Course Search Results

  • 3.00 Credits

    Covers the fundamentals of statistical process control (SPC) and continuous improvement of products, processes, and systems. Topics include lean manufacturing and six-sigma; product liability issues; SPC diagrams, charts, and techniques; fundamentals of probability and statistics; control charts for both variables and attributes; and an introduction to reliability. Prerequisite:    EGR 101 Corequisite:    MTH 172
  • 4.00 Credits

    Topics covered include concurrent force systems in equilibrium found in trusses, frames, and machines; free-body diagrams; equilibrium of rigid and deformable bodies with non-concurrent point, distributed, torsional, and frictional loads; moments, couples, and equivalent force systems; centroids, center of mass, and second moment of areas; normal and shear stress, strain, and deformation; shear force, bending moment, and deflection calculations and diagrams for beams. Graphical, analytical, and numerical techniques are used to solve problems with the help of a vector-capable engineering calculator. Prerequisite:    EGR 101 Corequisite:    PHY 107, PHY 155
  • 3.00 Credits

    Includes an in-depth study of two-dimensional motion of mechanisms and machine elements to determine linear and angular position, velocity, and acceleration of joints and points of interest on the mechanism. Analysis techniques include graphical, analytical, and numerical methods such as relative velocity and acceleration, instant centers, and vector loop. Students are required to do a semester-long project that includes a detailed analysis of all kinematic aspects of a two-dimensional mechanism of their choice. Prerequisite:    PHY 155 Corequisite:    MTH 172
  • 4.00 Credits

    Introduces students to the fundamental industrial processes and their control. This course will also include design, function and applications of various industrial controllers.
  • 4.00 Credits

    Includes study of semiconductor diodes, transistors and field effect transistors. The characteristics of these devices and their use in design are studied. Emphasis is given to the transistor as a linear amplifying device. Prerequisite:    ELC 106
  • 2.00 Credits

    Deals with the basic electronic testing, circuit construction and soldering skills needed by a technician. Demonstrated proficiency in the operation of volt-ohm-milliammeters, oscillo- scopes, function generators and construction of electronic circuits from schematic diagrams will be required.
  • 4.00 Credits

    Considers the principle electrical quantities; current, voltage and resistance; electrical properties of materials, Ohms law, DC power calculations, series and parallel circuits and series- parallel networks; circuit analysis and conversions, network theorems, measurement instruments and techniques; AC sine wave characteristics, inductive and capacitive circuit and analysis. Corequisite:    MTH 052, MTH 052A
  • 4.00 Credits

    Mathematical techniques developed in Circuit Analysis I are extended to Advanced DC circuits including capacitive and inductive reactances. Exponential responses are investigated. Methods for determining circuit responses with varying frequency sinusoidal voltage and current sources driving them are investigated. Complex notation and complex algebra are used extensively in solving network problems. Prerequisite:    ELC 106 and MTH 108
  • 3.00 Credits

    Designed for non-electronics majors. The course includes the study of basic AC and DC circuitry and electronic components with their applications. The course approach is descriptive rather than quantitative.
  • 4.00 Credits

    Concerned with electronic systems based on Boolean algebra using electronic devices in a switching mode. Logic gates are identified and their characteristics described in terms of Boolean algebra. Boolean theorems and manipulative techniques are used to design combinational logic circuits. Significant logic families and their characteristics are described. Number systems and their conversions are investigated with emphasis on those systems most used in the computer field. Logic devices are combined into the three classes of multi-vibrators. Sequential logic combinations of multi-vibrators, their uses and waveforms are studied. Binary arithmetic and the relevant circuits are investigated. Interfacing of the analog and digital worlds is considered. Prerequisite:    ELC 106