESEARCH USE CASES

FLIGHT PATTERN ANALYSIS

Study aircraft movement patterns including holding patterns, approach procedures, departure routes, and traffic flow. AeroScope's pattern detection algorithm identifies orbits, racetracks, loiter behavior, and grid searches automatically, providing a pre-classified dataset for pattern research.

AIRSPACE UTILIZATION

Analyze traffic density, altitude layer distribution, temporal patterns, and sector loading. AeroScope's airspace complexity scoring provides a quantitative framework for studying congestion, capacity, and safety margins in different airspace volumes.

SURVEILLANCE AIRCRAFT TRACKING

Investigate law enforcement and government surveillance aircraft through persistent tracking and pattern recognition. Identify aircraft that exhibit surveillance behavior (circular patterns, loiter over specific areas) and correlate with public records databases.

NOISE POLLUTION STUDIES

Correlate aircraft positions and altitudes with noise measurement data. Export approach and departure trajectories for airports of interest, and analyze altitude profiles, flight frequencies, and time-of-day patterns for environmental impact studies.

ADS-B SIGNAL ANALYSIS

Study ADS-B signal characteristics including reception rates, position accuracy, message types, and spoofing detection. AeroScope's signal integrity module provides a foundation for cybersecurity research in aviation surveillance systems.

DRONE ACTIVITY RESEARCH

Study drone/UAV activity in the national airspace through AeroScope's drone detection system. Analyze drone flight characteristics, operating altitudes, proximity to airports, and temporal patterns. Useful for UAS integration and policy research.

DATA EXPORT FORMATS

CSV (Comma-Separated Values)

Ideal for spreadsheet analysis and statistical software (R, SPSS, Stata). Each row represents one aircraft at one point in time, with columns for ICAO hex, callsign, latitude, longitude, altitude, speed, heading, vertical rate, squawk, aircraft type, threat score, and all analysis flags.

GET /api/export/csv
Accept: text/csv
Authorization: Bearer <token>

JSON (JavaScript Object Notation)

Structured data format ideal for programmatic analysis in Python, JavaScript, and other languages. Includes nested objects for analysis results (threat scoring breakdown, pattern classification details, drone detection rationale).

GET /api/export/json
Accept: application/json
Authorization: Bearer <token>

GeoJSON

Geographic data format compatible with GIS tools (QGIS, ArcGIS, Mapbox, Leaflet). Each aircraft is a GeoJSON Feature with Point geometry and properties containing all telemetry and analysis data. Ideal for spatial analysis and mapping projects.

GET /api/export/geojson
Accept: application/geo+json
Authorization: Bearer <token>

API ACCESS FOR BULK COLLECTION

For automated data collection, use the REST API with over 50 endpoints. Common research workflows include:

See the full API documentation for endpoint details, authentication, and rate limits.

CITATION FORMAT

When using AeroScope data in academic publications, please cite as follows:

APA Format:
AeroScope. (2026). AeroScope Real-Time ADS-B Flight Tracking Platform [Dataset]. Retrieved [date] from https://aeroscope.live
BibTeX:
@misc{aeroscope2026,
  title={AeroScope Real-Time ADS-B Flight Tracking Platform},
  author={{AeroScope}},
  year={2026},
  url={https://aeroscope.live},
  note={Accessed: [date]}
}

If your research uses specific analysis features (threat scoring, pattern detection, drone detection), please mention the specific module version in your methodology section for reproducibility.

DATA CONSIDERATIONS