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.
621 Courses SHOWING 577-592
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.
Concepts of organizational management and leadership from a systems and complex systems perspective. Strategic management; organizational transformation; organizational environments. Modeling of marketing, finance, organizational behavior, and strategic and operational management.
A project in systems engineering as a conclusion of the academic coursework for the MSYSE program. Culminate in a written document that will demonstrate the student's proficiency in the chosen project topic and must be of a quality suitable for publication. Pre-Requisite: Students must be admitted to MYSE and must have completed all other program course requirements including the approved elective set.
Broad overview of uncrewed aircraft system (UAS) design. Survey major UAS sub-systems including airframe, propulsion, power, communication, embedded computer hardware/software, detect-and-avoid, automation, and ground control station. Literature and case studies exploring current engineering practices, technologies used, and past lessons learned. Culminates with development of design specification for a UAS given requirements specification and knowledge acquired in the course.
Modeling, design, planning, and control of robotic systems. Robotics and control design decisions specific to uncrewed systems including remotely operated and autonomous uncrewed aerial systems (UAS) and uncrewed space systems. Robotics foundations in kinematics, dynamics, control, motion planning, trajectory generation, programming, telemetry, sensor integration, remote operation, and design. Task and motion planning for utilization within uncrewed system technology.
Overview of major human factors issues associated with uncrewed systems including remotely operated and autonomous uncrewed aerial systems (UAS) and uncrewed space systems operations across a variety of platforms employed in both commercial and military operations. Differences and commonalities between occupied and unoccupied systems with a focus on the human factor issues encountered by individual uncrewed operators (pilots and sensor operators) as well as UAS teams. Human factor issues surrounding uncrewed launch, recovery, long duration operations, fatigue, human performance, Ground Control Station (GCS) design, use of automation, Situation Awareness (SA), Crew Resource Management (CRM), integration into the National Air Space (NAS), attitudes and perspectives of both government agencies and public entities, use of technology to compensate for no-pilot-onboard, and regulatory issues and solutions. Discussions of human capabilities and limitations related to safe and effective operation of uncrewed aircraft and space systems in a variety of commercial and military operations.
Coherent and significant design experience in fabrication of a prototype, and/or publication of refereed article. Emphasizes the synthesis of most of the topics covered in MSUASE degree including design of airframe, innovative propulsion systems, autonomy, guidance, navigation, and control systems, payloads, networking, electronics, advanced manufacturing, as well as systems engineering and end-to-end integration of components and systems in meeting requirements and specifications. An interruption in enrollment is permissible between 691 and 692; i.e. student is not required to enroll in term immediately following UASE 691. If such an occurrence is anticipated, it is recommended that an independent project, rather than team option, be pursued.
Coherent and significant design experience in fabrication of a prototype, and/or publication of refereed article. Emphasizes the synthesis of most of the topics covered in MSUASE curriculum including the design of airframe, innovative propulsion systems, autonomy, guidance and navigation and control systems, payloads, networking, electronics, advanced manufacturing, as well as systems engineering and end-to-end integration of components and systems in meeting requirements and specifications. An interruption in enrollment is permissible between 691 and 692; i.e. student is not required to enroll in term immediately following UASE 691. If such an occurrence is anticipated, it is recommended that an independent project, rather than team option, be pursued.
This course is designed to help students assess and develop the personal, interpersonal, intellectual, and social skills necessary to succeed in college. Study skills, Creative/Critical thinking, presentation, goal setting, career concerns and communication skills will be included. This course is available to freshmen only, and is highly recommended for ALL incoming first-year and transfer freshman students.
A foundation in physics as required to understand uncrewed systems applications such as sensor technology, communication and control interfaces, electro-technical and electronic application design, construction and implementation. Elementary particle theory, field properties, wave propagation, and optical relationships as required for an understanding of applications within the electromagnetic spectrum to include modulation concepts. Analog and digital electronic circuitry to include signal logic, and electromechanical and electromotive devices to include servo applications.
Flight and mission planning in support of task-oriented flying operations; tools, methods, and skills used to support selection, configuration, and application processes during planning, pre-flight, inflight (monitoring and data-gathering), post-flight, and post-processing procedures. Current sUAS systems and operating requirements; navigation concepts and components; system packages that are unique to the environment in which they operate.
This laboratory is dedicated to Uncrewed Aircraft System (UAS) flight planning techniques, procedures, and methods, vehicle specific knowledge, detailed flight plans and procedures. This lab is designed to complement UNSY 235.
Information technology, communications, and frequency spectrum used in conjunction with uncrewed systems around the world. Explore signal processing, communications, interfaces, data links/exchange, FCC regulations, interoperability, and communication standards and protocols associated with robotic systems. Tools and methods used to support development, configuration, and application of uncrewed systems individual and networked operations through communication and information processing of signals and data.
Introduction to the fundamental concepts and commonly applied technology used for uncrewed ground systems (UGS). Exposure to a historical perspective, control fundamentals, control systems, mobility methods, sensor systems, and applications such as agriculture, search and rescue, firefighting, construction, mining, and others. Tools and methods supporting the development, configuration, and application of UGS to conduct operations of appropriate vehicles, sensors, and payloads in terrestrial environments.
Fundamental concepts and commonly applied technology used for uncrewed maritime systems (UMS); historical perspective, control fundamentals, control systems, surface and underwater methods, sensor systems, and applications such as search and locate, inspection, construction, and others. Overview of tools and methods used to support development, configuration, and application of UMS to conduct operations of appropriate vehicles, sensors, and payloads in marine environments.
Uncrewed Aircraft Systems (UAS), Uncrewed Aircraft Vehicles (UAV), and their role in the aviation industry and importance in modern commercial and military integration in airspace, air traffic control; development, operations and applications. Structural and mechanical factors, avionics, navigation, flight controls, remote sensing, guidance control, propulsion systems, and logistical support.
Differentiate the needs of civil aviation for Uncrewed Aircraft Systems (UAS) addressed within national airspace and aviation regulatory constraints; Implement skill sets and tools used to mitigate restrictions; create flight plan operations that can successfully employ UAS.