Engineering–Rocketry
The Engineering–Rocketry activity introduces students to the fundamentals of aerospace engineering through a fully hands‑on design and launch experience. Throughout the module, each student constructs their own small rocket, learning how propulsion, aerodynamics, stability, and material selection influence flight performance. Guided by instructors, they move from initial concept to assembly, testing, and final launch on the last day of the program.
This activity strengthens a wide range of abilities essential to STEP learning. Students develop problem‑solving and critical‑thinking skills as they troubleshoot design challenges and refine their rockets. Their creativity is stimulated through iterative experimentation, while teamwork and communication grow naturally during shared build sessions. Precision, patience, and attention to detail are reinforced through measurement, safety procedures, and structured engineering steps. By the end of the activity, students gain confidence in applying scientific principles to real‑world tasks and experience the excitement of seeing their own engineered creation take flight.
Earth Observation
The Earth Observation session introduces students to the powerful role satellites play in monitoring our planet. Through engaging examples and guided discussion, students explore how modern satellite missions measure key environmental parameters—such as atmospheric composition, land‑surface changes, ocean dynamics, and climate indicators—and why these data are essential for environmental protection and scientific decision‑making. The session highlights major technological advances in remote sensing, demonstrating how today’s instruments provide high‑resolution, continuous, and global coverage that cannot be achieved from the ground alone. Students also learn that satellite observations extend far beyond the atmosphere, offering critical insights into ecosystems, natural hazards, water resources, and the health of oceans and land surfaces.
Participation in this session strengthens several core abilities. Students enhance their scientific literacy, analytical thinking, and data‑interpretation skills while developing a deeper understanding of environmental challenges. Curiosity, digital awareness, and global environmental consciousness are reinforced as they connect satellite technology to real‑world applications.
Space Applications in Everyday Life
The Space Applications in Everyday Life session highlights the many ways space technology supports modern society. Students discover how satellite systems enable global telecommunications, internet connectivity, navigation and positioning services (GPS/GNSS), weather forecasting, transportation safety, and even financial transactions. The session also introduces the rapidly growing space economy, showcasing how satellite data, launch services, and new commercial ventures shape innovation, business, and daily life. Through real examples, students gain a clear understanding that space technology is not distant or abstract—it is embedded in nearly every aspect of contemporary living.
This session strengthens several important abilities. Students enhance their technological literacy and systems thinking as they connect space infrastructure to everyday services. Their analytical and critical‑thinking skills grow as they explore how society depends on space‑based technologies. Curiosity, digital awareness, and problem‑solving are further developed as they consider future applications and the role of space in shaping tomorrow’s world.
Space Sustainability
The Space Sustainability session introduces students to the emerging environmental challenges created by humanity’s increasing activity in space. The discussion covers the environmental footprint of rocket launches, including emissions and material impacts, as well as the growing problem of space debris—defunct satellites, abandoned rocket stages, and fragments that continue to orbit Earth. Students learn how overcrowded orbits threaten active satellites, space missions, and even essential services such as navigation and telecommunications. The session also explains current international efforts to mitigate these issues, including debris‑tracking systems, responsible satellite design, and safe deorbiting practices for end‑of‑life spacecraft.
Participation in this session strengthens several key abilities. Students develop environmental awareness on a global and extra‑terrestrial scale, along with critical‑thinking skills as they evaluate technological and policy solutions. Their systems thinking and problem‑solving abilities grow as they explore how sustainable practices can ensure long‑term, safe, and responsible use of space.
Physics Behind Space Activities
The Physics Behind Space Activities session helps students uncover the fundamental physical laws that govern how space technologies operate. Through clear explanations and interactive demonstrations, students explore how rockets generate thrust, why satellites remain in stable orbits instead of falling back to Earth, and how gravity and motion shape every aspect of spaceflight. Additional topics—such as orbital velocity, re‑entry heating, solar radiation pressure, and how spacecraft use gravity‑assist maneuvers to travel across the Solar System, space weather phenomena—show students that space exploration is deeply rooted in classical mechanics and energy principles. By connecting familiar physics concepts to real space missions, the session transforms abstract theory into meaningful, observable phenomena.
This session strengthens several key abilities. Students enhance their analytical and problem‑solving skills as they apply physical laws to real scenarios. Their scientific reasoning, curiosity, and conceptual understanding grow as they discover how physics explains the behavior of rockets, satellites, and spacecraft throughout the space environment.
Kerbal – Space Mission Simulator
The Kerbal – Space Mission Simulator session introduces students to the fundamentals of space‑mission planning, preparation, and execution through an engaging and enjoyable game‑based environment. Using the Kerbal Space Program simulator, students design rockets, plan orbital trajectories, manage fuel and resources, and attempt real‑world mission scenarios in a playful yet scientifically grounded setting. The session demonstrates how space agencies prepare missions, test designs, and solve unexpected challenges, allowing students to experience the complexity of space exploration in an accessible and motivating way. By experimenting freely, they strengthen both their theoretical understanding of physics and their practical sense of engineering constraints.
This session enhances a wide range of abilities. Students develop strategic thinking, problem‑solving, and decision‑making skills as they plan and adjust missions. Their creativity and resilience grow through trial‑and‑error experimentation, while digital literacy and systems thinking are reinforced as they navigate a realistic simulation environment.
Astronomy – Sun Observation
The Astronomy – Sun Observation session offers students an exciting introduction to observational astronomy by focusing on the most important star for life on Earth—the Sun. Using ACG’s dedicated solar‑safe telescopes and equipment, students gain hands‑on experience in operating astronomical instruments, learning how to align, focus, and safely observe bright celestial objects. They will have the opportunity to capture their own astrophotography images and observe solar features such as sunspots, gaining a first glimpse into solar activity and its influence on our planet. This session serves as an accessible first step into stargazing, helping students understand how astronomers study stars and collect scientific data.
Participation in this activity enhances several key abilities. Students develop observational skills, technical confidence, and attention to detail through telescope handling. Their curiosity, scientific literacy, and understanding of celestial phenomena grow as they connect direct observations with fundamental concepts in physics and astronomy.
Project
The Project session gives students the opportunity to design and carry out their own small‑scale research study on a space‑related topic of their choice. Working closely with instructors, they formulate clear research questions, identify the scope of their investigation, and learn how to approach a scientific problem systematically. Students search for relevant literature, evaluate sources, extract meaningful information, and analyze data or findings from their review. Throughout the process, they are guided to think and act like real researchers—structuring their work, interpreting evidence, and attempting to answer their initial questions through logical reasoning and documented results. This session encourages independence while providing academic support at every step.
Participation in this activity enhances several essential abilities. Students develop research literacy, critical thinking, and analytical skills. Their academic writing, organization, and information‑processing abilities grow, while creativity, curiosity, and scientific confidence are strengthened as they produce their own research‑based outcomes.
Visit
The Visit session offers students a unique opportunity to experience the space industry up close through guided tours of three private companies specializing in satellite construction. During these visits, students meet engineers, researchers, and industry professionals who work daily on designing, building, and testing space‑related technologies. By observing real workplaces and interacting directly with experts, students gain a realistic understanding of how satellites are developed and how diverse the career paths in the space sector can be. The experience helps demystify the field, showing that space‑related jobs are accessible, dynamic, and grounded in teamwork, innovation, and problem‑solving.
This session enhances several important abilities. Students strengthen their communication and interpersonal skills through discussions with professionals. Their career awareness and confidence grow as they explore real job environments. Curiosity, critical thinking, and motivation are reinforced as they connect classroom concepts with real‑world applications and see how scientific and engineering knowledge is used in industry.