16.01-04 Unified Engineering I, II, III, & IV, Fall 2003-Spring 2004
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16-01-04Fall2003-Spring2004/OcwWeb/Aeronautics-and-Astronautics/16-01-04Fall2003-Spring2004/CourseHome/index.htm
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Author(s)
Hall, Steven Ray
Coleman, Charles P
Drela, Mark
Lundqvist, Ingrid Kristina
Spearing, S Mark
Waitz, Ian A
Young, Peter W
Alternative Title
Unified Engineering I, II, III, & IV
Date Issued
June 2004
Abstract
The basic objective of Unified is to give a solid understanding of the fundamental disciplines of aerospace engineering, as well as their interrelationships and applications. These disciplines are Materials and Structures (M); Computers and Programming (C); Fluid Mechanics (F); Thermodynamics and Propulsion (T); and Signals and Systems (S). In choosing to teach these subjects in a unified manner, we seek to explain the common intellectual threads in these disciplines, as well as their combined application to solve engineering Systems Problems (SP). Throughout the year we will endeavor to point out the connections among the disciplines.
Subjects
Unified
Unified Engineering
aerospace
CDIO
C-D-I-O
conceive
design
implement
operate
team
team-based
discipline
materials
structures
materials and structures
computers
programming
computers and programming
fluids
fluid mechanics
thermodynamics
propulsion
signals
systems
signals and systems
systems problems
fundamentals
technical communication
graphical communication
communication
reading
research
experimentation
personal response system
prs
active learning
First law
first law of thermodynamics
thermo-mechanical
energy
energy conversion
aerospace power systems
propulsion systems
aerospace propulsion systems
heat
work
thermal efficiency
forms of energy
energy exchange
processes
heat engines
engines
steady-flow energy equation
energy flow
flows
path-dependence
path-independence
reversibility
irreversibility
state
thermodynamic state
performance
ideal cycle
simple heat engine
cycles
thermal pressures
temperatures
linear static networks
loop method
node method
linear dynamic networks
classical methods
state methods
state concepts
dynamic systems
resistive circuits
sources
voltages
currents
Thevinin
Norton
initial value problems
RLC networks
characteristic values
characteristic vectors
transfer function
ada
ada programming
programming language
software systems
programming style
computer architecture
program language evolution
classification
numerical computation
number representation systems
assembly
SimpleSIM
RISC
CISC
operating systems
single user
multitasking
multiprocessing
domain-specific classification
recursive
execution time
fluid dynamics
fluids
physical properties of a fluid
fluid flow
mach
reynolds
conservation
conservation principles
conservation of mass
conservation of momentum
conservation of energy
continuity
inviscid
steady flow
simple bodies
airfoils
wings
channels
aerodynamics
forces
moments
equilibrium
freebody diagram
free-body
free body
planar force systems
equipollent systems
equipollence
support reactions
reactions
static determinance
determinate systems
truss analysis
trusses
method of joints
method of sections
statically indeterminate
three great principles
3 great principles
indicial notation
rotation of coordinates
coordinate rotation
stress
extensional stress
shear stress
notation
plane stress
stress equilbrium
stress transformation
mohr
mohr's circle
principal stress
principal stresses
extreme shear stress
strain
extensional strain
shear strain
strain-displacement
compatibility
strain transformation
transformation of strain
mohr's circle for strain
principal strain
extreme shear strain
uniaxial stress-strain
material properties
classes of materials
bulk material properties
origin of elastic properties
structures of materials
atomic bonding
packing of atoms
atomic packing
crystals
crystal structures
polymers
estimate of moduli
moduli
composites
composite materials
modulus limited design
material selection
materials selection
measurement of elastic properties
stress-strain
stress-strain relations
anisotropy
orthotropy
measurements
engineering notation
Hooke
Hooke's law
general hooke's law
equations of elasticity
boundary conditions
multi-disciplinary
models
engineering systems
experiments
investigations
experimental error
design evaluation
evaluation
trade studies
effects of engineering
social context
engineering drawings
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MIT Department
Massachusetts Institute of Technology. Department of Aeronautics and Astronautics
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