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2008–2009 - Florida Institute of Technology

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inversion, ODE solution, root finding, numerical integration and matrix inversion.<br />

(Requirement: Prerequisite courses or instructor approval.) Prerequisites: CSE 1502<br />

or CSE 1503, MAE 3061 or MAE 3161, MAE 3083.<br />

MAE 3161 FLUID MECHANICS (3 credits). Introduces fluid variables; fluid<br />

statics; flow kinematics; equations <strong>of</strong> mass, momentum and energy conservation in<br />

both integral and differential formulations; similitude and dimensional analysis; the<br />

stress tensor; inviscid and viscous flows; flow in pipes; laminar and turbulent flows.<br />

Prerequisites: MAE 2082, MAE 3191, MTH 2201.<br />

MAE 3162 COMPRESSIBLE FLOW (3 credits). Studies high-speed compressible<br />

flow. Extends boundary-layer theory to the compressible case. Also includes<br />

normal and oblique shocks; compressible flow in ducts and nozzles; Mach waves;<br />

Prandtl-Meyer expansions; method <strong>of</strong> characteristics; unsteady 1-D flows; and conical<br />

flow. Prerequisites: MAE 3161.<br />

MAE 3191 ENGINEERING THERMODYNAMICS 1 (3 credits). Studies<br />

the conservation <strong>of</strong> energy and mass in closed- and open-flow systems. Includes the<br />

physical properties and equations <strong>of</strong> state for pure substances; the first and second<br />

laws <strong>of</strong> thermodynamics; and reversible processes and Carnot cycle. Prerequisites:<br />

CHM 1101. Corequisites: MTH 2001, PHY 2002.<br />

MAE 3192 ENGINEERING THERMODYNAMICS 2 (3 credits). Practical<br />

problems involving power and refrigeration cycles and chemical thermodynamics, the<br />

combustion process and compressible flows as examined in applications involving<br />

nozzles and blade passages. Prerequisites: MAE 3191.<br />

MAE 3241 AERODYNAMICS AND FLIGHT MECHANICS (3 credits).<br />

Dynamics <strong>of</strong> frictionless fluid including the effects <strong>of</strong> unsteadiness and three dimensionality;<br />

tools and rules for the construction <strong>of</strong> elementary flows about bodies, flows<br />

about airfoils and wings in three dimensions. Prerequisites: MAE 3061 or MAE 3161.<br />

Corequisites: MAE 3062 or MAE 3162.<br />

MAE 3260 EXPERIMENTAL AERODYNAMICS (3 credits). Offers theory<br />

and practice in wind tunnel test techniques, measurements <strong>of</strong> lift and drag by force<br />

balance, pressure distributions and wake surveys, LDA, thermal anemometry, computer-based<br />

data acquisition and reduction using LabView and uncertainty analysis.<br />

Prerequisites: MAE 3064, MAE 3241.<br />

MAE 3291 JUNIOR DESIGN (1 credit). Introduces the concepts and methodology<br />

<strong>of</strong> rational aerospace design through interaction with seniors completing their<br />

capstone design projects and development <strong>of</strong> team proposals for capstone design<br />

projects that will be implemented during the senior year. (Requirement: Junior<br />

standing.) (Q)<br />

MAE 4014 CONTROL SYSTEMS (3 credits). Stresses both classical and<br />

modern control methodologies. Includes frequency and time-domain representation<br />

<strong>of</strong> linear systems, stability analysis and design techniques. Prerequisites: ECE 4991,<br />

MTH 2201.<br />

MAE 4024 MECHANICAL VIBRATIONS (3 credits). Focuses on both<br />

discrete and continuous systems. Includes free and forced vibration <strong>of</strong> single and<br />

multiple degrees <strong>of</strong> freedom systems, and vibration control techniques. Prerequisites:<br />

MAE 2082, MAE 3083, MTH 3201.<br />

MAE 4050 APPLIED FINITE ELEMENT METHOD IN MECHANICAL<br />

DESIGN (3 credits). Presents the finite element method with application to mechanical<br />

design configurations. Generates numerical solutions for mechanical components<br />

subjected to static, dynamic and buckling loads. Prerequisites: MAE 2082, MAE 3083.<br />

MAE 4071 THERMAL SYSTEMS DESIGN (3 credits). Radiative heat transfer<br />

applications in thermal systems. Elementary methods <strong>of</strong> optimization for design.<br />

Application <strong>of</strong> thermodynamics, fluid mechanics and heat transfer. Equipment<br />

fundamentals with emphasis on heat exchanger design and analysis. Design projects<br />

involving use <strong>of</strong> s<strong>of</strong>tware and laboratory experiments. Prerequisites: MAE 4171.<br />

MAE 4074 HEAT TRANSFER LABORATORY (1 credit). Reinforces the<br />

activities associated with MAE 4071 and MAE 4171. Investigates the physics <strong>of</strong> heat<br />

transfer (conduction, convection, radiation) through the use <strong>of</strong> modern experimental<br />

techniques. Prerequisites: MAE 4171.<br />

MAE 4090 ROBOTICS AND AUTOMATED MANUFACTURING (3 credits).<br />

Includes industrial robots, robot actuators, teaching robots, automated parts<br />

handling, robot workcell planning and implementation, numerical control and CAD/<br />

CAM, programmable logic controllers and modern rapid prototyping techniques.<br />

MAE 4121 MANUFACTURING ENVIRONMENT (3 credits). Introduces<br />

manufacturing processes, traditional and nontraditional processes, and computeraided<br />

manufacturing and robotics. Design for manufacture and assembly; Deming<br />

and Taguchi; short machine-shop laboratory; and individual or group product design.<br />

Prerequisites: CHE 3260, CHE 3265, MAE 3083.<br />

MAE 4175 HEATING, VENTILATION AND AIR CONDITIONING<br />

(3 credits). Air-vapor mixture properties and psychometrics, solar radiation in heating<br />

and air conditioning applications, heating/cooling load calculations, annual energy<br />

consumption, heat generation and cooling processes. Prerequisites: MAE 3061 or<br />

MAE 3161, MAE 3192, MAE 4171.<br />

194 <strong>Florida</strong> Tech<br />

MAE 4176 COMBUSTION ENGINEERING (3 credits). Analyzes combustion<br />

devices and systems (e.g., boilers, gas turbines, engines), pollutant formation and<br />

control, fuels, analysis <strong>of</strong> open flames and fires. (Requirement: Instructor approval or<br />

prerequisite course.) Prerequisites: MAE 4171.<br />

MAE 4177 ENERGY CONVERSION TECHNOLOGIES (3 credits). Energy<br />

resources, conversion processes and energy economics. Consideration <strong>of</strong> fuel<br />

supplies, thermodynamics, environmental impact and energy storage. Emphasizes<br />

conversion <strong>of</strong> natural sources to electricity, treating both the technical and economic<br />

aspects <strong>of</strong> fossil, nuclear, solar and geothermal power production. Prerequisites:<br />

MAE 3192, MAE 4171.<br />

MAE 4178 SOLAR ENERGY ANALYSIS (3 credits). Fundamental issues such<br />

as solar radiation, radiation properties <strong>of</strong> opaque and transparent materials, solar<br />

collectors and storage, system thermal calculations and solar process economics;<br />

application areas such as solar water heating, building heating and cooling, solar<br />

thermal power systems. Prerequisites: MAE 4071.<br />

MAE 4190 DESIGN METHODOLOGIES AND PRACTICE (1 credit). Covers<br />

engineering ethics and design methodologies with case studies. Presents relevant<br />

design projects and case studies by faculty and invited engineers representing local<br />

industry. Requires development <strong>of</strong> a proposal for MAE 4193. (Requirement: Junior<br />

standing in mechanical engineering.) (Q) Prerequisites: COM 2223.<br />

MAE 4193 MECHANICAL ENGINEERING DESIGN 1 (3 credits). Student<br />

teams work on engineering projects proposed in MAE 4190 or by the faculty, as well<br />

as projects sponsored by industry. These projects are selected from a broad range<br />

<strong>of</strong> technical areas including mechanical design, thermal and fluid system analyses,<br />

instrumentation and control, energy system analysis. (Requirement: Senior standing.)<br />

(Q) Prerequisites: MAE 4190.<br />

MAE 4194 MECHANICAL ENGINEERING DESIGN 2 (4 credits). Student<br />

teams complete their design projects. Details <strong>of</strong> engineering analyses and prototype<br />

construction and testing results including sensitivity, optimization and cost analyses<br />

are presented and outlined in a written final report. Oral presentations are made to<br />

faculty and engineers from participating industry. (Q) Prerequisites: MAE 4193.<br />

MAE 4242 AIRCRAFT STABILITY AND CONTROL (3 credits). Static stability<br />

<strong>of</strong> an airplane in pitch and sideslip; static manual control; general equations <strong>of</strong><br />

unsteady motion; the stability <strong>of</strong> derivatives; stability <strong>of</strong> uncontrolled motion (lateral<br />

and longitudinal), including characteristic motions, their frequencies and their rates<br />

<strong>of</strong> decay. Prerequisites: MAE 3061 or MAE 3161.<br />

MAE 4261 AIR-BREATHING ENGINES (3 credits). Studies the performance<br />

analysis and component design <strong>of</strong> air-breathing engines. Includes ideal and actual<br />

cycle analyses, thrust and efficiency considerations, the flows in inlets and diffusers,<br />

combustors and nozzles, as well as compressors and turbines. Prerequisites:<br />

MAE 3062 or MAE 3162.<br />

MAE 4262 ROCKETS AND MISSION ANALYSIS (3 credits). Deals with<br />

performance analysis <strong>of</strong> rockets, emphasizing chemical rocket propulsion: thrust and<br />

specific impulse, mission requirements and rocket staging; solid- and liquid-propellant<br />

rockets, and propellants; and orbital mechanics and mission analyses. Prerequisites:<br />

MAE 3062 or MAE 3162.<br />

MAE 4281 AEROSPACE STRUCTURAL DESIGN (3 credits). Bending, shear<br />

and torsion <strong>of</strong> open and closed sections, bending <strong>of</strong> thin plates, structural instability;<br />

stress analysis <strong>of</strong> aircraft components, introduction to finite element methods,<br />

airworthiness and elementary aeroelasticity. Stresses design issues in all topics.<br />

Prerequisites: MAE 3083, MTH 3201.<br />

MAE 4284 AEROSPACE ENGINEERING STRUCTURES LABORATORY<br />

(1 credit). Experimental testing <strong>of</strong> structures and structural components. Presents<br />

a variety <strong>of</strong> testing methods and uses a variety <strong>of</strong> materials, including advanced<br />

composites. Introduces topics in experimental stress analysis. Emphasizes handson<br />

involvement by students in all areas. Prerequisites: MAE 3083. Corequisites:<br />

MAE 4281.<br />

MAE 4291 AEROSPACE ENGINEERING DESIGN 1 (3 credits). Design <strong>of</strong><br />

an aircraft, spacecraft or component to meet desired needs. Students are given a<br />

simulated request for proposals including a measure <strong>of</strong> merit and a set <strong>of</strong> specifications<br />

that a satisfactory design must meet. Teams work under faculty supervision to<br />

develop a design to best meet these requirements. Students present their designs<br />

in written reports at the end <strong>of</strong> each semester. Lectures, readings and group discussions<br />

introduce some <strong>of</strong> the ethical and legal issues that engineers must face. (Q)<br />

Prerequisites: MAE 3062 or MAE 3162, MAE 3083, MAE 3241. Corequisites:<br />

MAE 3260, MAE 4242.<br />

MAE 4292 AEROSPACE ENGINEERING DESIGN 2 (3 credits). Design <strong>of</strong><br />

an aircraft, spacecraft or component to meet desired needs. Students are given a<br />

simulated request for proposals including a measure <strong>of</strong> merit and a set <strong>of</strong> specifications<br />

that a satisfactory design must meet. Teams work under faculty supervision to<br />

develop a design to best meet these requirements. Students present their designs<br />

in written reports at the end <strong>of</strong> each semester. Lectures, readings and group discussions<br />

introduce some <strong>of</strong> the ethical and legal issues that engineers must face. (Q)<br />

Prerequisites: MAE 4291.

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