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Astrodynamics Software Engineer Jobs in Colorado

Data Science Engineer

Westminster, CO · On-site

$100K - $140K/yr

You will work closely with astrodynamics and embedded-systems teams to ensure that models reflect ... Strong software-engineering discipline sufficient for a shared codebase, including version control ...

GNC Engineer, RPO

Denver, CO · On-site

$90K - $250K/yr

We build autonomous spacecraft, advanced payloads, mission software, and space-based interceptors ... astrodynamics, estimation theory, trajectory optimization, planning and scheduling algorithms ...

... Astrodynamics * o Guidance, Navigation, and Control * o Electrical Engineering * o Communications Systems * o Thermal Engineering * o Embedded Software * o Propulsion * Experience with Git or other ...

Showing results 41-60

Astrodynamics Software Engineer information

See Colorado salary details

$66.8K

$155.1K

$216.1K

How much do astrodynamics software engineer jobs pay per year?

As of Aug 8, 2026, the average yearly pay for astrodynamics software engineer in Colorado is $155,124.00, according to ZipRecruiter salary data. Most workers in this role earn between $126,200.00 and $181,900.00 per year, depending on experience, location, and employer.

What are the key skills and qualifications needed to thrive as an astrodynamics software engineer, and why are they important?

To thrive as an Astrodynamics Software Engineer, you need a strong background in orbital mechanics, mathematics, physics, and software development, typically supported by a degree in aerospace engineering, physics, or computer science. Expertise in programming languages (such as C++, Python, or MATLAB), experience with simulation tools, and familiarity with astrodynamics libraries are essential, along with relevant certifications or project experience. Strong problem-solving skills, attention to detail, and effective teamwork and communication abilities help you excel in this field. These skills enable the accurate modeling, analysis, and implementation of space missions, ensuring mission success and the development of reliable spaceflight solutions.

What are some typical challenges faced by astrodynamics software engineers when developing mission planning tools?

Astrodynamics Software Engineers often encounter challenges related to the high precision required in modeling spacecraft trajectories and orbital mechanics. These roles frequently involve integrating complex mathematical algorithms with robust software architectures, ensuring both accuracy and computational efficiency. Collaboration with multidisciplinary teams—such as mission analysts, guidance and navigation experts, and systems engineers—is essential to align software functionality with mission requirements. Staying current with advances in astrodynamics models and simulation frameworks is also important for success in this dynamic field.

What is the difference between Astrodynamics Software Engineer vs Aerospace Systems Engineer?

AspectAstrodynamics Software EngineerAerospace Systems Engineer
Required CredentialsBachelor's or Master's in Aerospace, Mechanical, or related fields; programming skillsBachelor's or Master's in Aerospace, Mechanical, or related fields; systems engineering knowledge
Work EnvironmentDevelops algorithms for satellite trajectory, orbital mechanics, simulation softwareDesigns and integrates aerospace systems, including propulsion, avionics, and structural components
Employer & Industry UsageSpace agencies, satellite companies, aerospace firmsAircraft manufacturers, space agencies, defense contractors

While both roles require aerospace knowledge and engineering skills, Astrodynamics Software Engineers focus on satellite trajectories and orbital calculations, whereas Aerospace Systems Engineers work on designing and integrating entire aerospace systems. The choice depends on whether you prefer software development for space missions or broader system engineering in aerospace projects.

What is an astrodynamics software engineer?

Astrodynamics Software Engineers are specialized professionals who develop and maintain software tools and algorithms to predict and analyze the motion of objects in space, such as satellites, spacecraft, and debris. They use principles of physics, mathematics, and computer science to model orbital mechanics and support mission planning, navigation, and tracking. Their work is crucial to ensuring the success and safety of space missions by providing accurate trajectory predictions and solutions for complex space operations.
What are popular job titles related to Astrodynamics Software Engineer jobs in Colorado? For Astrodynamics Software Engineer jobs in Colorado, the most frequently searched job titles are:
What job categories do people searching Astrodynamics Software Engineer jobs in Colorado look for? The top searched job categories for Astrodynamics Software Engineer jobs in Colorado are:
What cities in Colorado are hiring for Astrodynamics Software Engineer jobs? Cities in Colorado with the most Astrodynamics Software Engineer job openings:
Infographic showing various Astrodynamics Software Engineer job openings in Colorado as of August 2026, with employment types broken down into 88% Full Time, 8% Part Time, and 4% Contract. Highlights an 88% Physical, 3% Hybrid, and 9% Remote job distribution, with an average salary of $155,124 per year, or $74.6 per hour.

Data Science Engineer

Judge Group, Inc.

Westminster, CO • On-site

$100K - $140K/yr

Other

Posted 8 days ago


Job description

Location: Westminster, CO Salary: $100,000.00 USD Annually - $140,000.00 USD Annually Description: Our client is currently seeking a Data Science Engineer
Location: Onsite in Westminster, CO
Salary Range: $90K-$110K
About the Role
Our client is an innovative and mission-focused organization seeking an experienced, driven Data Science Engineer. In this role, you will develop the machine-learning components and integration infrastructure that support the company's space domain awareness (SDA) analytics pipelines. Across various programs, you will build trajectory-classification and anomaly-detection models that operate on orbit-determination output. You will also build and maintain the benchmarking and evaluation frameworks necessary to ensure these pipelines perform accurately under sparse, gapped, and noisy observation conditions.
A strong emphasis is placed on characteristics that determine real-world operational value: managing false-positive behavior under degraded observations, calibrating confidence metrics suitable for operator use, and ensuring inference costs remain compatible with constrained onboard processing. You will work closely with astrodynamics and embedded-systems teams to ensure that models reflect genuine dynamical structures and can be successfully deployed within strict onboard resource limits.
Why Join Us?
Impact: Be part of a collaborative, innovative, and mission-focused environment where your ideas and skills have a significant, real-world impact.
Growth: Help shape the company culture, set the foundation for future success, and build world-class teams.
Compensation: Enjoy a competitive salary, comprehensive benefits, and an attractive equity package.
Responsibilities
Develop AI/ML models for trajectory classification across various orbit regimes and families, and for the detection of anomalous dynamical behavior.
Integrate and maintain end-to-end analytical pipelines spanning observation processing, hypothesis generation, orbit estimation, propagation, and classification.
Define system interfaces and take full ownership of a shared, reproducible codebase.
Build benchmarking and evaluation frameworks to measure estimator convergence behavior, classification accuracy and confusion structure, false-positive/negative characterization, time-to-custody, and sensitivity to track gaps and elevated measurement uncertainty.
Design experiments that distinguish genuine model generalization from dataset artifacts-including held-out families, degraded-observation ablations, and cross-checks against independent reference datasets.
Produce calibrated confidence metrics suitable for downstream operational use, documented precisely enough to support critical operator decisions.
Partner with embedded-systems staff to characterize model complexity, memory footprint, and inference latency; identify quantization, pruning, or architectural simplifications that meet deployment constraints.
Contribute machine-learning expertise to CONOPS and systems-engineering activities, including data-flow definition, model lifecycle and retraining considerations, and the identification of critical technology elements.
Minimum Qualifications
BS or MS in Computer Science, Applied Mathematics, Statistics, Aerospace Engineering, Physics, or a related quantitative field.
4+ years of applied machine learning experience (or equivalent).
Strong proficiency in Python and the scientific stack (NumPy, SciPy, pandas).
Fluency in at least one deep-learning framework (PyTorch is strongly preferred).
Demonstrated experience building ML systems on time-series, sequential, or state-estimation-adjacent data, rather than just tabular or vision benchmarks.
Sound understanding of evaluation methodology, including class imbalance, calibration, uncertainty quantification, and the failure modes of small or synthetically generated datasets.
Strong software-engineering discipline sufficient for a shared codebase, including version control, testing, reproducible environments, and documented interfaces.
Clear technical writing skills for producing high-quality customer-facing deliverables.
Must be able to obtain and hold a U.S. security clearance.
Preferred Qualifications
Experience with physics-informed ML or hybrid approaches that embed dynamical structure into learned models.
Familiarity with orbit determination, tracking, or multi-target data association (e.g., JPDA, MHT, or similar).
Prior experience with model compression, quantization, or deployment to constrained and embedded targets.
Prior work on government R&D programs (SBIR/STTR, AFRL, DARPA, Space Force) and familiarity with Technology Readiness Level (TRL) terminology.
Experience with anomaly detection in environments where anomalies are rare, poorly labeled, or defined purely by a physical model.
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This job and many more are available through The Judge Group. Please apply with us today!