Embry-Riddle Aeronautical University
BEYOND THE MOON ACCELERATING AEROSPACE INNOVATION
Aerospace Trailblazers
Aroh Barjatya Ph.D. Professor of Engineering Physics
Goal: Leverage rocket data to understand upper atmospheric changes that impact communication. Riccardo Bevilacqua Ph.D. Professor of Aerospace Engineering Goal: Design flexible spacecraft that autonomously control their motion, in-orbit. Troy Henderson Ph.D. Associate Professor of Aerospace Engineering Goal: Advance space-based camera technology and reduce risks to astronauts. Hever Moncayo Ph.D. Professor of Aerospace Engineering Goal: Devise AI-powered navigational control algorithms and in-space repair systems.
SPACE RESEARCH
Amber Paul Ph.D. Assistant Professor of Aerospace Physiology
Goal: Unravel the cellular mechanisms affected by cosmic radiation damage. Eduardo Rojas Ph.D. Department Chair (EECS), Professor of Electrical and Computer Engineering NSF CAREER AWARD WINNER Goal: Revolutionize space electronics and communications. Jonathan Snively Ph.D. Professor of Engineering Physics NSF CAREER AWARD WINNER Goal: Use the atmosphere and ionosphere as a sensor to learn more about ground-based hazards.
When Inspiration4 blossomed across the night sky, half of the all-civilian crew were alumni of Embry-Riddle Aeronautical University. In addition to producing nine astronauts, Embry-Riddle is also home to EagleCam — a miniature satellite camera system that became the first-ever university student-built project to land on the moon. For the United States to remain at the forefront of the booming global space economy, rapid applied and fundamental aerospace advances remain critical. At Embry-Riddle, researchers are improving space communication, spacecraft control systems and our understanding of the space environment to propel American know-how back to the moon and beyond.
Matthew Zettergren Ph.D. Professor of Engineering Physics NSF CAREER AWARD WINNER
Goal: Understand impacts on the ionosphere through models using real-world physics.
BEST UNDERGRADUATE AEROSPACE ENGINEERING
U.S. News & World Report, 2025-2026
Rocketing Toward Atmospheric Insights Understanding how a solar eclipse sets off a unique pattern of atmospheric waves in the ionosphere is a current goal for Dr. Aroh Barjatya , director of Embry-Riddle’s Space & Atmospheric Instrumentation Lab (SAIL). When the moon partially blocked the sun in 2023, Barjatya, with National Science Foundation (NSF) CAREER Award winner Dr. Matthew Zettergren and their students, blasted three scientific rockets into space. Barjatya designed the multi-institution NASA rocket mission to better understand how changes in the Earth’s upper atmosphere can affect communication in the air and on the ground. Additional rocket launches took place in 2024, during a total solar eclipse.
Accelerating Space Electronics Dr. Eduardo Rojas , National Science Foundation NSF CAREER Award winner, is revolutionizing space electronics by studying material properties, engineering radio-frequency fingerprints and enhancing optical communications hardware. Through his pioneering work, Rojas-Nastrucci is setting the stage for next-generation high-frequency circuits and antennas that function well in harsh environments. His team with Embry-Riddle’s Wireless Devices & Electromagnetics (WiDE) Laboratory investigates the performance of additively manufactured antennae aboard the International Space Station as well as the impacts of lower Earth orbit on deployable antennas for CubeSats.
Understanding the Upper Atmosphere To learn more about the extent and origins of severe weather and other hazards, two NSF CAREER Award winners at Embry-Riddle are leveraging the Earth’s atmosphere and ionosphere as a sensor. Insights gleaned by Dr. Jonathan Snively , director of Embry-Riddle’s Center for Space and Atmospheric Research (CSAR), and Dr. Matthew Zettergren may someday help detect and analyze sources of natural hazards and mitigate their disastrous effects. The research is being performed under a multimillion-dollar fundamental research project with the U.S. Defense Advanced Research Projects Agency (DARPA) as part of the “Atmosphere as a Sensor” (AtmoSense) program.* Embry-Riddle serves as the lead institution for the “AIRWaveS” (Atmosphere-Ionosphere Responses to Wave Signals) team, with collaborators from 10 other universities and three government laboratories.
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Minimizing Health Risks in Space As NASA prepares to send a diverse crew of astronauts to the moon, Embry-Riddle researchers led by Dr. Amber Paul , who holds the Wessel Endowed Chair in Aerospace Physiology, are investigating how cosmic radiation will affect males and females. Such insights are critical as NASA prepares for its Artemis II mission and future spaceflights. Molecular-based research can help unravel the intricate cellular mechanisms affected by cosmic radiation damage, among other hazards associated with spaceflight. Revealing the molecular events that influence human tissues and cells in space and on Earth is the ultimate goal of Embry-Riddle’s Omics Lab for Health and Human Performance.
First University Student-Built Payload on the Moon EagleCam launched aboard a SpaceX Falcon 9 rocket in the early hours of Thursday, February 15, 2024. After an eight-day journey to the moon’s south pole — which began when the lander deployed from the rocket after liftoff — the device arrived at its destination. The mission was part of the United States’ first return to the lunar surface since 1972. On February 22nd, Dr. Troy Henderson’s EagleCam team earned the distinct honor of being the first university student-built payload on the moon. The EagleCam system was collaboratively designed and built by student researchers in the Space Technologies Laboratory at Embry-Riddle. The miniature satellite
camera system was equipped with a variety of technologies aimed at capturing data associated with descent and lunar regolith, or moon dust. Descent imaging, electrodynamic dust shield testing and WiFi hardware for both the EagleCam and lander were focal objectives for the mission.
Technical complications resulted in the system not having the opportunity to acquire images, but the EagleCam team was able to collect data from the deployed system. The mission plan adaptations created a unique opportunity to adjust system parameters and configurations as unanticipated mission scenarios developed, requiring real-time evaluation and decision making. These adjustments enabled the capture and assimilation of datasets that are currently in the process of being analyzed by the research team.
Improved Control for Flexible Satellites Dr. Riccardo Bevilacqua of Embry-Riddle’s Advanced Autonomous Multiple Spacecraft Lab is on a mission. His goal is to enable flexible spacecraft, equipped with either mounting appendages or large membranes, to autonomously control their motion, in-orbit. The project, funded by an Air Force Office of Scientific Research grant, could yield a variety of applications, from repairing damaged satellites, to solar sails and supporting future missions.
Research and Doctoral Programs embryriddle.edu
AI-Powered Systems for In-Orbit Repairs Dr. Hever Moncayo of Embry-Riddle’s Advanced Dynamics & Control Laboratory envisions autonomous systems powered by intelligent, highly precise navigational control algorithms capable of performing in-space repairs. Working with the U.S. Air Force and others at Embry-Riddle’s thriving Research Park, Moncayo — along with Drs. K. Merve Dogan, Morad Nazari and Alan Lovell from the FAST (Foundational Autonomous Systems & Technologies) Lab — is optimizing a robotic arm designed to perform in-space servicing, assembly and manufacturing (ISAM) on spacecraft. The technology uses a vision-based navigation system that employs wireless communication for tracking and formation flight. The group’s algorithm, based on artificial intelligence, also relies on neural network-based machine learning to identify, track and estimate the positions and intent of other nearby flying agents.
EMBRY-RIDDLE AERONAUTICAL UNIVERSITY
EAGLECAM
In February 2024, Embry-Riddle Aeronautical University and the College of Engineering accomplished a historic first. EagleCam — a CubeSat camera system entirely designed and built by students — landed on the moon. EagleCam traveled to the moon aboard the Intuitive Machines Odysseus lunar lander and became the first university student- built payload on the lunar surface. The interdisciplinary project was the culmination of years of hard work and innovation, with contributions from the aerospace, electrical and mechanical engineering disciplines. The CubeSat was developed in our Space Technologies Laboratory, one of the cutting- edge engineering facilities available at our university. Originally designed to take the world’s first third-person selfie of a spacecraft landing on the moon, EagleCam represents our commitment to advancing space technology and humanity’s understanding of the universe. The project has enabled our students to gain firsthand experience with space missions and has demonstrated their exceptional ability to adapt, iterate and persevere under pressure. At Embry-Riddle, the sky is no longer the limit. With talented faculty, modern research laboratories and the support of industry and generous donors, our students are at the forefront of space exploration. From version two of EagleCam to 3D renderings of spacewalks, the future looks bright.
Developed in Embry-Riddle’s Space Technologies Laboratory
2 + Years in the making 25 + Students across six disciplines 100 + Project donors
Contact Us Find out how to partner with the College of Engineering or support its space technology projects. College of Engineering, Daytona Beach Campus Dr. Jim Gregory, Dean gregoj14@erau.edu
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EMBRY-RIDDLE AERONAUTICAL UNIVERSITY
AVIATION ARTIFICIAL INTELLIGENCE/ MACHINE LEARNING
Embry-Riddle Aeronautical University partners with industry and government to deliver Artificial Intelligence and Machine Learning solutions across aviation, aerospace and space systems. From autonomous flight and predictive maintenance to mission planning, cyber resilience and space operations, our applied AI research translates into measurable gains in performance, safety and decision advantage.
$ 19.9 T AI’s projected global economic impact by 2030 (IDC, 2024). $ 4.86 B Global market forecast for AI in aviation by 2030 (PRNewswire, 2025). 88 % Organizations using AI in at least one function (McKinsey, 2025).
Improve Engineered System Performance Enhance satellite orbit prediction accuracy. Predict hypersonic projectile in-flight behavior. Improve decision-making capabilities of autonomous systems. Enhance situational awareness and positioning accuracy through sensor fusion techniques.
Assist with dynamic network management. Optimize the behavior of drone swarms.
Improve Training and Flight Deck Performance Allow trainees to explore alternatives in varied or otherwise cost-prohibitive scenarios. Augment safety actions during unexpected events with onboard, real-time diagnostics. Monitor pilot alertness with eye-tracking technology and cockpit motion detection. Improve Aircraft Maintenance Increase fleet readiness and refine use of reserve aircraft through predictive maintenance. Expedite validation of system updates to speed certification without compromising safety. Improve Flight Operations Enhance safety with autonomous speech and airport taxiway sign recognition. Improve airport taxiing using vision and ranging-based object recognition. Enable crew and air traffic control to negotiate routes between aircraft and onboard route change advisor. Control costs by Improved Sequencing of takeoffs, landings and scheduling. Reduce fuel consumption based on weather trends and near-term predictions. Deploy appropriate Al/ML solutions to enhance the security/cybersecurity of operations.
Contact Us Find out how Embry-Riddle can help your business: Office of Corporate Engagement Rodney Cruise, Chief Operating Officer and Senior Vice President +1 (386) 226.7303 | corporate.engagement@erau.edu
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EMBRY-RIDDLE AERONAUTICAL UNIVERSITY
AIR AND SPACE RESEARCH AND DEVELOPMENT
Embry-Riddle Aeronautical University, the world’s leading aviation and aerospace educator, partners with industry, government and innovators to advance the future of air and space. Through applied research, our teams develop solutions that improve aviation safety, enable advanced air mobility (AAM), strengthen cyber resilience and expand space exploration capabilities.
At Embry-Riddle’s Research Park, researchers and entrepreneurs collaborate to develop technologies shaping the next generation of aerospace systems. Innovators at the park have secured FAA approval to operate drones beyond visual line of sight (BVLOS), advancing the safe expansion of uncrewed aerial systems. Research includes hypersonic material testing, aircraft performance and safety using the university’s subsonic wind tunnel, and AAM focused on integration, autonomy and airspace management. Located adjacent to Daytona Beach International Airport and within an hour of Florida’s Space Coast, the Research Park provides a unique environment for aerospace innovation, testing and collaboration. The Eagle Flight Research Center’s mission is to advance crewed and uncrewed flight through the fusion of theoretical and hardware-based research related to alternative propulsion, flight control, autonomy and the development of novel aircraft. Current areas of interest include green aviation, electric and hybrid-electric propulsion, noise reduction, advanced and urban air mobility and the controls to guide those aircraft. The Advanced Dynamics and Control Laboratory (ADCL) supports research activities focused on the development and implementation of guidance, navigation and control of aerospace systems. This includes performing complex tasks in space using robotic tools and advancing the safety and resilience of next-generation AAM systems. The Astrodynamics and Spacecraft Lab supports cutting-edge research activities related to spacecraft formation flight, on-orbit servicing and space debris removal. The lab is the home of two research groups: ADAMUS (ADvanced Autonomous MUltiple Spacecraft) and ASPROS (Autonomous SPacecraft and RObotic Systems). The Space Technologies Laboratory (STL) conducts research on spaceflight hardware and algorithms, focusing on proximity operations, relative motion, optical navigation, and design capabilities for nano-satellites, directly contributing to small satellite technology development and operation. Research areas encompass various aspects of spaceflight. STL achieved the first university student-built payload on the Moon. The Wireless Devices and Electromagnetics (WIDE) Laboratory researchers work to advance knowledge and applications in connected wireless systems, antennas, sensors and cyber-physical systems. This includes improving the performance of advanced manufacturing techniques for RF and optical communications applications.
$ 153 M+ External funding secured by entrepreneurs in Embry-Riddle’s Research Park # 1
Most Innovative Schools: South U.S. News & World Report, 2025-2026
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Contact Us Find out how Embry-Riddle can help your business: Office of Corporate Engagement Rodney Cruise, Chief Operating Officer and Senior Vice President +1 (386) 226.7303 | corporate.engagement@erau.edu
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EMBRY-RIDDLE AERONAUTICAL UNIVERSITY
AIR AND SPACE RESEARCH AND DEVELOPMENT
Embry-Riddle’s research centers operate as mission-focused, interdisciplinary hubs aligned with strategic aerospace priorities. These high-impact investments enable coordinated, multi-investigator research addressing complex civil and defense challenges in advanced air mobility (AAM), space systems, cybersecurity and aviation safety. By integrating emerging data streams with advanced AI/ML analytics, our researchers enhance risk modeling, mission resilience and system performance across the global aerospace enterprise.
The Boeing Center for Aviation and Aerospace Safety at Embry-Riddle enables collaboration between industry and academia to tackle safety concerns in the increasingly complex aviation ecosystem. Leveraging thought leadership from Embry-Riddle faculty and industry partners, the Center provides innovative paths to improve safety. Through research and industry engagement, the Center provides real-time solutions to the industry, while preparing for the safety challenges of the future. The Center for Aerospace Resilience Systems (CARS) delivers mission-critical resilience solutions enabling aerospace operations in contested, degraded, and uncertain environments. As a nexus for high assurance aerospace research, CARS integrates expertise in AI/ML, cybersecurity, data science, avionics, and resilient systems to address emerging threats to safety-critical aviation and space infrastructure. Supporting national security and industry partners, CARS advances continuity of operations through multidisciplinary research, modeling and simulation, rapid prototyping, advanced and applied software engineering, strengthening mission assurance and operational effectiveness across aviation and space systems. The Center for Space and Atmospheric Research (CSAR) studies planetary atmospheres and space weather, including Atmosphere, Ionosphere, and Magnetosphere (AIM) systems. Its multidisciplinary team combines theory, modeling, observation, and experimentation to advance space and atmospheric science. In the past five years, CSAR researchers have supported more than a dozen sounding rocket launches and contributed instruments to satellites in LEO and on Mars missions. CSAR also conducts state-of-the- art modeling of lower-atmosphere and ionosphere coupling, for which it currently leads a $7.2M ONR Multi-University Research Initiative. Within CSAR, the Space and Atmospheric Instrumentation Lab (SAIL) develops instruments to study planetary atmospheres and near- Earth Space Weather, and is capable of supporting export-controlled research. The Center for Advanced Air Mobility (CAAM) advances the safe and scalable future of next-generation aviation through applied research, workforce development, policy leadership, and technology transition. Leveraging Embry-Riddle’s expertise in safety, engineering, operations, and policy, CAAM addresses key challenges such as autonomy, airspace integration, certification, and environmental performance while supporting defense, government, and industry partners in deploying advanced air mobility systems.
$ 20 M+ Defense research awards across Embry-Riddle’s Centers of Excellence $ 5 M+ Industry‑engaged R&D across Embry-Riddle’s Centers of Excellence
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Contact Us Find out how Embry-Riddle can help your business: Office of Corporate Engagement Rodney Cruise, Chief Operating Officer and Senior Vice President +1 (386) 226.7303 | corporate.engagement@erau.edu
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COLLEGE OF AVIATION
BACHELOR OF SCIENCE IN Space Operations
Embry-Riddle Aeronautical University’s Bachelor of Science in Space Operations equips students with the knowledge and skills necessary to excel in today’s rapidly evolving space industry. This interdisciplinary program bridges the gap between mission operations, policy, safety and human factors, preparing graduates for careers in commercial and governmental space organizations. Through a curriculum developed in collaboration with industry leaders, students gain expertise in space mission design, satellite operations, space policy and human spaceflight. The program emphasizes real-world applications — ensuring graduates are prepared to tackle challenges in space exploration, research and operations. Designed for those passionate about space but seeking a non-engineering program, this degree offers a comprehensive approach to space operations, from launch planning to spacecraft systems to mission execution. With a strong industry demand for space professionals, graduates of this program are well-positioned to secure roles with leading companies, contributing to the future of space exploration and beyond.
Career Opportunities With 100% of B.S. in Space Operations students employed or continuing their education within one year of graduation, Embry‑Riddle graduates are prepared to enter the industry as researchers, launch operations engineers and space systems engineers or continue their education. The average salary is $66,667 for B.S. in Space Operations students employed within one year of graduation.
Institutional Research, 2023-24 Cohort
The Bachelor of Science in Space Operations was crafted by leading experts in the field. With extensive industry experience, our faculty provide a unique real-world perspective that enhances the program, preparing students for successful careers in space operations and related industries.
Alumni Employers Students earning a degree in Space Operations often accept employment offers from top companies, including: s Blue Origin s The Boeing Company s Lockheed Martin s Northrop Grumman s NASA s SpaceX s The U.S. Space Force
The Program Embry-Riddle’s B.S. in Space Operations (BSO) offers a distinct, non-engineering pathway into the space industry, focusing on mission management, policy and human factors. With an industry-aligned curriculum, students gain practical expertise and hands-on experience, ensuring they are well-prepared to meet the evolving demands of commercial and government space operations.
The Embry-Riddle Advantage As a global leader in aviation and aerospace education, Embry-Riddle’s BSO provides students with a dynamic learning experience. Designed to equip future space professionals with essential industry knowledge, the program offers access to expert faculty, state-of-the-art facilities and networking opportunities with top space organizations. With a complete 120-credit-hour curriculum, students engage in immersive coursework and training. Courses cover topics related to the exploration and management of outer space, including satellite launches, spacecraft operations and scientific research. A career in space operations may be an excellent fit for you if you have a strong interest in learning about space missions and exploring planetary science, as well as the wonders of the cosmos. Additionally, those who find interest in studying, building and operating satellites, along with researching the forces and motion in space, will find this field engaging and innovative. The combination of firsthand work and theoretical knowledge makes space operations a dynamic and exciting career choice.
Scan the QR code or visit online to learn more about the B.S. in Space Operations. erau.edu/degrees/ bachelor/space-operations
Learning Outcomes:
Design, plan and execute space missions based on industry practices. Evaluate spacecraft systems, sustainability and safety in space operations. Analyze human spaceflight history, life support and training programs. Examine space policy development and its application. Explore space mission history, program evolution and current trends.
FOR MORE INFORMATION, CONTACT Florida Campus | Daytona Beach daytonabeach@erau.edu 386.226.6100 | 800.862.2416
Disclaimer: This sheet is for informational purposes only. Please refer to the university catalog for course descriptions, policies and other details.
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COLLEGE OF ARTS & SCIENCES
BACHELOR OF SCIENCE IN Space Physics
Embry-Riddle Aeronautical University’s Bachelor of Science in Space Physics offers students a unique opportunity to explore the fundamental forces of nature and the physics governing the universe. As the only undergraduate Space Physics program in the U.S. dedicated to preparing students for scientific missions, this program is ideal for those with strong math and science skills who are passionate about space research. Through rigorous coursework, hands-on research and direct faculty mentorship, Embry-Riddle’s Space Physics program equips students with the skills and knowledge needed to contribute to groundbreaking discoveries in the ever-expanding field of space exploration.
Career Opportunities Embry‑Riddle graduates are prepared to enter the industry as researchers and systems engineers or continue to further their education to become space physicists. The average salary is $60,500 for B.S. in Space Physics students employed within one year of graduation.
The Bachelor of Science in Space Physics, designed by world-class experts with extensive industry experience, offers students a cutting-edge education led by faculty who integrate real-world insights with the latest advancements in space science.
Institutional Research, 2022-23 Cohort
Alumni Employers Students earning a degree in Space Physics often accept employment offers from top companies, including: s Air Force Institute of Technology s The Boeing Company s Lockheed Martin s Harvard-Smithsonian Center for Astrophysics s MIT — Lincoln Laboratory
Courses encompass a diverse array of topics that focus on essential principles, offering students the opportunity to design and conduct experiments while analyzing and interpreting data. Through these courses, learners will explore key models in primary areas of physics, which will enable them to develop the technical expertise required to create new physical models. Additionally, students will gain a comprehensive understanding of the current state of knowledge regarding the physical universe. The Embry-Riddle Advantage As a global leader in aviation and aerospace education, Embry-Riddle’s Space Physics program provides students with a dynamic, hands-on learning experience. Designed to equip future space professionals with essential industry knowledge, the program offers access to expert faculty, state-of-the-art facilities and networking opportunities with top space organizations. With a complete 120-credit-hour curriculum, students engage in immersive coursework and hands-on training, preparing them for careers to study space phenomena.
The Program This dynamic program immerses students in the scientific aspects of space exploration, focusing on planetary sciences, atmospheric physics, aurorae, plasma physics and exoplanetary studies. With guidance from industry-leading faculty, students gain experience with advanced instrumentation and observational techniques to analyze phenomena. With access to state-of-the-art facilities, students develop expertise in experimental physics, data interpretation and theoretical modeling.
s RTX Corporation s The U.S. Military
Learning Outcomes:
Scan the QR code or visit online to learn more about the B.S. in Space Physics. erau.edu/degrees/ bachelor/space-physics
Apply math and science to solve space physics challenges. Conduct experiments using proper research methods. Identify and solve scientific problems. Communicate effectively through reports and presentations. Adapt to new scientific problems with effective learning strategies. Collaborate in teams to lead, plan and achieve goals.
FOR MORE INFORMATION, CONTACT Florida Campus | Daytona Beach daytonabeach@erau.edu 386.226.6100 | 800.862.2416 Arizona Campus | Prescott prescott@erau.edu 928.777.6600 | 800.888.3728
Disclaimer: This sheet is for informational purposes only. Please refer to the university catalog for course descriptions, policies and other details.
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COLLEGE OF AVIATION
MASTER OF Space Operations
Embry-Riddle Aeronautical University’s online Master of Space Operations provides the tools and knowledge necessary to prosper in today’s rapidly evolving space industry. Our cutting-edge program produces graduates with the expertise and professional skills required to develop a comprehensive perspective on the current state of the space ecosystem and its challenges. In this flexible online curriculum, students explore the STEM principles and theory necessary for conducting spaceflight operations and create strategies for developing space capability and executing spaceflight missions. Upon completion of the program, graduates will be subject matter experts prepared to become industry leaders.
Admission The program welcomes students from a variety of backgrounds, such as business, finance, safety, occupational health, the military and more. A STEM background is not necessary to be successful in this program. ALL APPLICANTS NEED A minimum cumulative grade point average (CGPA) of 2.5 A bachelor’s degree from an accredited degree-granting institution Official transcript(s) from the accredited degree-conferring institution(s) Admittance to the program may be granted conditional on completion of selected undergraduate courses specified at the time of admission. Who Can Apply Professionals in the space industry
The Master of Space Operations was specifically designed by a team of world-renowned experts, including Dr. Andy Aldrin, our executive director of space programs. Our faculty have extensive industry experience and expertise, bringing a unique, real-world perspective to the program.
The Program The Master of Space Operations (MSO) provides graduates with the knowledge, skills and abilities necessary for rewarding careers in the growing space industry. The program’s core courses will help students deepen their understanding of the realities of commercial space, space technology, program management, policy, law and business.
The Embry-Riddle Advantage As a leader in online education, Embry-Riddle’s MSO provides students with a top-notch learning experience. The program was created for students seeking to enhance their education without interfering with their work, helping employers develop and retain talent. With a total of 30 credit hours, this flexible degree can be completed in less than two years. Courses are delivered entirely online and can be completed at each student’s preferred pace and order. Courses in the MSO explore topics rooted in domain awareness, technical understanding and functional execution. The interdisciplinary curriculum includes classes ranging from The Launch Industry and Earth Observation and Remote Sensing to Cybersecurity Application in Space and Space Law and Policy. Through these courses, students will understand the unique features of the space domain, gain the knowledge required to contribute substantively and learn the skills to execute space operations.
seeking to further their career. Recent graduates preparing for careers in the space industry.
Scan the QR code or visit online to learn more about the Master of Space Operations. erau.edu/degrees/master/ space-operations
Courses are focused on:
Domain Awareness Technical Understanding Functional Execution
FOR MORE INFORMATION, CONTACT College of Aviation worldwide.erau.edu/mso wwaero@erau.edu 800.522.6787
Disclaimer: This sheet is for informational purposes only. Please refer to the university catalog for course descriptions, policies and other details.
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COLLEGE OF AVIATION
MASTER OF SCIENCE IN Space Systems
Embry-Riddle Aeronautical University’s online Master of Science in Space Systems is strategically crafted to mold individuals into adept program managers who find success in the dynamic landscape of the space industry. This cutting-edge program, offered through the Worldwide Campus, provides essential knowledge and emphasizes the development of professional skills crucial for effective aerospace program management. Through a flexible online curriculum, students explore technological principles and engineering foundations for space operations and engage in strategic planning geared toward cultivating space capabilities and executing complex missions. Graduates emerge as expert professionals, equipped to lead and manage space programs with excellence.
Admission This program welcomes students from STEM and engineering backgrounds who wish to further their education or advance their careers. ALL APPLICANTS NEED A minimum cumulative grade point average (CGPA) of 2.5. A bachelor’s degree from an accredited degree-granting institution. Official transcript(s) from the accredited degree-conferring institution(s). Successful completion of calculus prerequisites with a passing grade of C or higher. Admittance to the program may be granted conditional on completion of selected undergraduate courses specified at the time of admission. Who Can Apply Professionals in the space or engineering industry seeking to further their careers. Recent graduates who aim to become space systems program managers.
The Master of Science in Space Systems was designed by a team of world- renowned experts, including Dr. Andy Aldrin, our executive director of space programs . Our faculty have extensive industry experience and expertise, bringing a unique real-world perspective to the program.
The Program The M.S. in Space Systems allows
The Embry-Riddle Advantage As a leader in online education, Embry-Riddle’s M.S. in Space Systems provides students with a top-notch learning experience. The program was created for students seeking to enhance their education without interfering with their work, helping employers develop and retain talent. With 30 credit hours, this flexible degree can be completed in less than two years. Courses are delivered entirely online and can be completed at each student’s preferred pace and order. Courses explore topics rooted in technical understanding, systems engineering and program management. The interdisciplinary curriculum includes: Four overarching courses intended to provide a background in space policy and law, space market segments, technology, costs and systems engineering. Six systems development courses in which you will develop, analyze and execute the architecture of trade studies for launch, satellite communications, Earth observation, human spaceflight, space science and satellite cybersecurity systems.
students to grow their expertise within the space industry and promotes the skills necessary for career advancement and growth. Throughout the curriculum, students will expand their knowledge of systems engineering, launch systems, satellite communication systems and more. This program welcomes students who are looking to enhance their skills in program management within the business and policy environment.
Scan the QR code or visit online to learn more about the M.S. in Space Systems. erau.edu/degrees/master/ space-systems
Courses are focused on:
Technical Understanding Systems Engineering Program Management
FOR MORE INFORMATION, CONTACT College of Aviation erau.edu/degrees/master/ space-systems wwaero@erau.edu 800.522.6787
Disclaimer: This sheet is for informational purposes only. Please refer to the university catalog for course descriptions, policies and other details.
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