Aerospace Engineering
Aerospace engineering is a branch of engineering that focuses on the design, development, testing, and production of aircraft, spacecraft, and related systems and equipment. It involves the study of aerodynamics, propulsion, materials science, avionics, control systems, and other areas relevant to the creation of aerospace vehicles.
Key aspects of aerospace engineering include:
- Aerodynamics: Study of the behavior of air as it interacts with solid objects, particularly the design of wings and other aerodynamic surfaces to achieve efficient lift and control.
- Propulsion: Involves the design and development of engines and propulsion systems to generate the necessary thrust for aircraft and spacecraft movement. This includes jet engines, rocket engines, and other propulsion technologies.
- Structural Design: Focuses on designing the physical structure of aerospace vehicles, ensuring they can withstand the forces and stresses experienced during flight and other operational conditions.
- Materials Science: Involves the selection and development of materials with suitable properties for aerospace applications. This includes considerations for strength, weight, heat resistance, and other factors.
- Control Systems: Designing systems to control the motion and stability of aerospace vehicles, including navigation, guidance, and control mechanisms.
- Avionics: Integration of electronic systems, including communication, navigation, and instrumentation, to enhance the performance and safety of aerospace vehicles.
- Orbital Mechanics: Pertains to the study of the motion of objects in space, particularly the trajectory and behavior of spacecraft in orbit.
Aerospace engineers work in various industries, including the design and manufacturing of commercial and military aircraft, satellites, spacecraft, and unmanned aerial vehicles (UAVs). They also contribute to research and development efforts aimed at advancing the technology and efficiency of aerospace systems. The field is interdisciplinary, drawing from mechanical engineering, electrical engineering, and other related disciplines.
... and yes, we are rocket scientists.
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Subcategories
Aerospace Engineering Calculators and Collections
Aerospace Engineering Equations
- Angle of Satellite Visibility eng Use Equation
- Circular Orbit Velocity using r only MichaelBartmess Use Equation
- Circular Orbit Velocity using R_E MichaelBartmess Use Equation
- Circular Orbit Velocity using `mu` MichaelBartmess Use Equation
- Correction Angle KurtHeckman Use Equation
- Distance to Sea Level Horizon KurtHeckman Use Equation
- Drag Force Anastase Use Equation
- Dynamic Pressure MichaelBartmess Use Equation
- Elijah velocity Eli Use Equation
- Force of Drag KurtHeckman Use Equation
- Force of Lift MichaelBartmess Use Equation
- Force Unit Conversion KurtHeckman Use Equation
- Glide Ratio EmilyB Use Equation
- Graveyard Orbit EmilyB Use Equation
- Grazing Angle (Earth) vCollections Use Equation
- Ground Speed KurtHeckman Use Equation
- Haversine - Distance KurtHeckman Use Equation
- Hydrostatic Equation (dry air approximation) MichaelBartmess Use Equation
- Lift Coefficient KurtHeckman Use Equation
- Orbit Period of Circular Orbit MichaelBartmess Use Equation
- Slant Range KurtHeckman Use Equation
- Slant Range (Beta) KurtHeckman Use Equation
- Stoke's Law (drag force) KurtHeckman Use Equation
- TLE Checksum MichaelBartmess Use Equation
- Travel Time between Coordinates KurtHeckman Use Equation
- Velocity Needed for Takeoff KurtHeckman Use Equation
- Velocity Through Air MichaelBartmess Use Equation
- Velocity Unit Conversion KurtHeckman Use Equation
- Wind Corrected Azimuth MichaelBartmess Use Equation
- Wing Air Velocity KurtHeckman Use Equation
- Wing Surface Area KurtHeckman Use Equation
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