Course Search
Find the right course to fit your academic goals, as well as your lifestyle
This Course Search is intended for prospective students to explore what Embry-Riddle Worldwide has to offer. New and returning students, please use this tool only in conjunction with academic advising, as well as your Degree Map and Academic Requirement Report. Note: All course information is subject to change at any time.
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Find the right course to fit your academic goals, as well as your lifestyle
This Course Search is intended for prospective students to explore what Embry-Riddle Worldwide has to offer. New and returning students, please use this tool only in conjunction with academic advising, as well as your Degree Map and Academic Requirement Report. Note: All course information is subject to change at any time.
592 Courses SHOWING 1-16
Open a course to find the Format / Location, Class Start / Finish, and Day / Time, that is right for you, then print or email your choice to save the Class Number for when you're ready to register.
An examination of aviation/aerospace’s interaction with the world from the viewpoint of positive and negative effects. Short term and long-term effects will be investigated to highlight the significant challenges associated with forming a sustainable future for the industry by examining case studies and best management and technology practices.
Investigate sustainable operations of aviation and aerospace organizations. Analyze how the distinctive operations of aviation and aerospace organizations could move along with sustainability practices. Sustainable strategies must be a core element within aviation and aerospace organizations; the development of a sustainable strategy should consider the distinctive characteristics of the industry and the interactions among its stakeholders.
Aviation and aerospace industries today reach across cultural and international boundaries. This course addresses the global aspects of building and sustaining the aviation and aerospace workforce by examining staffing techniques, cross-cultural communications, diversity, workforce development and social equity.
Successful sustainability solutions stretch across many disciplines in any industry. This course examines the need to apply an interdisciplinary
methodology to solving sustainability concerns for aviation/aerospace industries. Appropriate technical solutions are best derived through
collaboration and appreciate of diverse contributions; a systematic process. Communication across teams, organizations, regulatory authorities and the general public is stressed in the course
Systems in aviation and aerospace are complex and diverse across many global platforms. This course investigates the design, development and maintenance of not only aerospace vehicles, but the systems needed to maintain them, through application of forward thinking engineering, environmental and management practices to determine sustainable solutions.
The MSAAS Capstone Course is the culminating effort of the student's entire learning experience. The student will complete an individual project that provides significant evidence of experience in aviation and or aerospace studies. Students will work with designated faculty to formulate, develop, and complete the aviation and or aerospace sustainability project. The completion of the Capstone Course is designed to document significant evidence that all Program Outcomes have been met. The Capstone Course will be taken at the end of the student's degree program.
Analysis of stress and deformation in rods, beams, plates, shells and solids using the elementary theories of elasticity and plasticity. Theories of strength, impact, fatigue and creep. Computer methods and applications.
Vibrations of deformable elastic structures using the assumed modes method. Analysis of a continuous system for specialized cases. Undamped and damped free and forced vibration of single-degree-of-freedom and multiple-degree-of-freedom system. Computer programming skills are necessary.
Introduction to mechanical behavior of common aerospace materials as it relates to structural performance. Methods for strengthening and toughening of metals ceramics and composites. Materials selection basics using functions, constraints, objectives. Ashby materials property charts. Materials selection with multiple constraints and conflicting objectives and shape factors. Designing hybrid materials and composites. Case studies from general and aerospace engineering. Course project
Basic equations of the theory of elasticity. Energy principles. Formulation and assembly of stiffness matrices and load vectors for elastic solids. Modeling considerations. Solution methods Computer implementation of finite element and stress analysis procedures. Interpretation of computer solutions. Design applications.
Fiber materials, tapes cloths, resin systems. Theory of elastic anisotropic materials. Elastic constants for multi-ply composites. Matrix formulation. Computer analysis. Strength and theory of failure. Sources and use of experimental data. Design considerations.
Review of numerical optimization techniques. Structural applications of linear and discrete methods, approximation techniques and sensitivity analysis, shape and topology optimization. Optimality criteria methods. Applications to trusses, frames and composite laminates. Optimization simulations using computer graphics software. Emphasis on modern optimization techniques linked to numerical methods of structural analysis (finite element method) through a structural design course project.
General introduction of structural health monitoring and nondestructive evaluation techniques of mechanical and aerospace structural components. Passive and active damage analysis through intelligent actuation and sensing systems. Damage detection, diagnosis, and prognosis are discussed utilizing signal processing techniques and physics based approaches.
Bending and buckling of plates. Cylindrical bending. Boundary value problems. Axisymmetric problems. Deformation of shells. Energy principles. Stress and stability analysis. Approximate methods. Finite element methods. Computer applications.
This course includes a history of atmospheric flight, properties of the atmosphere, concepts of fluid flows, dimensional analysis, airfoil and wing aerodynamics, propulsion including reciprocating and gas turbines, airplane performance, and stability and control.
This course is an introduction to general aeronautics. It includes the study of physical mathematics, weight and balance, government regulations regarding aircraft maintenance, common and special tools and measuring devices, fluid lines, hardware, aircraft servicing, and documentation.
