Bistatic Radar Sensor Model

Collection modeling for space domain awareness architectures

Summary

  • Bistatic radar sensor modeling for space domain awareness trades.
  • Integrated into enterprise architecture analysis with legacy tooling.
  • Led a 5-person sub-team delivering mission architecture research.

Overview

Bistatic radar systems use separate transmitter and receiver locations, offering unique advantages for space surveillance: improved stealth (receivers are passive), resistance to jamming, and the ability to detect objects that would be difficult for monostatic systems. At The Aerospace Corporation, I developed sensor models to enable high-level architecture analysis of proposed space domain awareness systems.

The work involved integrating bistatic radar physics into an enterprise-scale collection modeling framework, enabling trade studies across different sensor configurations, orbital regimes, and coverage requirements.

Technical Contributions

  • Sensor Model Development: Designed and implemented a bistatic radar sensor model capturing transmit-receive geometry, radar cross-section variations, and atmospheric effects
  • Architecture Integration: Integrated the model into existing enterprise mission architecture analysis framework for end-to-end trade studies
  • Legacy Software Interface: Bridged multiple legacy software packages to enable seamless data flow through the analysis pipeline
  • Trade Study Support: Enabled quantitative comparison of surveillance architecture alternatives across different threat scenarios

Leadership

Beyond technical contributions, I led a 5-person Systems Engineering Sub-Team, coordinating technical efforts across mission architecture research deliverables. This involved:

  • Defining sub-team work packages and tracking deliverables
  • Facilitating technical discussions and design reviews
  • Coordinating with other sub-teams to ensure interface compatibility
  • Presenting results to program stakeholders
Team Size 5 engineers

Skills Developed

Radar Systems

Bistatic geometry, radar equation, propagation effects, detection thresholds

Systems Engineering

Architecture trades, requirements flow-down, interface control, verification

Team Leadership

Task coordination, progress tracking, stakeholder communication, technical mentoring

Enterprise Software

Large-scale simulation frameworks, legacy integration, configuration management

Tools & Technologies

Python Radar Modeling Systems Engineering Mission Architecture STK Jira Confluence