Learning Outcomes: Students completing ENGR 121 will be able to . . .
1 |
explain the trends and assess the implications of two global and societal issues on environmental sustainability, quality of life, the economy and/or the engineering profession through oral presentations and written reports |
2 |
utilize the prescribed solution format when solving problems - Given, Required, Solution, Discussion |
3 |
compute the molarity, concentration, and mass of the constituents in a salt water mixture |
4 |
compute quantities such as ion concentration, mass of reactants and products, and electrical current for a salt water mixture undergoing oxidation/reduction reactions due to the presence of a conductivity probe |
5 |
apply conservation of mass to batch and
rate problems to compute the inputs, outputs and changes of system constituents
|
6 |
apply conservation of energy to a small volume of water that is heated using an electrical resistance heater, computing quantities such as heater wattage, temperature change, and heating time |
7 |
design an electrical resistance heater to heat a small volume of water in a specified period of time, where the design involves choosing the gage and length of a segment wire |
8 |
evaluate the compatibility of electrical components and devices (transistors, solenoid valves, heaters, pumps, sensors) with the BASIC Stamp II microcontroller, the Board of Education, and external power supplies |
9 |
implement cascaded switching circuits consisting of transistors and relays to allow the BASIC Stamp II microcontroller to switch solenoid valves, a resistance heater, and a pump |
10 |
implement RC circuits and PBASIC programs to interface the BASIC Stamp II microcontroller with temperature and conductivity sensors |
11 |
utilize linear regression analysis to calibrate temperature and conductivity sensors |
12 |
explain the microfabrication steps and processes used to fabricate a resistance temperature detector - RTD |
13 |
design a nickel-based RTD by computing the width and length of the resistor and by drawing the chosen resistor layout using Solid Edge |
14 |
fabricate a nickel-based RTD by spinning a photoresist onto a substrate coated with a thin layer of nickel, exposing the photoresist using a resistor pattern printed onto a mask, developing the photoresist, and etching away the exposed nickel to form the resistor pattern |
15 |
design, fabricate and test a system where the temperature and salinity of a small fluid volume are measured and controlled using a BASIC Stamp II microcontroller, a temperature probe, a conductivity sensor, two solenoid valves, a resistance heater and a pump |
16 |
locate specifications and prices for the supplies, parts and systems used in course projects from manufacturers and retailers |
17 |
demonstrate individual skill using selected manufacturing techniques, including layout, assembly, drilling, pressing, and cutting internal and external threads |
18 |
generate 3D models and assemblies of the fishtank project using Solid Edge |
19 |
work collaboratively with one or more other students to complete the fishtank project |
20 |
present the results of assignments and projects using written and oral communication |
21 |
attend five professional society meetings or student-led functions |
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© 2008 College of Engineering and Science Louisiana Tech University Ruston, Louisiana |