EE125 - Electrical Engineering Hardware Design I Catalog copy EE125. First of two-course sequence in engineering design. Alone or in small teams, students concentrate on theoretical research, specification, planning, and procurement for hardward design of engineering hardware projects chosen according to student's elective track background. Technical discussions and on-going design reviews; engineering design cycle. Class presentation and peer design review of each project required at end of quarter. Students are billed a materials fee. Prerequisite(s): course 171. Enrollment limited to 30. Enrollment restricted to juniors, seniors, and graduate students. Explanation of prerequisites This is the first class of a capstone design course spread over two quarters meant to enable students to engage a worthy engineering design project requiring application of knowledge accumulated over earlier specific courses leading to an engineering or natural science degree. As such, it is restricted to graduate students, junior and senior undergraduate students. An aim of this class is to foster interdisciplinary teamwork requiring that students learn to work effectively in teams and thereby perceive the potential for extraordinary work such efforts are capable of. EE171 is necessary to work with basic active and passive electronic circuits needed as part of all projects. Required skills to pass the course. 1. Ability to apply the fundamentals of system design to a particular project selected for the course while working as part of a group, including: a. exercising judgement and independence in framing a viable design project as a set of clearly defined specifications; b. defining a reasonable time-line with target milestones; c. ability to do independent research and assess suitable resources like application notes, data sheets, etc.; d. participate in peer-group design reviews of one's own work as well as others; e. keep technical engineering notes consistent with current industrial practice; f. delivering satisfactory interactive oral presentations before the class; 2. Demonstrate independence in self-motivated learning to master new topics necessary to successfully complete a project's design or devise feasability experiments. 3. Demonstrate technical competence in related hands-on experimental laboratory work. This would include competence using all applicable laboratory test equipment for prototype concept evaluations, such as the oscilloscope; spectrum analyzer, RF network analyzer, noise- figure meter; dvm; arbitrary waveform generator; etc. 4. Demonstrate technical competence in mastering necessary EDA and CAD tools required for specific designs, including but not necessarily limited to: a. Simulation tools like Pspice, Numerical Electromagnetics Code, etc. b. PCB schematic capture and layout tools, like Cadence or Orcad. Core topics (must be taught) 1. Engineering design cycle. This should include: a. product design for manufacturability. b. cost analyis. c. prototypes vs. final designs. d. solicit outside speakers from industry to present on topics related engineering design and manufacturing. 2. Survey the general topic of project management and teamwork in engineering. Coverage to basically include content of cited text. 3. Basic professional documentation skills, including: a. keeping a good technical engineering notebook; b. interim reports of project work; c. final summary reporting. 4. Information search tools: a. Library tools for science and engineering literature search, e.g. use of INSPEC data base b. Internet search tools Comments on follow-on courses EE126 continues the work started in EE125 and is meant to focus more on the experimental phase of engineering design leading to the full realization of a functioning prototype. Text Smith, Karl A., "Project Management and Teamwork", McGraw Hill 2000. This short book skillfully covers, from an applied perspective, salient topics necessary to developing an appreciation for the purpose, value, applicability and benefits of working in teams in engineering project. Prepared by Stephen Petersen, 11/02