Introduction to Engineering
EGN1001C — EGN1001C
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Course Description
EGN1001C – Introduction to Engineering is a 3-credit, integrated lecture-and-laboratory course providing first-year engineering students with an overview of the engineering profession, the major engineering disciplines, the engineering design process, and the foundational technical and professional skills required for success in an engineering bachelor's program. The course typically combines lecture content (engineering disciplines, history of engineering, design process, ethics, sustainability, professional responsibilities) with hands-on laboratory work (introductory CAD, basic computer tools, programming primer, hands-on team design projects). Students develop a foundational understanding of what engineers actually do, gain exposure to engineering problem-solving, and begin building the team-based collaboration skills central to the engineering workplace.
The course sits within the Florida Statewide Course Numbering System (SCNS) under Engineering: General > Engineering Foundations and is offered at approximately 4 Florida public institutions — primarily as a pre-engineering exploratory option at Florida College System institutions with strong engineering preparation tracks. The relatively small institution count reflects the diversity of approaches to first-year engineering: some Florida institutions use EGN1002C (a substantively similar course at higher institution count) instead, others use specific discipline introductions (e.g., MAE1812 for mechanical engineering at FAU), others bundle the introduction into discipline-specific courses, and still others rely on incoming students to declare an engineering discipline directly. Students should consult the receiving SUS institution about how EGN1001C articulates to their specific engineering program.
EGN1001C serves a dual purpose: it provides exposure to engineering for students exploring whether to commit to an engineering major, and it begins the technical development of students who have already chosen engineering. The course is typically taken in the first or second semester of the engineering pre-major sequence. Strong performance in EGN1001C — particularly the team-design-project component — is an early indicator of likely success in the broader engineering curriculum.
Learning Outcomes
Required Outcomes
Upon successful completion of EGN1001C, students will be able to:
- Identify and describe the major engineering disciplines: civil, mechanical, electrical, computer, chemical, biomedical, aerospace, environmental, industrial, materials, and systems engineering; the relationships among disciplines; the typical job functions, employers, and career trajectories within each.
- Apply the engineering design process: problem identification and definition; specification development; concept generation and selection; design development; analysis and prototyping; testing and iteration; documentation and communication; the iterative nature of design.
- Apply engineering problem-solving methodology: structured approaches to ill-defined problems; engineering judgment under uncertainty; the role of approximation; the difference between an engineering solution and a mathematical solution; verification and validation.
- Apply introductory engineering measurement and dimensional analysis: the SI and U.S. customary unit systems; converting between systems; significant figures and uncertainty in engineering contexts; introductory error analysis; the importance of dimensional consistency.
- Use introductory engineering software tools: spreadsheet software (Excel) for engineering calculations; introduction to a CAD system (typically AutoCAD or similar); introduction to a computational tool (often MATLAB, Python, or both); the role of computer-based tools in engineering practice.
- Apply introductory programming concepts: variables; control flow (sequential, conditional, iterative); functions; basic data structures; the role of programming in modern engineering practice; the fact that nearly every modern engineering discipline now uses programming routinely.
- Apply principles of technical communication: engineering writing conventions; the engineering report format; technical drawings as a communication medium; oral presentation of engineering work; the importance of clear, accurate, and concise communication in engineering practice.
- Apply principles of engineering ethics and professional responsibility: the engineering codes of ethics (NSPE, IEEE, ASME, etc.); case studies in engineering ethics (often including Challenger, Bhopal, the Hyatt Regency walkway, modern AI ethics); the responsibility of engineers to public safety; the relationship between engineering practice and society.
- Apply principles of engineering sustainability at an introductory level: life-cycle thinking; environmental impact assessment; the role of engineering in addressing climate change; sustainable design principles; engineering for a circular economy.
- Apply principles of team-based work: effective team formation; assigning roles; meeting management; constructive disagreement; written and verbal communication within teams; project planning and timeline management; addressing free-rider and personality-conflict issues professionally.
- Successfully complete a team-based design project applying the engineering design process to a defined problem; document the project through written report and oral presentation.
- Apply principles of introductory engineering economics: time value of money at an introductory level; introductory cost analysis; the relationship between engineering decisions and economic outcomes.
- Apply principles of professional development: identifying engineering organizations and student chapters (IEEE, ASME, ASCE, AIChE, SAE, SHPE, NSBE, SWE, 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.
Optional Outcomes
- Apply introductory engineering analysis: simple statics or dynamics problems; basic electrical-circuit analysis; introductory thermodynamics; introductory chemistry applied to engineering — depending on instructor selection.
- Engage with specific industry tours, guest lecturers, or professional shadowing experiences: typical tour destinations include local engineering firms, manufacturing facilities, water-treatment plants, power-generation facilities, or aerospace/defense facilities (Florida-relevant employers may include L3Harris, Lockheed Martin, Northrop Grumman, NASA Kennedy Space Center, Disney Imagineering, AdventHealth, or similar).
- Engage with introductory entrepreneurship and innovation: design thinking; the lean-startup approach to engineering products; intellectual property at an introductory level.
- Engage with introductory data analysis for engineering: basic statistics; data visualization; the role of data in modern engineering practice.
- Engage with specific Florida engineering applications: aerospace at Kennedy Space Center; coastal and water-resources engineering; theme-park ride engineering; defense-systems engineering.
Major Topics
Required Topics
- Introduction to the Engineering Profession: What engineers do; the relationship between engineering and science, mathematics, and technology; engineering vs. engineering technology distinctions; engineering's role in society; the historical development of engineering as a profession.
- The Major Engineering Disciplines: Civil, mechanical, electrical, computer, chemical, biomedical, aerospace, environmental, industrial, materials, and systems engineering; representative job functions; typical employers; salary ranges; career trajectories.
- The Engineering Design Process: Problem definition; specification development; concept generation; concept selection (Pugh matrix or similar tools); design development; analysis and prototyping; testing and iteration; documentation; the iterative nature of real design.
- Engineering Problem-Solving: Structured approaches to ill-defined problems; engineering judgment under uncertainty; the role of approximation; verification and validation; the difference between engineering and pure-mathematical problem-solving.
- Engineering Measurement and Dimensional Analysis: SI and U.S. customary unit systems; conversion factors; significant figures and uncertainty; introductory error analysis; dimensional consistency in engineering equations.
- Engineering Software Tools (Introduction): Spreadsheet software for engineering calculations; introduction to a CAD system (typically AutoCAD); introduction to a computational/programming tool (often MATLAB, Python, or both); the role of software in modern engineering practice.
- Introductory Programming for Engineers: Variables and data types; control flow (if-statements, loops); functions; basic data structures; using programming as an engineering tool; the rapidly increasing role of programming across all engineering disciplines.
- Technical Communication: Engineering writing conventions; the engineering report format; abstracts and executive summaries; technical drawings as communication; oral presentations; the importance of clear, accurate communication in engineering.
- Engineering Ethics and Professional Responsibility: The engineering codes of ethics (NSPE, IEEE, ASME, ASCE); historical case studies (often Challenger, Hyatt Regency walkway, Bhopal, Ford Pinto); the engineer's responsibility to public safety; whistle-blowing and the ethics of disclosure; emerging ethics topics (AI, autonomous systems, privacy, sustainability).
- Engineering Sustainability: Life-cycle thinking; environmental impact assessment; the role of engineering in addressing climate change; sustainable design principles; the relationship between engineering choices and long-term consequences.
- Team-Based Engineering Work: Effective team formation; team-role assignment; meeting management; constructive disagreement and conflict resolution; project planning; the realities of team-based engineering practice.
- Team-Based Design Project: A semester-long team project applying the engineering design process to a defined problem (often a hands-on physical project — bridge design, robot, water-purification device, energy-efficient device, or similar). Includes problem definition, design development, prototyping, testing, written report, and oral presentation.
- Introductory Engineering Economics: Time value of money; simple cost analysis; the relationship between engineering decisions and economic outcomes.
- Professional Development: Engineering professional societies and student chapters; internships and co-op experiences; the FE exam; pathway to PE licensure; the engineering career and life-long learning.
Optional Topics
- Introductory Engineering Analysis: Selected introductory topics from statics, dynamics, electrical circuits, thermodynamics, or chemistry applied to engineering problems.
- Industry Tours and Guest Lecturers: Local engineering firms, manufacturing facilities, water-treatment plants, power-generation facilities; Florida-specific employers as available.
- Introductory Entrepreneurship and Innovation: Design thinking; lean-startup approaches; intellectual property at introductory level.
- Introductory Engineering Data Analysis: Basic statistics; data visualization; data-driven engineering decision-making.
- Florida Engineering Applications: Aerospace at KSC; coastal and water-resources engineering; theme-park ride engineering; defense-systems engineering; biomedical engineering at Florida health-system partners.
Resources & Tools
- Most-adopted textbooks at Florida institutions: Engineering Fundamentals: An Introduction to Engineering by Saeed Moaveni (Cengage) — among the most widely-adopted introductory engineering textbooks; Studying Engineering: A Road Map to a Rewarding Career by Raymond B. Landis (Discovery Press); Engineering by Design by Voland (Pearson); Introduction to Engineering Design and Problem Solving by Eide, Jenison, Mashaw, Northup (McGraw-Hill).
- Open-access alternatives: The OpenStax Pre-Engineering materials (where available); the Engineering Statics OER project; free first-year engineering materials from MIT OpenCourseWare and similar sources.
- Online learning platforms: Cengage MindTap (paired with Moaveni); Pearson MasteringEngineering; institution Canvas modules.
- Software tools (typical): Microsoft Excel; AutoCAD (free for students through Autodesk Education Community); SolidWorks (similar education licensing at some institutions); MATLAB (institution-licensed; free home-use through MATLAB Online); Python (free, with Anaconda or similar distribution).
- Engineering professional societies (student chapters): IEEE (Institute of Electrical and Electronics Engineers); ASME (American Society of Mechanical Engineers); ASCE (American Society of Civil Engineers); AIChE (American Institute of Chemical Engineers); SAE International; AIAA (American Institute of Aeronautics and Astronautics); BMES (Biomedical Engineering Society); SHPE (Society of Hispanic Professional Engineers); NSBE (National Society of Black Engineers); SWE (Society of Women Engineers); Tau Beta Pi (engineering honor society).
- Engineering competitions and student opportunities: ASCE Concrete Canoe and Steel Bridge competitions; SAE Formula and Baja off-road competitions; ASME Human-Powered Vehicle; the Florida Department of Transportation's State Road and Tollway Engineering competitions; FIRST Robotics-derived college engineering competitions; the NASA-funded Florida Space Grant Consortium (provides scholarships and undergraduate-research opportunities).
- FE exam information: The NCEES Fundamentals of Engineering exam; the FE Reference Handbook (free download from NCEES).
- Tutoring and support: Institution engineering learning centers; faculty office hours; engineering student-society peer mentoring; institution academic-success programs.
Career Pathways
EGN1001C is the foundation course for the entire Florida engineering career pipeline. Students completing the course progress to the engineering pre-major sequence (calculus, physics, chemistry, foundational engineering courses) and ultimately to specialty engineering BS programs. Specific Florida career pathways include:
- Aerospace Engineer / Astronautical Engineer — Florida is among the top aerospace-engineering states in the U.S., anchored by NASA Kennedy Space Center, Cape Canaveral Space Force Station, and the active commercial space sector (SpaceX, Blue Origin, Boeing). Major aerospace employers include Lockheed Martin (Orlando), Northrop Grumman (Melbourne), L3Harris (Melbourne, Palm Bay), Boeing (multiple Florida sites), Embraer (Melbourne).
- Defense Systems Engineer — Florida's substantial defense-engineering sector at L3Harris, Lockheed Martin, Northrop Grumman, Raytheon, and similar contractors.
- Mechanical Engineer — Florida manufacturing sector; 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 / Construction Manager — Florida's substantial infrastructure and construction sector; water-resources engineering for the state's water-management challenges.
- 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, and others.
- Industrial / Systems Engineer — Florida manufacturing, healthcare-systems engineering, supply-chain engineering at major Florida-based logistics employers.
- 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.
- Pathway to PE Licensure — EGN1001C is the foundation of the multi-year pathway to Professional Engineer licensure in Florida.
Special Information
Articulation and Transfer
EGN1001C articulation varies by SUS institution. Some Florida engineering programs accept EGN1001C as direct equivalent to their first-year engineering course; others require students to take a discipline-specific introduction at the SUS institution. Students should consult the receiving SUS institution's engineering department for specific articulation. A grade of C or higher is typically required at most institutions for the course to satisfy major prerequisites and to allow progression to higher-level engineering coursework.
EGN1001C vs. EGN1002C and Discipline-Specific Introductions
Florida institutions use varied SCNS codes for first-year engineering courses:
- EGN1001C — Introduction to Engineering, used at a small number of Florida institutions.
- EGN1002C — Engineering Concepts, used at a larger number of Florida institutions; substantively similar content.
- Discipline-specific introductions — many SUS institutions use discipline-specific first-year courses (e.g., MAE1812 Mechanical Engineering Design, EGM1310 Engineering Mechanics, etc.) instead of a generic engineering introduction.
Students should consult the receiving SUS institution about which course is preferred and how transfers are evaluated. The substantive content of EGN1001C and EGN1002C is similar enough that institutions typically accept them as equivalent for transfer purposes, but verification with the receiving institution is essential.
Position in the Engineering Curriculum
EGN1001C is typically taken in the first or second semester of the engineering pre-major sequence. The standard Florida engineering pathway includes:
- Year 1: EGN1001C/EGN1002C (this course or equivalent); MAC2311 (Calculus I); CHM2045/CHM2045L (General Chemistry I with Lab); ENC1101/ENC1102 (Composition).
- Year 2: MAC2312/MAC2313 (Calculus II/III); PHY2048/2048L and PHY2049/2049L (calculus-based physics); MAP2302 (Differential Equations); EGN2312 or EGM3520 (Statics); discipline-specific introductions.
- Years 3-4: Discipline-specific upper-division coursework at the SUS institution.
Prerequisites and Co-Requisites
Most institutions require concurrent or prior enrollment in MAC2311 (Calculus I), with appropriate placement in calculus or a prerequisite course (often MAC1140 Precalculus Algebra, MAC1147 Precalculus, or MAC1114 Trigonometry). Some institutions accept students with strong high-school mathematics directly. Engineering math placement is critical — students starting below MAC2311 typically extend their engineering degree timeline by 1-2 semesters per missing course.
Course Format and Workload
EGN1001C is typically a 3-credit integrated lecture-and-lab course meeting 3-5 hours per week (combining lecture and lab). Expect: regular textbook reading; weekly lab assignments (CAD work, programming exercises, hands-on team-design progress); a substantial team-design project across the semester; introductory engineering-software tutorials; 2-3 unit exams; an oral presentation of the team-design project. Out-of-class workload typically runs 6-9 hours per week, with the team-design project often requiring substantial additional time near the end of the semester.
Course Code Variations
Florida institutions use both EGN1001C and EGN1002C for substantively similar first-year engineering content. Course titles include "Introduction to Engineering," "Engineering Fundamentals," "Engineering Concepts," and similar. The course is typically 3 credits with integrated lab.