Foundations of Engineering

Course Description

EGN3000C – Foundations of Engineering is an upper-division (3xxx-level) engineering orientation and design-experience course required of new engineering students at the University of South Florida and offered at the University of Central Florida. The course is designed especially for students entering an SUS engineering program at the junior level — including students transferring from Florida College System institutions — and provides an introduction to the engineering disciplines, professional resources, academic-success strategies, and hands-on team-based engineering practice through a structured design project. The integrated "C" format combines lecture content (engineering disciplines, study skills, career planning, ethics, professional development) with substantial laboratory work (typically Arduino-based microcontroller programming, hands-on team design projects, and engineering communication exercises).

The course sits within the Florida Statewide Course Numbering System (SCNS) under Engineering: General > Engineering Foundations and is offered at approximately 2 Florida public institutions — primarily USF (where it is a College of Engineering requirement for all incoming engineering students) and UCF (where it serves a related orientation and design-experience function). The relatively small institution count reflects EGN3000C's specific institutional role: it is not a general engineering survey but an institution-specific orientation, transition, and design-experience course aligned to USF's and UCF's particular engineering-curriculum structures. Content varies meaningfully between offering institutions — students should consult the receiving institution about specific expectations.

EGN3000C is distinct from EGN1001C and EGN1002C (lower-division Introduction to Engineering courses already in the corpus). The 3xxx-level designation reflects USF's deliberate placement of this course as upper-division, recognizing that incoming transfer students arrive with substantial prior college coursework and benefit from an orientation course pitched at junior-level expectations. Content overlap with EGN1001C/EGN1002C exists in the engineering-disciplines-survey portion, but EGN3000C typically goes further into hands-on design (often with Arduino microcontrollers and physical prototyping) and into transition-specific support for SUS engineering coursework.

Learning Outcomes

Required Outcomes

Upon successful completion of EGN3000C, students will be able to:

• Identify and describe the engineering disciplines offered at the institution: typically including mechanical, electrical, computer, civil, environmental, biomedical, chemical, industrial, and (where applicable) materials, aerospace, and systems engineering; the typical job functions, employers, and career trajectories within each.
• Apply the engineering design process to a hands-on team-based design project: problem definition; specification development; concept generation and selection; design development; prototyping; testing and iteration; documentation and presentation.
• Demonstrate introductory microcontroller programming and hardware-software integration (where the institution uses Arduino or similar): writing simple sketches; reading sensor input; controlling actuator output; integrating microcontrollers with mechanical and electrical components; the role of microcontrollers in modern engineering.
• Apply principles of team-based engineering work: effective team formation; assigning and rotating team roles (project lead, design lead, test lead, hardware lead, software lead, documentation lead); meeting management; constructive disagreement and conflict resolution; written and verbal communication within teams.
• Apply principles of technical communication at the upper-division level: engineering report writing; technical-presentation conventions; team-presentation skills; written documentation of design decisions and rationale; appropriate use of figures, tables, and references.
• Apply principles of engineering ethics and professional responsibility: the engineering codes of ethics; case studies in engineering ethics; the responsibility of engineers to public safety; emerging ethical issues (AI, autonomous systems, sustainability).
• Apply principles of academic success in engineering programs: study strategies appropriate to engineering coursework; the use of office hours, tutoring, and learning centers; navigating challenging coursework; managing time across demanding engineering schedules.
• Apply principles of professional development and career planning: identifying and engaging engineering professional societies and student chapters (IEEE, ASME, ASCE, AIChE, SAE, AIAA, SHPE, NSBE, SWE, BMES, etc.); the role of internships and co-op experiences; the FE (Fundamentals of Engineering) exam at an awareness level; pathways to PE (Professional Engineer) licensure.
• Navigate academic policies and procedures: institution-specific GPA, retention, and progression requirements; the engineering-specific advising structure; how to access academic resources and accommodations.
• Apply introductory engineering software tools: spreadsheet software for engineering calculations; Arduino IDE (where used); introductory CAD or programming tools as institutionally selected.

Optional Outcomes

• Engage with specific guest lectures from practicing engineers across disciplines.
• Engage with industry tours at local Florida engineering employers (Lockheed Martin, Northrop Grumman, L3Harris, Walt Disney Imagineering, AdventHealth, etc.).
• Engage with introductory engineering entrepreneurship and innovation: design thinking; lean-startup approaches; intellectual property at an introductory level.
• Engage with diversity, equity, and inclusion in engineering: addressing the under-representation of women and minorities in engineering; SHPE, NSBE, SWE student chapter engagement.
• Engage with introductory data analysis for engineering: basic statistics; data visualization; data-driven engineering decision-making.

Major Topics

Required Topics

• Introduction to the Engineering Profession at the Institution: The College of Engineering's structure; the engineering disciplines available; the relationship between disciplines; engineering vs. engineering technology distinctions; the engineering profession in society.
• Engineering Disciplines Survey: Mechanical, electrical, computer, civil, environmental, biomedical, chemical, industrial, and (where applicable) aerospace and systems engineering — typical job functions, employers, salaries, and career trajectories.
• The Engineering Design Process: Problem definition; specification development; concept generation; concept selection (often using Pugh matrix or similar tools); design development; prototyping; testing and iteration; documentation; the iterative nature of real engineering design.
• Hands-On Team Design Project: A semester-long project applying the engineering design process to a defined challenge. At USF, projects typically involve Arduino-based microcontroller systems integrated with mechanical components — recent projects have included autonomous robots, sensor-driven environmental monitors, smart-home prototypes, and similar systems. Project includes problem definition, design development, prototyping, testing, written report, and oral presentation.
• Microcontroller Programming and Hardware-Software Integration: Arduino IDE; basic C-style programming for microcontrollers; reading sensor input (temperature, distance, motion, light, etc.); controlling actuator output (LEDs, motors, servos, displays); the role of microcontrollers in modern engineering practice.
• Team-Based Engineering Work: Team-role assignment (project lead, design lead, test lead, hardware lead, software lead); meeting management; agenda-setting; constructive disagreement; conflict resolution; team accountability.
• Technical Communication: Engineering report writing at upper-division level; technical-presentation conventions; team-presentation skills; figure and table conventions; references and citations; the importance of clear, accurate, and concise communication in engineering.
• Engineering Ethics and Professional Responsibility: Engineering codes of ethics (NSPE, IEEE, ASME, ASCE); historical case studies (often Challenger, Hyatt Regency walkway, Bhopal, Ford Pinto); engineer's responsibility to public safety; whistle-blowing; emerging ethical topics (AI ethics, autonomous-systems ethics, sustainability ethics).
• Academic Success in Engineering: Study strategies for engineering coursework (substantially different from general study skills); the role of homework, problem sets, and persistent practice; productive use of office hours, tutoring, and engineering learning centers; managing demanding engineering coursework; the long-term mindset of engineering education.
• Academic Policies and Procedures: Engineering-program GPA requirements; retention requirements; progression requirements; engineering-specific academic advising; how to access accommodations and resources.
• Professional Development and Career Planning: Engineering professional societies (IEEE, ASME, ASCE, AIChE, SAE, AIAA, SHPE, NSBE, SWE, BMES, etc.); student-chapter participation; internships and co-op experiences; resume preparation; the engineering job-search timeline; the FE exam; pathway to PE licensure.

Optional Topics

• Industry Guest Lectures and Tours: Local Florida engineering employers; varied disciplines.
• Introductory Engineering Entrepreneurship: Design thinking; lean-startup approach; introductory intellectual property.
• Diversity, Equity, and Inclusion in Engineering: Addressing under-representation; SHPE, NSBE, SWE engagement.
• Introductory Engineering Data Analysis: Statistics; visualization; data-driven decision-making.
• Florida Engineering Career Landscape: NASA Kennedy Space Center; aerospace at Cape Canaveral; defense employers; theme-park engineering at Walt Disney Imagineering and Universal Creative; biomedical engineering with Florida health systems.

Resources & Tools

• Required reference texts (typical): Institution-specific custom-published materials are common; in some semesters institutions have used Engineering Fundamentals: An Introduction to Engineering by Saeed Moaveni (Cengage), Studying Engineering: A Road Map to a Rewarding Career by Raymond B. Landis (Discovery Press), or institution-prepared materials. Students should check the syllabus.
• Required hardware (where Arduino-based projects are used): Arduino Uno or compatible microcontroller; basic electronics components (resistors, LEDs, sensors, servos, breadboards, jumper wires); often supplied as a course kit. Some institutions allow students to keep the kit; others require return at semester's end.
• Software tools: Arduino IDE (free, arduino.cc); Microsoft Excel; institution Canvas LMS; introductory CAD tools as institutionally selected.
• Engineering professional societies (student chapters): IEEE; ASME; ASCE; AIChE; SAE International; AIAA; BMES; SHPE; NSBE; SWE; institution-specific student chapters and clubs.
• Engineering learning support: The institution's engineering learning center; engineering-specific tutoring; faculty office hours; engineering peer-mentoring programs; engineering academic advisors.
• Career-development resources: The institution's engineering-specific career center; on-campus and virtual engineering career fairs; the Florida Engineering Society; the National Society of Professional Engineers (NSPE) student chapter where active.
• Engineering competitions and student opportunities: ASCE Concrete Canoe and Steel Bridge competitions; SAE Formula and Baja off-road competitions; ASME Human-Powered Vehicle; FIRST Robotics-derived college competitions; the Florida Space Grant Consortium (NASA-funded scholarships and undergraduate-research opportunities); Florida-specific defense and aerospace internships.
• Tutoring and support: The College of Engineering's specific support resources; first-year-experience programs adapted for engineering students; transfer-student support programs.

Career Pathways

EGN3000C is the foundation course preparing students for the entire upper-division engineering curriculum at USF, UCF, and the broader Florida engineering pipeline. Students completing the course progress through the discipline-specific upper-division engineering coursework. Specific Florida career pathways supported include:

• Aerospace Engineer / Astronautical Engineer — NASA Kennedy Space Center, Cape Canaveral Space Force Station, SpaceX, Blue Origin, Boeing, Lockheed Martin (Orlando), Northrop Grumman (Melbourne), L3Harris (Melbourne, Palm Bay), Embraer (Melbourne).
• Defense Systems Engineer — Florida's substantial defense-engineering sector at L3Harris, Lockheed Martin, Northrop Grumman, Raytheon.
• Mechanical Engineer — Florida manufacturing, theme-park ride engineering at Walt Disney Imagineering and Universal Creative, aerospace and defense applications.
• Electrical / Computer / Software Engineer — Florida electronics, defense, telecom, and tech sectors; emerging quantum-computing and AI applications.
• Civil Engineer / Structural Engineer — Florida's substantial infrastructure and construction sector.
• Environmental Engineer — Florida's water-resources, coastal-engineering, and environmental-protection sectors.
• Biomedical Engineer — Florida's substantial healthcare technology sector; partnerships with Moffitt Cancer Center, AdventHealth, Sylvester Comprehensive Cancer Center, Mayo Clinic Florida.
• Industrial / Systems Engineer — Florida manufacturing, healthcare-systems engineering, supply-chain engineering.
• Chemical Engineer — Florida pharmaceutical and biotech sector; phosphate and chemical-processing industries.
• Theme-Park Engineering / Imagineering — Walt Disney Imagineering, Universal Creative; among Florida's most distinctive engineering employers.

Special Information

Articulation and Transfer

EGN3000C is institution-specific, with primary use at USF and UCF. Articulation between the two institutions is generally clean. Articulation to other Florida SUS engineering programs varies — students transferring out from USF or UCF to a different Florida engineering program should consult the receiving institution. A grade of C or higher is typically required for the course to satisfy major prerequisites and to allow continued progression in upper-division engineering coursework.

Position in the Engineering Curriculum

EGN3000C is placed at the 3xxx (junior) level, deliberately serving the substantial population of students entering USF's and UCF's engineering programs as transfers from Florida College System institutions. The course sits as a transition support: students arriving from Valencia, Miami Dade, Hillsborough, Broward, Palm Beach State, Seminole State, or other FCS institutions take EGN3000C in their first semester at USF or UCF, gaining engineering-specific orientation, hands-on design experience, and connection to engineering academic-success resources.

Prerequisites

EGN3000C generally requires admission to the College of Engineering at the offering institution. Specific math and science prerequisites vary; many students take EGN3000C concurrently with calculus, physics, and chemistry coursework. At USF, EGN3000C is typically taken in the first semester after admission to the engineering program. Students should consult their engineering academic advisor.

EGN3000C vs. EGN3000 + EGN3000L

USF offers the course in two formats:

• EGN3000 (lecture, 1 credit) + EGN3000L (lab, 3 credits) — split format with separate lecture and lab courses.
• EGN3000C (integrated, typically 3 credits) — combined lecture-and-lab single course.

Both formats cover essentially equivalent content. Students should consult the institution about which format applies to their enrollment.

Course Format and Workload

EGN3000C is typically a 3-credit integrated lecture-and-lab course meeting 3-5 hours per week (combining lecture and lab time). Expect: regular textbook or reading material; a substantial team-based design project across the semester (often the central deliverable, with extensive documentation); regular smaller assignments and quizzes; team meetings outside scheduled class time; a final team-presentation event (often public). Out-of-class workload typically runs 6-10 hours per week, with the team-design project requiring substantial additional time near deadlines. The team-based character means students must plan carefully around teammates' schedules.

Course Code Variations

USF and UCF use EGN3000 (lecture-only), EGN3000L (lab-only), and EGN3000C (integrated) variants depending on enrollment structure. Course titles include "Foundations of Engineering" and "Foundations of Engineering Lab." The course is consistently structured around engineering orientation and hands-on design experience.