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Computational Astrophysics Jobs (NOW HIRING)

$60K/yr

In addition to ICC, the Flatiron Institute hosts the Centers for Computational Astrophysics, Computational Biology, Computational Mathematics, Computational Quantum Physics, and Computational ...

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How much do computational astrophysics jobs pay per hour?

As of Sep 14, 2026, the average hourly pay for computational astrophysics in the United States is $16.76, according to ZipRecruiter salary data. Most workers in this role earn between $13.22 and $17.55 per hour, depending on experience, location, and employer.

What is computational astrophysics?

A Computational Astrophysics job involves using numerical simulations, algorithms, and data analysis techniques to study astrophysical phenomena. Scientists in this field develop and run complex computer models to understand the behavior of celestial objects, such as galaxies, stars, and black holes. They also analyze large datasets from telescopes and space missions to test theoretical predictions. The job requires expertise in physics, mathematics, and programming, often using languages like Python, C++, or Fortran. Computational astrophysicists work in academia, research institutions, and space agencies, contributing to our understanding of the universe.

What types of projects or research topics do computational astrophysicists commonly work on?

Computational astrophysicists are often involved in simulating galaxy formation, modeling the behavior of black holes, analyzing large-scale cosmic structures, and interpreting data from telescopes or space missions. These projects typically require developing and running complex algorithms to model physical processes that are not easily studied through observation alone. Day-to-day responsibilities may include writing code, debugging simulations, analyzing large datasets, and collaborating closely with observational astronomers and theoretical physicists. Working in this field offers exposure to cutting-edge research and opportunities to contribute to significant scientific discoveries.

What are the key skills and qualifications needed to thrive in computational astrophysics, and why are they important?

To thrive in computational astrophysics, a deep understanding of physics, mathematics, and computer science is essential, typically supported by an advanced degree in astrophysics or a related field. Proficiency with programming languages such as Python, C++, and MATLAB, as well as experience using high-performance computing clusters and scientific data analysis tools, is highly valuable. Critical thinking, strong problem-solving abilities, and effective communication are key soft skills for collaborating within cross-disciplinary teams and presenting complex results. These skills are vital for effectively modeling, simulating, and interpreting astrophysical phenomena in a fast-evolving research environment.

Is computational astrophysics worth it?

Computational astrophysics is a valuable field that involves using high-performance computing and programming skills to simulate and analyze astronomical phenomena. It offers opportunities in research, academia, and industry, often requiring strong backgrounds in physics, mathematics, and programming languages like Python or C++. The field can be rewarding for those interested in scientific discovery and technological development.

What do computational astrophysicists do?

Computational astrophysicists develop and use computer models, simulations, and data analysis techniques to study astronomical phenomena such as star formation, galaxy evolution, and cosmology. They often work with programming languages like Python or C++, utilize high-performance computing resources, and collaborate with observational and theoretical scientists to interpret data and test hypotheses.
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Infographic showing various Computational Astrophysics job openings in the United States as of September 2026, with employment types broken down into 4% Internship, 55% Full Time, 40% Part Time, and 1% Contract. Highlights an 55% Physical, 2% Hybrid, and 43% Remote job distribution, with an average salary of $34,865 per year, or $16.8 per hour.

Astrophysics Instructor Summer 2026

Stanford, CA • On-site

Education Unlimited
Elementary and Secondary Schools • 11 - 50 employees

$1.4K - $1.6K/wk

Temporary

Re-posted 7 days ago


Key responsibilities

  • Teach astrophysics concepts to middle and high school students during summer programs.

  • Deliver interactive and collaborative lessons on topics such as the origins of the universe, stellar evolution, relativity, black holes, and cosmology.

  • Guide students in making astronomical observations, exploring scientific tools like spectroscopy, and engaging in real-world research projects.


Job description

Education Unlimited® provides academic summer camps & pre-college summer programs for students entering grades 4-12. Our summer programs include public speaking camps, college admissions prep programs, science camps, summer acting camp, writing camps, computer camp, leadership camp, video production camp, and college tours.

  • Housing, meals, travel and salary will be provided
  • Average class size of 12 students
  • Applications are currently being accepted for the below positions: Instructors may be hired for one or more than one week. The application will give you the opportunity to indicate for which weeks and locations you are interested and available.

Schedule

Instructors are hired by week and can be hired for a single week or multiple weeks.  You will have an opportunity to indicate on the application your weeks of availability. Below is the full summer schedule.  For in person camps, housing, meals and a travel stipend are provided. 

Astrophysics & Quantum Mechanics – Summer 2026
  • Astrophysics (Gr 9–12, Online): June 8–13
  • Astrophysics (Gr 6–8, Online): June 15–19
  • Astrophysics (Gr 6–8, Berkeley): June 21–26
  • Astrophysics (Gr 9–12, UCLA): July 5–11
  • Quantum Mechanics (Gr 9–12, Online): July 6–10
  • Astrophysics (Gr 9–12, Online): July 13–17
  • Astrophysics (Gr 6–8, Georgetown): July 12–17
  • Astrophysics (Gr 9–12, Georgetown): July 19–25
  • Astrophysics (Gr 6–8, Online): July 20–24
  • Quantum Mechanics (Gr 10–12, Stanford): July 19–25
  • Astrophysics (Gr 6–8, UCLA): July 26–31
  • Astrophysics (Gr 9–12, Stanford): July 26–Aug 1
  • Astrophysics (Gr 9–12, Online): July 27–31
  • Astrophysics (Gr 6–8, Stanford): Aug 2–7

Middle School Course Description: 

In Intro to Astrophysics, students will learn about the origins of the universe and the physics of the cosmos. We will begin with structures like planets, stars and galaxies, and then explore tools that scientists use to understand how the universe works. Once we have grasped the basics, we can begin to consider astrophysical topics like relativity, dark matter and black holes! We will also investigate the wide range of careers in space, from astronauts to on-the-ground technical experts and researchers.

This course will be interactive and often collaborative, as scientists rarely uncover the mysteries of the universe alone! As the physics of light is fundamental to astronomy, we will explore optics and spectroscopy through hands-on explorations and virtual labs. Fundamental rocketry and aerospace concepts will be highlighted as we discuss how humans have ventured beyond Earth. Students will make astronomical observations and learn how they can contribute to real-world research while still in middle school!
The week begins at the very start of our universe as students explore its foundational cosmic beginnings. From the Big Bang to stellar evolution, campers dive deep into brain-bending questions like "How big is space?" As the week continues on, students answer these principal questions through exploration of how we see into space itself, shedding light on the electromagnetic spectrum and learning about tools like Spectroscopy, which is the study of the absorption and emission of light and other radiation by matter. The week builds toward examination of relativity, black holes, and the remaining mysteries of the cosmos that scientists are trying to decode today.

High School Course Description: 

Beginning from the cosmic chaos, astrophysics will delineate the foundation goals of the field by tracing the evolution of the universe from its origins through to modern times and probing into its future fate. 

Students will delve into the depths of the cosmos to push their understanding to the very frontier of the unknown, and perchance beyond that! Students embarking on this adventure will be introduced to the wave-particle duality of light, radiation, and stellar evolution, illuminating their curiosities in the process. They will then explore advanced topics in cosmology such as supermassive black holes, spacetime fabric, and mapping the large-scale structure of the cosmos. Studies will culminate with Einstein’s Theory of Relativity. 

The curriculum is supported by computational simulations of dark matter and galactic formation, physical demonstration, student-led discussions, and thought experiments. Observational astronomy will be interlaced into the course using solar and night sky observational telescopes, focusing on techniques for identifying the constellations and naked-eye astronomy. Students will pursue their final research in a self-selected specification of interest. Projects vary but are all relevant to modern professional research and exploration, such as observational astrophysics, astroparticle physics, or physical cosmology. Their final research projects will incorporate real data from working telescopes and research laboratories. 

Quantum Mechanics Course Description

This course aims to provide students with a comprehensive understanding of the fascinating world of quantum mechanics, starting with a brief overview of classical physics. The course will explore the revolutionary ideas of Max Planck, who introduced the concept of quantization, which challenged the traditional view of continuous energy and matter.

The course will then delve into the quantum view of the atom, which laid the foundation for the development of quantum mechanics. Students will learn about the Heisenberg uncertainty principle, which fundamentally changed our understanding of the nature of matter and energy, and the limits of our ability to measure them accurately.

The course will then focus on the even stranger world of quantum mechanics, where probability wave functions and the concept of parallel universes will be introduced. Students will learn how these concepts are fundamental to the theory of quantum mechanics, and how they challenge our traditional understanding of reality.

Throughout the course, the interplay between philosophy, culture, and physics will be explored. Students will learn about the historical context of quantum mechanics, and how it has come to influence so much of popular thought. They will also gain an understanding of how quantum mechanics has given rise to new philosophical and cultural ideas, and how these ideas continue to shape our understanding of the world.

Overall, this course offers students an opportunity to explore one of the most fascinating and fundamental areas of physics, and to gain an appreciation for the profound implications of quantum mechanics for our understanding of the universe and our place in it.

Responsibilities

Education Unlimited seeks energetic and experienced Astrophysics instructors for our fun, activity-based summer programs.

In-person Camp Responsibilities include teaching the Education Unlimited curriculum, supervising campers both in and out of the classroom, organizing and leading classroom labs, and executing a finale showcasing student work at the end of camp. Instructors will also be responsible for tracking student work and handing in any deliverables to the camp director and EU home office. 

In addition to teaching responsibilities, instructors should be available and willing to assist the camp director with active supervision, recreational activities, and some administrative tasks. Instructors should be mature, reliable, and able to work well with fellow staffers. Instructors are also expected to act as mentors and will be asked to assist with field trips and guide students on excursions. With the support of the entire staff, instructors are responsible for the health and safety of students, in addition to fulfilling instructional objectives.

At all overnight programs, instructors have the option of commuting to camp each day or staying overnight on campus. Overnight staff members will receive full room and board and will be expected to help with evening supervision duties.

Qualifications:

Instructors are usually year-round science teachers, are studying science at the graduate level, or have some other significant teaching/mentoring experience in the area of astrophysics. 

  • 2+ years' experience teaching astrophysics or significant subject matter knowledge.
  • Experience working with middle or high school-age students in an academic setting preferred
  • Bachelor's degree is required; preference is given to those with an advanced degree.
  • A passion for science education.
  • A calm and professional demeanor.
  • Self-motivation and follow-through.
  • Strong organizational skills and attention to detail.

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