SYSE 640: System Integration and Test
Midterm Exam
Submit your midterm exam as a virus-free Word formatted paper via your
Assignment Folder at any time up to the end of the due date. Note: Any
student forecasting a finite (albeit small) probability for the occurrence of a
dire crisis (of health, wealth, happiness, software, or modem connection) on
or about the due date of the paper, as seems to occur with the arrival of
each paper's due date, feel free to submit the paper at any earlier
time—early papers are welcomed with open arms, whereas late ones may be
slapped around and lose points). By the bye, it is very poor manners to e-
mail a virus to your kindly professor, the one who grades your papers and
who has your fate in his hands—use Norton or McAfee anti-virus scanners
before you submit papers.
The midterm exam is worth 20 points. The paper should be a maximum of
10 pages single-spaced, including the cover sheet with your name, class,
date, course and section number, etc; this is a maximum page count—it can
be less. Use suitable fonts no smaller than 12 point (except perhaps for
footnotes, references, etc.). Use at least 1-inch margins all around. Note: all
graphics and charts, if any, should be incorporated (inserted) directly into
your paper (on a Word page) seamlessly, not attached separately in a
different format or embedded in a program icon. The paper and all charts
should form a single, continuous Word document (and print out as such).
Number your answers to match the numbered questions. All of your work
must be your own. Show how you calculated numerical solutions, if any,
and cite references for quoted or paraphrased material. Late papers will
generally lose points. Questions are worth 4 points each.
(1) In the future, imagine the commercial production of large, complex
systems for obtaining energy from laser-induced fusion, i.e., a laser fusion
reactor (using either inertial confinement fusion or magnetic confinement
fusion). Based on the way we have learned VVT methodology is tailored
according to the system’s size, complexity, and type, and extrapolated to
the hypothetical laser fusion reactor, describe how the VVT methodology
might be tailored for the production of these systems.
(2) Describe the typical life cycle of an unmanned air vehicle, such as the
Predator or Reaper.
(3) Assume that the system of interest is a prototype solar-powered car,
i.e., a small, lightweight car that seats two and is covered with efficient solar
cells that are connected to a battery to store the electrical energy from the
solar cells, and from which the vehicle obtains all of its energy. Design and
describe a demonstration of this system that is the functional equivalent of
testing it.
(4) For the solar-powered car in Question 3 above, define how you would
evaluate each of the following metrics for product quality:
(a) Performance (how well does the product or service do what it is
supposed to do)
(b) Aesthetics (appearance, feel, smell, taste)
(c) Conformance (how well does the product or service correspond to
the customer’s expectations)
(d) Safety (risk of injury or harm)
(e) Reliability (consistent performance)
(f) Durability (useful life)
(5) Provide examples of six systems where destructive testing is performed
during VVT, and explain for each example why the destructive testing is
needed and what it accomplishes.
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