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Course Schedule
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| MECHANICAL
ENGINEERING |
| Note:
Text highlighted in red indicates
that a change has been made to the course listing. The red text
indicates the current, updated information. |
| 530.106
(E,Q) |
COMPUTING
IN MECHANICAL ENGINEERING (3) Su Coreq:
110.109 Elementary numerical analysis including differentiation,
integration, and solution of ordinary differential equations.
Fundamentals of computer operation. Programming in Matlab.
Introduction to the use of computers in data acquisition, analysis,
and visualization. |
Sec. 01 |
MTW 9 |
| 530.215
(E) |
MECHANICS-BASED
DESIGN (4) Ramesh Prereq: 530.201 Limit
18/lab section (all Mechanical Engineering and Electrical Engineering
majors may enroll over stated limit) Stresses and strains in
three dimensions, transformations. Combined loading of components,
failure theories. Buckling of columns. Stress concentrations.
Introduction to the finite element method. Design of fasteners,
springs, gears, bearings, and other components.
|
Lec.
Lab 01
02
03 |
MTW 11
M 4-6pm
Th 10-12
Th 12-2 |
| 530.328
(E,N) |
FLUID
MECHANICS II (3)
Meneveau Linear and angular momentum
in integral form, applications to turbomachines.
The Navier-Stokes equations. Inviscid
flow. Laminar viscous flow. Boundary layers. Turbulence. Compressible
flows. Projects using computational tools, design of pipe network. |
Sec. 01 |
MTW 1 |
| 530.334
(E,N) |
HEAT
TRANSFER (4) Herman
Prereq: 530.231 and 530.327 Conduction in one,
two, and three dimensions. External and internal forced convection,
convection with change in phase. Performance and design of heat
exchangers. Black-body radiation, Stefan-Boltzmann
law. Computational modeling and experimental study of selected
topics in conduction, convection, and radiation.
|
Sec. 01 |
MTW 2 |
| 530.343
(E) |
DESIGN
AND ANALYSIS OF DYNAMICAL SYSTEMS (4) Okamura Prereq: 110.108, 110.109, 110.202 and 550.291,
and 530.341 Modeling and analysis of damped and undamped,
forced and free vibrations in single and multiple degree-of-freedom
linear dynamical systems. Introduction to stability and control
of linear dynamical systems.
|
Sec. 01
Lab
Sec. 02
Lab
Problem Session |
MTW 10
Th 9-12
MTW 10
F 1-4
T 4 |
| 530.404(E,Q,N)
(W) |
SENIOR
ENGINEERING DESIGN PROJECT II (4) Conn This
senior year “capstone design” course is intended to give some
practice and experience in the art of engineering design. Students
working in teams of two to four will select a small-scale, industry-suggested
design problem in the area of small production equipment, light
machinery products, or manufacturing systems and methods. A solution
to the problem is devised and constructed by the student group
within limited time and cost boundaries. Preliminary oral reports
of the proposed solution are presented at the end of the first
semester or sooner. A final device, product, system, or method
is presented orally and in writing at the end of the second semester.
Facilities of the Engineering Design Laboratory (including machine
shop time) and a specified amount of money are allocated to each
student design team for purchases of parts, supplies, and machine
shop time where needed. |
Sec. 01
02 |
F 9-11:30
Th 9-11:30 |
| 530.405
(E,N) |
MECHANICS
OF SOLIDS AND STRUCTURES (3) Staff Prereq: 110.201, 550.291 or
110.212, 530.215 or 560.206 or Perm.
Req’d. Continuum Mechanics
provides a rigorous basis to the study of deformable solids and
fluids. Review of vector calculus and tensor analysis. Kinematics
of a body. Stress. Conservation laws. Constitutive equations for
solids and fluids. Linear elasticity. Energy methods and foundations
of the finite element method. |
Sec. 01 |
MW
4:30-6pm |
| 530.410
(E,N) |
BIOMECHANICS
OF THE CELL AND ORGANISMS (3) Sun/Spector Prereq: Introductory Physics, one year of Calculus,
Linear Algebra (preferred) Mechanical
aspects of the cell are introduced using the concepts in continuum
mechanics. Discussion of the role of proteins, membranes and
cytoskeleton in cellular function and how to describe them
using simple mathematical models. Co-listed
with 580.448 |
Sec. 01 |
TTh
2-3:30 MTW 11 |
| 530.420
(E) |
ROBOT
SENSORS AND ACTUATORS (3) Whitcomb Limit 20/section
Prereq: 171.101, 171.102, 110.108,
110.109, 110.202, 550.291 and 530.341 or 520.345 Introduction
to modeling and use of actuators and sensors in mechatronic
design. Topics include electric motors, solenoids, micro-actuators,
position sensors, and proximity sensors. |
Lec.
Sec. 01
02
03
Problem session |
M
3-5pm 2-4
W 3-6pm
2-5
Th
2-5
F 9-12
M 5-6pm
4 |
| 530.421
(E) |
MECHATRONICS
(3) Chirikjian
Limit 20 Students
from various engineering disciplines are divided into groups of
two to three students. These groups each develop a microprocessor-controlled
electromechanical device, such as a mobile robot. The devices
compete against each other in a final design competition. Topics
for competition vary from year to year. Class instruction includes
fundamentals of mechanism kinematics, creativity in the design
process, an overview of motors and sensors, and interfacing and
programming microprocessors. |
Sec. 01
|
TBA |
| 530.432
(E) |
JET
& ROCKET PROPULSION (3) Katz Prereq: 530.231, 530.327 The
course covers several topics associated with power generation
and conversion. Gas turbines, such as turbojet, turbo-fan, and
turbo-prop engines, as well as their components, are discussed.
Included are the characteristics of compressors, turbines, combustion
chambers, diffusers, and nozzles. A brief introduction to rocket
propulsion with liquid and solid fuels is also given. The second
part of the course deals with internal combustion engines, including
two- and four-stroke engines as well as diesel engines.
|
Sec. 01
|
MTW 11 |
| 530.457
(E, N) |
INTRODUCTION
TO ACOUSTICS (3) Busch-Vishniac This course is an introduction
to the science of sound and its applications to music, speech
communication, science, and engineering. Topics include hearing,
speech, wave propagation, microphones and loudspeakers, noise
control, underwater sound, and room acoustics. Assignments
will include laboratory and field measurements of acoustic phenomena. |
Sec. 01 |
MTW 12 |
| 530.467
(E) |
THERMAL
DESIGN ISSUES FOR AEROSPACE SYSTEMS (3) Herman
This
course deals with processes, systems, instruments and equipment
for aerospace systems. Issues of energy conversion and thermal
design are emphasized. Topics include thermodynamic concepts and
heat transfer processes for aerospace systems (with emphasis on
radiation), the space environment, influence of gravity on heat
transfer, power generation for space systems (energy sources,
solar cell arrays, energy storage), thermal control (analysis
techniques, design procedures, active versus passive design, heating
and refrigeration), environmental effects. |
Sec. 01 |
T 3-4:30,
Th 1-2:30 |
| 530.525 |
INDEPENDENT
RESEARCH Students pursue research problems individually or in pairs. Although
the research is under the direct supervision of a faculty member,
students are encouraged to pursue the research as independently
as possible.
|
|
|
| 530.526 |
INDEPENDENT
STUDY |
|
|
| 530.602 |
MECHANICS
OF SOLIDS Volokh
An
introduction to elasticity, plasticity, viscoelasticity,
and fracture, using the mathematical tools developed in 530.601
Continuum Mechanics. Stress and equilibrium. Kinematics. Principle
of virtual work. Constitutive relations: linear elasticity, plasticity,
and viscoelasticity. Illustrative boundary value problems. Linear
elastic fracture mechanics. Micromechanics of inelastic deformations. |
Sec. 01 |
MTW 1 |
| 530.622 |
FLUID
DYNAMICS II Katz Kinematics.
Stress. Conservation of mass, momentum, and energy. Newtonian
fluids. The Navier- Stokes equations. Inviscid
flows. Laminar viscous flows. Vorticity.
Instability. Turbulence. Boundary layers. External flows. Compressible
flows. Introduction to non-Newtonian fluids. |
Sec. 01 |
MTW 12
10 |
| 530.646 |
INTRODUCTION
TO ROBOTICS Whitcomb
Graduate-level introduction to robotics with
emphasis on the mathematical tools for kinematics and dynamics.
Topics include forward and inverse kinematics, trajectory generation,
position sensing and actuation, and manipulator control. |
Sec. 01 |
MTW 11 |
| 530.657 |
TOPICS
IN ACOUSTICS Busch-Vishniac This course provides a foundation for modern
acoustics including derivation of the wave equation and its solution
in various media, sound radiation, sound propagation, instrumentation,
and sound/structure interaction. Specific applications of focus
will be determined by the research interests of the students in
the class. |
Sec. 01 |
MW 3-4:30 |
| 530.672 |
BIOSENSING
& BIOMEMS Wang The course discusses
the principles of biosensing and introduces micro- and nano-scale
devices for fluidic control and molecular/cellular manipulation,
measurements of biological phenomena, and clinical applications.
Co-listed as 580.672 |
Sec. 01 |
MW 11-12:30 |
| 530.676 |
MECHANICS
OF CONTROL & LOCOMOTION Cowan
Prereq: Graduate course in robotics,
controls, or dynamical systems theory; or Perm. Req’d.
Introduction to the mechanics of locomotion. In this context students
will learn topics such as Lagrangian and Hamiltonian mechanics, impacts, Poincare analysis and nonholonomic
mechanics. |
Sec. 01 |
ThF 8:30-10 |
| 530.757 |
NANOMECHANICS Ramesh
A research-level course examining the mechanics of nanoscale
assemblies and microscale structures
used for investigating nanoscale phenomena.
Applications in scanning probe systems, materials, and biology
will be of interest. Each student will be expected to complete
a paper on a research topic chosen together with the instructor. |
Sec. 01 |
M
3-4:30, W 2-3:30 |
| 530.759 |
RESEARCH
SEMINAR IN PLASTICITY AND FAILURE Ramesh Permission of instructor and advisor required A
weekly research seminar featuring ongoing research as well as
reviews of new papers of interest in the general areas of plasticity
and failure. The course will have an emphasis on dynamic phenomena,
but will consider both engineering materials and biological systems.
Students will be expected to make two presentations during the
semester. |
Sec. 01 |
F
8-9:30 |
| 530.762 |
ADVANCED
MATHEMATICAL METHODS OF ENGINEERING Prosperetti A unified view of the classical methods of applied
mathematics based on the theory of finite-dimensional and Hilbert
spaces. Matrix theory, systems of ordinary differential equations,
Fourier series, eigenfunction expansions.
Green's functions. Designed to follow either 530.661 or 530.761. |
Sec. 01 |
TW 9-11 |
| 530.767 |
COMPUTATIONAL
FLUID DYNAMICS Knio Advanced
introduction to major approaches in the simulation of the incompressible
flow: finite-difference, finite-element, finite-volume, boundary-element,
spectral, and Lagrangian discretizations.
Computer project requiring programming.
|
Sec. 01 |
MW 3-4:30 |
| 530.777 |
MULTI-PHASE
FLOW Prosperetti
An
introduction to basic contemporary ideas concerning gas, liquid,
and solid-fluid two-phase flows.
|
Sec. 01 |
M
10-12, W 12-2, Th 1-3 |
| 360.605 |
SEMINAR:
ENVIRONMENTAL AND APPLIED FLUID MECHANICS Meneveau
Cross-listed
with DOGEE, Earth and Planetary Sciences and Interdepartmental
|
Sec. 01 |
F 11 |
|
530.800 |
INDEPENDENT STUDY
Sec. 01 -
Staff Sec. 14 - Okamura
Sec. 02 -
Meneveau Sec. 16 - Molinari
Sec. 03 - Katz Sec. 17 - Stoianovici
Sec. 04 - Prosperetti Sec.
18 - Chao
Sec. 05 - Herman Sec. 19 - Su
Sec. 06 - Ramesh Sec. 20 - Wang
Sec. 07 - Taylor Sec. 21 - Sun
Sec. 08 - Chen Sec. 22 - Cowan
Sec. 09 - Sharpe Sec. 23 - Busch-Vishniac
Sec. 10 - Knio Sec. 25 - Katz
Sec. 11 - Hemker Sec.
26 - Vidal
Sec. 12 - Chirikjian Sec.
27 - Fichtinger
Sec. 13 - Whitcomb
|
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| 530.802 |
GRADUATE
RESEARCH
Sec. 01 -
Staff Sec. 14 - Okamura
Sec. 02 - Meneveau Sec. 16 - Molinari
Sec. 03 - Katz Sec. 17 - Stoianovici
Sec. 04 - Prosperetti Sec.
18 - Chao
Sec. 05 - Herman Sec. 19 - Su
Sec. 06 - Ramesh Sec. 20 - Wang
Sec. 07 - Taylor Sec. 21 - Sun
Sec. 08 - Chen Sec. 22 - Cowan
Sec. 09 - Sharpe Sec. 23 - Busch-Vishniac
Sec. 10 - Knio Sec. 25 - Katz
Sec. 11 - Hemker Sec.
26 - Vidal
Sec. 12 - Chirikjian Sec.
27 - Fichtinger
Sec. 13 - Whitcomb
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| 530.804 |
MECHANICAL
ENGINEERING SEMINAR Prosperetti |
Sec. 01 |
Th 3 |
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