STR 101 Structural Analysis

Types of Structures - Members, joints and supports - Analysis of
statically determinate beams and frames (stability, equilibrium,
reactions, internal forces : normal, shear, and bending moments) -
Analysis of statically determinate plane trusses - Analysis of beams
subjected to moving loads.

STR 102 Structural Mechanics

Properties of plane sections - Stresses and deformations in axially
loaded members - Normal stresses due to axial forces and biaxial
moments - Shear stresses in symmetrical solid and hollow sections -
Torsion stresses and deformations in circular and non-circular sections
-Combined stresses (transformation of stresses, principal shear and
normal sresses).

STR 201 Structural Analysis

Deflections (differential equation, energy method, virtual work
method)- Influence lines for statically determinate structures -
Analysis of statically indeterminate structures by consistent
deformation method using matrix formulation - Three moment equation.

STR 203 Structural Mechanics

Normal stresses on composite sections and sections of plane curved
beams - Normal streses in elastic and plastic materuials - Shear flow
and shear center - Torsion of thin walled tubular members - Shear
stresses on unsymmetrical box and multicell sections - Fracture
mechanics - Buckling of columns and beam columns.

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ARCHITECTURAL ENGINEERINGWorking alongside architects, architectural engineers focus on the safety, cost, and construction methods of designing a building. For example, as the United States population grows in the Southwest, more and more architectural engineers are investigating new ways to build on land where there is only sand and sagebrush

 

ENGINEERING IS EVERYWHERE.

It gives shape to our world. Everyone knows things like cars, computers, airplanes, and bridges are all products of imaginative engineering. But so are bubble gum, baseball bats, movie special effects, roller coasters, and synthetic human tissue replacements. Engineers have a hand in designing, creating, or modifying nearly everything we touch, wear, eat, see, and hear in our daily lives. Their innovations fuel economic growth, fortify national security systems, improve healthcare, and safeguard the environment.
An engineering education starts with a creative child’s first lesson in science or math. The teacher who delivers that lesson, and the lessons that follow, is an engineering educator, and our mission at ASEE is to help engineering educators do their jobs as well as they can. Especially now, with U.S. science and math learning in decline and technology increasingly driving global change, the job of delivering this education is harder, but more important, than ever.
The ASEE Engineering Center seeks to identify and gather in one place the most effective engineering education resources available to the K-12 community. From comprehensive data on outreach programs to career guidance materials to hundreds of links and readings related to engineering education, the ASEE Engineering Center offers immediately useful, easily accessible materials tailored to all parties with an interest in engineering education.