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Explore Spaceflight

From physics and mathematics to propulsion, human systems, and mission operations, McCoy delivers complete curriculum systems across every layer of spaceflight. Browse our “Spaceflight” curriculums below and follow the path from fundamentals to mission-level mastery.

Image Credit: NASA

What we offer

60+ Spaceflight Curriculums. One Category.

Below is a sample from Spaceflight alone. McCoy delivers thousands more across engineering, science, mathematics, and medicine, everything needed to build toward real-world space systems.

Orbital transfer diagram showing current orbit, transfer orbit, and target orbit with Burn 1, Burn 2, Δv1, Δv2, and Δv total.

  • Explore how human factors impact spaceflight success, covering astronaut challenges, safety, and system design for optimal crew performance.

  • Explore how 3D printing advances spaceflight by enabling on-demand manufacturing, reducing payloads, and supporting sustainable lunar and Martian missions.

  • Explore adaptive control techniques for spaceflight, enabling robust spacecraft management amid uncertainties and dynamic environments.

  • Master complex orbital rendezvous techniques, optimize mission success, and apply precise maneuvering strategies for advanced spaceflight operations.

  • Explore advanced materials for spacecraft, mastering their properties and applications to enhance spaceflight durability and performance.

  • Explore aerospace materials, their properties, and selection processes to optimize spaceflight performance and safety in this focused course.

  • Explore how AI enhances spaceflight operations, improves mission safety, and enables autonomous decision-making in developing advanced space technologies.

  • Explore cutting-edge asteroid deflection methods, understanding mission planning and technology applications to protect Earth from space threats.

  • Learn how to develop autonomous navigation systems for spacecraft, mastering sensors, algorithms, and real-time decision-making in space exploration.

  • Explore spacecraft avionics systems, gain hands-on knowledge of navigation, communication, and control electronics critical for space missions.

  • Explore the engineering, business strategies, and challenges behind commercial spaceflight, preparing for innovation in space transportation.

  • Explore computational techniques to analyze and optimize fluid flow in spaceflight systems, enhancing vehicle performance and safety.

  • Explore crew safety, cargo handling, and mission logistics in spaceflight to ensure efficient, secure, and successful space operations.

  • Learn to design, build, and deploy CubeSats, gaining practical skills in nanosatellite technology and space mission preparation.

  • Learn how deep space communication systems enable reliable data transmission, signal processing, and autonomous operations in spaceflight missions.

  • Master precise docking and rendezvous methods for space missions, enabling safe, efficient spacecraft alignment and connection in complex environments.

  • Explore cutting-edge electric propulsion systems, their design, and applications to advance spacecraft efficiency and enable new space missions.

  • Explore the design, operation, and safety of extravehicular activity systems to enable effective, secure spacewalks beyond Earth's atmosphere.

  • Learn to analyze and control spacecraft motion, mastering flight stability, maneuvering, and system design for safe, efficient space missions.

  • Learn the principles of orbital mechanics, trajectories, and satellite motion to understand and design spaceflight missions effectively.

  • Learn cutting-edge in-orbit servicing methods, tools, and technology development to enhance satellite lifespans and support sustainable space operations.

  • Explore advanced in-space manufacturing methods to design, fabricate, and optimize materials and components directly in orbit for future space missions.

  • Explore advanced in-space propulsion technologies, understanding system design, performance optimization, and their role in enabling efficient space missions.

  • Explore the science, engineering, and future of traveling between planets. This curriculum covers orbital mechanics, propulsion systems, spacecraft design, mission planning, and the challenges of sustaining human life beyond Earth. From Mars missions to deep space exploration, learners will understand how interplanetary travel works today and what it will take to make it routine tomorrow.

  • Explore the evolution of spaceflight, key missions, and technological breakthroughs to understand how human space transportation developed.

  • Design and analyze launch vehicles, applying engineering principles to optimize performance and ensure safe, efficient space launches.

  • Explore innovative spaceflight tech, lunar landing methods, and mission design principles to advance lunar exploration capabilities.

  • Learn to apply machine learning to satellite data for improved spaceflight analysis, enabling accurate predictions and advanced remote sensing insights.

  • Design and analyze Mars mission architectures, focusing on propulsion, habitat, and logistics planning to enable sustainable interplanetary travel.

  • Analyze microgravity impacts on materials and systems to optimize spaceflight designs and ensure mission success through detailed effects assessment.

  • Learn to evaluate space mission risks using proven strategies, enhancing safety, decision-making, and mission success in spaceflight projects.

  • Explore innovative propulsion technologies, their engineering principles, and their impact on future space exploration capabilities.

  • Learn core principles of nuclear propulsion, including reactor design, safety, and its role in advancing space travel capabilities.

  • Explore the physics of planetary entry, mastering re-entry trajectories, heat shielding, and navigation techniques essential for safe space missions.

  • Explore the legal and regulatory principles shaping space activities, equipping you to navigate compliance and policy challenges in spaceflight.

  • Explore remote sensing techniques tailored for spaceflight, enabling precise Earth observation and data analysis beyond our planet.

  • Learn design, engineering, and operational principles of reusable launch systems to enhance spaceflight efficiency and reduce costs effectively.

  • Learn fundamental satellite communication principles, components, and applications to understand how space-based links enable global connectivity.

  • Learn to operate, troubleshoot, and maintain satellites, gaining crucial skills for spaceflight support and enhancing satellite system longevity.

  • Explore satellite orbit dynamics and constellation design to optimize space-based communication, navigation, and Earth observation systems.

  • Explore how solar energy powers spaceflight technology, enabling sustainable missions and advancing spacecraft efficiency and longevity.

  • Learn spacecraft attitude control methods, gain hands-on skills in orientation and stabilization, and understand their critical role in successful space missions.

  • Explore spacecraft power system design, integration, and management to ensure reliable energy for space missions and advance your spaceflight expertise.

  • Learn to design, analyze, and integrate spacecraft systems to ensure mission success through practical engineering principles and real-world applications.

  • Learn to design and analyze spacecraft thermal systems, ensuring reliable operation in harsh space environments through practical engineering principles.

  • Discover techniques to assess, reduce, and prevent space debris, ensuring safer and sustainable space operations through practical mitigation strategies.

  • Explore the effects of space environment and contamination on spacecraft, emphasizing mitigation strategies and impact on mission success.

  • Explore fundamental aerodynamics principles for spaceflight, including lift, drag, and stability, to optimize spacecraft design and performance.

  • Explore designing, managing, and optimizing spaceflight communication networks to enable reliable interplanetary data transfer and mission success.

  • Analyze the economic and policy factors shaping spaceflight, enabling informed decisions for commercial and governmental space endeavors.

  • Explore spacecraft electrical systems design, integration, and troubleshooting to ensure reliable space missions and advanced spaceflight technology mastery.

  • Learn practical strategies for managing spaceflight projects, enhancing risk mitigation, timeline control, and team coordination in space missions.

  • Learn the essential safety regulations governing spaceflight, ensuring compliance and risk mitigation in crewed and uncrewed missions.

  • Learn to develop and analyze spaceflight simulation models, optimizing mission planning and understanding key aerospace system dynamics.

  • Learn to design, develop, and test spaceflight software systems essential for safe, reliable spacecraft operations and mission success.

  • Explore legal frameworks and ethical issues in spaceflight, equipping you to navigate space law and contribute responsibly to space exploration.

  • Explore methods to assess and mitigate space radiation risks, ensuring safer human and robotic space missions through scientific and engineering strategies.

  • Explore spacecraft robotics, automation systems, and mission design to develop practical skills in spaceflight technology and systems integration.

  • Learn fundamental space station systems, operations, and safety protocols to support effective, real-world spaceflight missions.

  • Explore how space weather impacts spacecraft operations, learning to assess risks and develop mitigation strategies for safe spaceflight.

  • Learn to model and analyze spaceflight systems using simulation techniques to optimize design, enhance safety, and improve mission reliability.

1M more topics to learn with McCoy.

Real People. Real Impact.


”I needed something that could help me think through high-rate manufacturing and building an MES around ArsenalOS, the factory as the weapon. McCoy already had exactly what I was looking for. The depth, structure, and speed were honestly surprising. It gave me a clear path to move faster and think bigger.”

— Jeremiah Lewin, Lead Designer, ArsenalOS @ Anduril Industries
Photo Credit: NASA/Robert Markowitz & Joel Kowsky