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Threat Missile Radar Cross Section Modeling Engineer 2

Threat Missile Radar Cross Section Modeling Engineer 2

CompanyNorthrop Grumman
LocationColorado Springs, CO, USA
Salary$81300 – $121900
TypeFull-Time
DegreesBachelor’s, Master’s
Experience LevelJunior, Mid Level

Requirements

  • Bachelor’s Degree in a STEM (Science, Technology, Engineering or Mathematics) discipline from an accredited university and 2 years of related experience, or a Master’s degree in a STEM discipline and 0 years experience
  • Must already possess an active DoD Secret clearance
  • Ability to collaborate with systems engineers, software engineers, model end users, and MDA Ground Test stakeholders to ensure RCS model requirements are met
  • Understanding of electromagnetic energy transmission, reflection, and scattering
  • Strong knowledge of Radar principles and Radar Cross Section models
  • Ability to develop Radar Cross Section signature models from specifications
  • Experience using Computer Aided Design (CAD) tools and models
  • Understanding of the flight characteristics, motion, and performance of missile systems
  • Experience with verification and validation of RCS simulation results
  • Must be self-motivated, able to work in a dynamic team environment

Responsibilities

  • Develop, analyze and Quality Control RCS models
  • Produce RCS signatures
  • Be responsible for the verification and validation of RCS signatures
  • Understand RCS models and adjust them to work within the TMC’s RCS generation framework
  • Understand and verify RCS results
  • Provide documentation required for running threat data in Ground Test architectures
  • Support the Missile Modeling team on Schriever Space Force Base

Preferred Qualifications

  • Experience modeling missile Radar Cross Section signature representations
  • Ability to run method of moments codes
  • Experience developing FACET models from CAD
  • Understanding and experience with High Performance Computing architectures
  • Ability to reduce simulation outputs to RCS averages and scattering point representations