TERM PROJECT GUIDELINES
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Your term project report is a technical write-up describing original
research work performed by you on the subject matter of this course.
The following topical areas are typical (but not exhaustive) of what
I am looking for:
1.- An illustration of various types of computation errors 2.- Sensitivity and accuracy in numerical computation 3.- A comparison of methods of solution of linear systems of equations 4.- A comparison of quadrature formulae 6.- Numerical solution of a selected initial value problem 7.- Numerical solution of a selected boundary value problem 8.- Numerical solution of eigenvalue problems in vibrations 9.- Numerical solution of a selected problem in partial differential equations. 10.- Extrapolation methods for the increase of accuracy of numerical computation. The responsibility for selecting your term paper topic is yours. Also, you must get me involved with your project from the outset. Ideas, drafts, comments, questions and suggestions about term projects will be exchanged through electronic mail. All written materials must be saved in ASCII (Text) standard prior to sending. Deadlines for submission of the project proposal and the final report will be strictly enforced. You are welcome to work in groups, however, the maximum group size allowed is three people. The final report must clearly indicate authorship. The main body of the text - excluding appendices - must not exceed 10 pages. Ideally, an internet-ready version of your final report must also be prepared and posted, although this is not mandatory. Following is a list of suggested project topics, included references. SUGGESTED PROJECT TOPICS
* Trajectories of skiers in Nordic ski jumping
* Thickness of the liquid film remaining on a solid object withdrawn
from a liquid pool
* The laminar boundary layer along a flat plate
* Laminar flow near a rotating disk
* Shape of small drops resting on solid surfaces
* Solution schemes for the 1D steady, advection-diffusion equation
* Laminar flow in a cavity with a driven lid
* Shock waves on the space shuttle
* Heavy metal concentrations in lakes
* VOC releases in aerobic industrial wastewater treatment
* Solving electrical resistance network equations for the Julie bridge
* Mutual inductance between circular current loops
* Electrostatic potential in a square cavity
* Skin effect in cylindrical conductors
* Potential distribution in electrode-electrolyte systems
* Transient heat conduction in a plane wall
* Solidification rate of liquid melt in contact with a chill
* Thermal response in pulsed laser heating of materials
* Transient diffusion in 1D composite media
* Input-output analysis for economic planning
* Prisoner's dilemma game of trade union activism
* Predator-prey modeling in ecological systems
* Technological evolution processes Girifalco, "Dynamics of Technological Change", pp. 136-
* Multilevel technological substitution
* Kinematic analysis of a four-bar crank mechanism with a redundant constraint
* Pure elastic bending of prismatic bars and plates
* Thermo-elastic stresses in hollow cylinders
* Longitudinal waves in 1D elastic solids
* Thin-walled circular tube deforming plastically in torsion and extension
* Thermal expansion coefficients in a monoclinic crystal
* Transitions in high temperature oxidation of alloys
* Heat flow in the workpiece during welding
* Diffusion controlled growth of a spherical particle
* 1D analysis of self-propagating high temperature synthesis process
* Residual stresses in coatings
* Flow of granular material in a hopper
* Error adjustments in surveying
* Optimal blending by linear programming methods
* Strange attractors in dissipative dynamical systems
* Cluster growth modeling of dielectric breakdown
* Dynamic behavior of a cascade of two continuous stirred tank reactors with
recycle and exothermic reaction |