ISRT & BMC2 Modeling Engineer & Analyst

The Johns Hopkins University Applied Physics Laboratory; Laurel (MD); On-site; USD 100,000 - 245,000; Full time

Job summary

The Johns Hopkins University Applied Physics Laboratory (APL) seeks a Modeling and Simulation Engineer/Analyst for ISRT and BMC2 applications in Laurel, MD. You will develop and test mathematical models, simulate sensor data, and contribute to mission-level analyses to support national security objectives.

You will work in a collaborative environment applying Python, MATLAB, C++, and modern M&S tools, with opportunities to advance security-clearance and impact by shaping next-generation ISR

Qualifications

• Bachelor's degree in a technical or scientific field.
• At least five years of Modeling and Simulation experience.
• Experience with MATLAB, Python or C++ in Linux.
• Strong communication and collaboration skills.
• Experience with version control (Git/GitLab).
• U.S. citizenship and ability to obtain security clearances.

Responsibilities

• Develop mathematical/physics-based models and simulations.
• Contribute to ISRT and BMC2 concepts and architectures.
• Learn sensing systems and update models.
• Implement multi-sensor data fusion and resource optimization in simulations.
• Perform software-in-the-loop testing for field tests.
• Document and present results to sponsors and decision makers.

Skills

Modeling & Simulation

Python

MATLAB

C++

Linux

Communication

Education

Bachelor's degree in technical/scientific field

Master's or PhD preferred

Tools

AFSIM

STK

Git/GitLab

Job description

The Johns Hopkins University Applied Physics Laboratory (APL) seeks a Modeling and Simulation Engineer/Analyst for ISRT and BMC2 applications in Laurel, MD. You will develop and test mathematical models, simulate sensor data, and contribute to mission-level analyses to support national security objectives.

You will work in a collaborative environment applying Python, MATLAB, C++, and modern M&S tools, with opportunities to advance security-clearance and impact by shaping next-generation ISR