| CIVIL 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. |
| 560.141
(E,N,Q)
(W) |
PERSPECTIVES ON THE EVOLUTION OF STRUCTURES (3) Arwade Limit 33 per section Why do buildings and
bridges look the way they do today? Students will be provided
the tools to answer this question for themselves through a study
of the history of the design of buildings and bridges throughout
the world from both engineering and architectural/aesthetic perspectives.
Simple math required (no calculus). Note: sections meet together
for lecture (MT) and separately for discussion (W).
Cross-listed with General Engineering |
Lec.
Sec. 01
02 |
MT 3
MT W 3
MT W 3
|
| 560.202
(E,N) |
DYNAMICS (4) Dalrymple Limit 50
Basic principles of classical mechanics applied to the motion
of particles, system of particles, and rigid bodies. Kinematics:
analytical description of motion, rectilinear and curvilinear
motions of particles; rigid body motion. Kinetics: force, mass,
and accelerations, energy, and momentum principles. Introduction
to vibrations.
|
Sec. 01 |
MTWTh 2 |
| 560.206
(E,N) |
SOLID MECHANICS AND THEORY OF STRUCTURES
(4) Brady Limit 80 Prereq: 560.201 Application of the principles of structural
analysis for statically determinate and indeterminate structures
(trusses, cables, beams, arches, and frameworks). Calculation
of internal forces and stresses in members and structures. Determination
of deflections by equilibrium and energy methods. Analysis of
indeterminate structures by flexibility and stiffness solutions. |
Sec. 01 |
MTW 10 |
| 560.320
(E) |
STEEL
STRUCTURES (3) Schafer Limit 30 Prereq: 560.301 Principles, analysis, and methodologies
for conceptual and detailed design of steel structures. Emphasis
on the role of mechanics in modern structural engineering design
specifications with a focus on load and resistance factor design.
Topics include behavior and design of hot-rolled and cold-formed
steel: connections, members, frames, and advanced analysis techniques. |
Sec. 01 |
MTW 11 |
| 560.330
(E) |
FOUNDATION DESIGN (3) Anandarajah Limit 30 Prereq: 560.305 Application of
soil mechanics theory and soil test results to the analysis and
design of foundations for structures; retaining walls; embankments;
design of pile and shallow footing foundations; slope stability. |
Sec. 01 |
ThF 10:30-12 |
| 560.350
(E) |
DESIGN AND SYNTHESIS (3) Mettam Limit 25 Departmental majors only Seniors are organized
into a consulting engineering firm to prepare and design a project.
Students execute the design process from conceptual design through
the preparation of drawings and specifications. Facets of the
design process include building technology, structural engineering,
geotechnical engineering, green design in accordance with USBC
LEED guidelines, and project budgeting and scheduling. The “student
firm” prepares final design submittal and makes a formal presentation. |
Sec. 01 |
Th 5:30-8:15pm |
| 560.380
(E) |
INTRODUCTION
TO OCEAN SCIENCE AND ENGINEERING (3)
Shen Prereq:
570.351 or 530.327 Fundamentals of oceanography, marine hydrodynamics,
and flow-structure interactions. Topics include sea environment,
water waves, transport processes, measurement techniques, ship
hydrodynamics, naval architecture, and wave loads on offshore
structures and structure responses. |
Sec. 01 |
ThF Th 9-10:30, Th 12:30-1:50
|
| 560.435
(E) |
PROBABILITY AND STATISTICS IN CIVIL ENGINEERING (3)
Igusa Prereq: 110.109 Development and applications of the analysis
of uncertainty, including basic probability, statistics and decision
theory, in civil engineering areas of soil mechanics, structures,
transportation and water resources. |
Sec. 01 |
MTW 12 |
| 560.492
(E,Q) |
SEMINAR
IN CIVIL ENGINEERING -JUNIORS (.5) Staff |
Sec. 01 |
T 4 |
| 560.494
(E,Q) |
SEMINAR
IN CIVIL ENGINEERING –SENIORS (.5) Staff |
Sec. 01 |
T 4 |
| 560.536 |
RESEARCH |
|
|
| 560.676 |
STOCHASTIC
PROGRAMMING Ellis
Co-listed with 570.676 |
Sec. 01 |
W 1-4 |
| 560.692 |
CIVIL ENGINEERING SEMINAR - GRADUATE STUDENTS Staff |
Sec. 01 |
T 4 |
| 560.733 |
COMPUTATIONAL PLASTICITY Brady This
course is meant to help analyze material plasticity through computational
techniques. Students will develop skills in classical plasticity
and in computational implementation. Topics include 1 Dimensional
Plasticity, 1 Dimensional Viscoplasticity,
2D and 3D rate-independent plasticity, 2D and 3D Viscoplasticity,
Integration algorithms for plasticity, Finite element formulation,
Numerical analysis - general return mapping algorithms. |
Sec. 01 |
MW 2-3:30 1-2:30 |
| 560.760 |
STRUCTURAL STABILITY Schafer Concepts
of stability of equilibrium, stability criteria, work energy and
variational methods. Elastic buckling at columns, beams,
frames, and plates. Introduction to inelastic and dynamic buckling. |
Sec. 01 |
MW 8:30-10 4-5:30 |
| 560.787 |
STRUCTURAL
OPTIMIZATION Guest
Introduction to structural
optimization with focus on topology optimization using finite
element methods. Applications to design of structural and mechanical
systems and use of inverse homogenization to design material microstructures
that yield extreme/prescribed properties. |
Sec. 01 |
MW 10-11:30 |
| 560.836 |
GRADUATE
RESEARCH
Sec. 01 – Staff
Sec. 02 – Dalrymple
Sec. 04 – Ghanem
Sec. 05 – Jones
Sec. 07 – McCormick
Sec. 08 – Schafer
Sec. 09 – Anandarajah
Sec. 10 – Graham
Sec. 11 – Igusa
Sec. 12 – Rechenmacher
Sec. 13 – Arwade
Sec. 14 – Shen
Sec. 15 - Guest |
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