Course Description
EGS1006C, Introduction to the Engineering Profession, is the first-year orientation course for engineering students. Its purpose is decision support: to show students what the engineering disciplines actually are, what engineers do day to day, and what each degree path involves — early enough that a student can choose a major on information rather than on a guess.
The University of West Florida describes it as introducing "the student to engineering topics" and guiding "the student toward Electrical, Computer or Mechanical Engineering degree at UWF," with students getting "the opportunity to interact with current engineering students and practicing engineers from various engineering fields." It includes "a hands-on design component," and UWF states the purpose plainly: "the goal of the class is to help the student make an informed choice about career alternatives." The University of Central Florida's version carries the statewide title and is open to new students or by consent of instructor.
The University of Florida's implementation illustrates the model well: students rotate weekly through each engineering department in small groups, doing hands-on experiments in each, so that the choice of major is made after seeing all of them rather than before seeing any.
This is a small course with a large consequence. Engineering has a high rate of major-switching and attrition in the first two years, and a substantial part of that is students discovering in the sophomore year that they chose the wrong discipline. A one-credit course in the first term that prevents a wrong choice is worth considerably more than its credit value suggests.
⚠ One credit, not three — and the suffix varies
This is the practical detail students most often get wrong when planning a schedule. EGS1006C is a 1-credit course at the institutions that publish it, including UCF and the University of West Florida. It is not a 3-credit survey.
- University of Central Florida — EGS1006C, Introduction to the Engineering Profession, 1 credit. Prerequisite: new student status or consent of instructor. Delivered as a mix of required classroom attendance and online instruction.
- University of West Florida — EGS1006, Introduction to Engineering (no C suffix), 1 semester hour, taught out of the Department of Mechanical Engineering, with a hands-on design component.
- University of Florida — EGS1006, Introduction to Engineering (no C suffix), 1 credit, run as a rotation through the departments of the Herbert Wertheim College of Engineering.
The C suffix marks the integrated hands-on or laboratory component — the design activity, the departmental rotations, the demonstrations — which is contact time beyond a lecture hour even though the course carries a single credit. Institutions differ on whether they file it with the suffix; the credit value is the same either way, and the credit value is the more reliable signal.
EGS1006C appears at approximately 10 Florida institutions — a mix of state colleges with pre-engineering pathways and universities with engineering colleges — which is itself worth noting: the course exists on both sides of the 2+2 transfer route.
Learning Outcomes
Required Outcomes
- Describe the major engineering disciplines — civil, mechanical, electrical, computer, chemical, industrial, environmental, aerospace, biomedical, materials — and explain what practitioners in each actually do.
- Distinguish engineering from science, from engineering technology, and from the skilled trades, and explain what each contributes.
- Explain the engineering design process as an iterative sequence: problem definition, requirements and constraints, concept generation, analysis, prototyping, testing and refinement.
- Work effectively on a team to complete a hands-on design project, and reflect on the team's process as well as its product.
- Apply basic engineering problem-solving conventions: unit systems and conversion, significant figures, dimensional analysis, estimation and order-of-magnitude reasoning.
- Describe the engineering curriculum and its prerequisite structure, and explain why the calculus, physics and chemistry sequence gates everything that follows.
- Describe the path to professional licensure: an ABET-accredited degree, the Fundamentals of Engineering examination, qualifying experience, and the Principles and Practice of Engineering examination.
- Explain engineering ethics and professional responsibility, apply a code of ethics to a case, and explain the engineer's obligation to public safety.
- Communicate technical information clearly in written and oral form, including a team presentation.
- Use basic engineering tools appropriate to the first year — a technical computing environment, a spreadsheet, sketching, and introductory CAD where included.
- Describe engineering career paths, industries, salary expectations and the role of internships and cooperative education.
- Develop an individual academic plan toward a chosen engineering major, including the sequencing of prerequisites.
- Identify academic and professional resources: advising, tutoring, student chapters of professional societies, and undergraduate research opportunities.
Optional Outcomes
- Complete an introduction to programming for engineers — MATLAB, Python or C — where the institution includes it.
- Complete an introduction to CAD and technical drawing.
- Build and test a working prototype using rapid prototyping, 3D printing or microcontrollers (Arduino, Raspberry Pi).
- Analyse historical engineering failures — Tacoma Narrows, Challenger, Hyatt Regency walkway, Deepwater Horizon — as ethics and design case studies.
- Address sustainability, life-cycle thinking and the global and societal context of engineering work.
- Complete a site visit or industry tour.
- Prepare a résumé and prepare for the engineering career fair.
- Address diversity and inclusion in the engineering profession and the persistence of underrepresentation.
Major Topics
Required Topics
- What engineering is: the profession, its history, and its relationship to science, technology and mathematics
- Survey of the engineering disciplines, with practitioners or faculty from each where the institution can arrange it
- Engineering versus engineering technology: the curricular difference, the career difference, and the licensure difference
- The engineering design process and its iterative nature; requirements, constraints and trade-offs
- Team-based design project: problem definition through build and test
- Teamwork, project management and technical communication
- Engineering fundamentals: units and unit systems, conversions, significant figures, dimensional analysis, estimation
- Data presentation: graphs, tables and the conventions of technical reporting
- The engineering curriculum: the mathematics, physics and chemistry sequence, prerequisite chains, and typical four-year plans
- ABET accreditation: what it is and why it matters for licensure and employment
- Professional licensure: the FE examination, engineer intern status, qualifying experience, and the PE examination
- Engineering ethics: codes of ethics (NSPE, ASCE, IEEE, ASME), case studies, whistleblowing, and public safety as the paramount obligation
- Careers, industries and employment: what entry-level engineers do, salary ranges, graduate study, and the value of internships and co-ops
- Academic success in engineering: study strategies, problem-solving practice, use of office hours, and the realities of the first two years
- Professional societies and student chapters; undergraduate research and design competitions
Optional Topics
- Introduction to programming for engineers (MATLAB, Python, C)
- Introduction to CAD and technical sketching
- Prototyping: 3D printing, microcontrollers, basic fabrication and shop safety
- Engineering failure case studies
- Sustainability, life-cycle assessment and engineering for global development
- Entrepreneurship and innovation in engineering
- Industry site visits and guest practitioners
- Résumé preparation and career fair readiness
- Diversity, inclusion and retention in engineering
Resources & Tools
- Studying Engineering: A Road Map to a Rewarding Career (Raymond Landis) is the most widely adopted text for courses of this type and is written specifically about succeeding in an engineering programme rather than about engineering content.
- Introduction to Engineering (Wickert & Lewis), Engineering Fundamentals: An Introduction to Engineering (Moaveni) and Exploring Engineering (Kosky et al.) are the common alternatives where the course carries more technical content.
- Thinking Like an Engineer (Stephan et al.) is frequent where the course includes problem-solving and spreadsheet or MATLAB work.
- Many sections use no textbook at all, relying on departmental materials, guest presentations and design project briefs — appropriate for a one-credit course.
- Software introduced at this level: MATLAB (site-licensed at every Florida public university with engineering), Excel, and CAD packages — SolidWorks, AutoCAD, Fusion 360 or the free Onshape. Arduino and Raspberry Pi appear in hands-on sections.
- Accreditation and licensure: ABET, which accredits the engineering programmes these students are entering; the NCEES, which administers the FE and PE examinations and publishes the FE Reference Handbook free to examinees; and the Florida Board of Professional Engineers with its administrative arm the Florida Engineers Management Corporation, which licenses engineers in this state.
- Professional societies with active Florida student chapters: ASCE, ASME, IEEE, AIChE, AIAA, IISE, NSPE, plus NSBE, SHPE and SWE. Joining in the first year is the ordinary route to internships and is exactly what this course exists to tell students.
- Florida-specific: the Florida Engineering Society; the Statewide Course Numbering System and the Florida Engineering pre-professional common prerequisites, which govern the 2+2 transfer path from a Florida College System A.A. into an engineering programme — genuinely important for the many students who take this course at a state college.
Career Pathways
- The engineering disciplines themselves — this course is a gateway rather than a qualification, and its purpose is to help a student choose among: Civil Engineer (SOC 17-2051), Mechanical Engineer (17-2141), Electrical Engineer (17-2071), Computer Hardware Engineer (17-2061), Chemical Engineer (17-2041), Industrial Engineer (17-2112), Environmental Engineer (17-2081), Aerospace Engineer (17-2011), Biomedical Engineer (17-2031) and Materials Engineer (17-2131).
- ⚠ Professional Engineer licensure — the path the course explains, and the reason ABET accreditation matters: an ABET-accredited bachelor's degree, the FE examination (usually taken in the senior year), four years of qualifying experience under a licensed PE, and the PE examination, administered in Florida by the Board of Professional Engineers. Not every engineer becomes licensed — it is essential in civil, structural and consulting practice and less common in some industry roles — but the choice should be informed rather than accidental, which is why it is taught in the first term.
- Engineering Technology — SOC 17-3020 series. A distinct and legitimate path with different mathematics and a different licensure position; students who discover in this course that they prefer applied and hands-on work over analysis should know it exists.
- Graduate study and research — SOC 25-1032 (Engineering Teachers, Postsecondary) and research roles; the course typically introduces undergraduate research opportunities.
- Florida employers and sectors students will hear about in this course: the aerospace and space sector on the Space Coast — NASA Kennedy Space Center, SpaceX, Blue Origin, Boeing, Lockheed Martin, Northrop Grumman and L3Harris in Melbourne and Palm Bay; the simulation and training cluster in Orlando; the Florida Department of Transportation and the large civil consulting firms; the construction sector; Florida Power & Light and the utilities; medical device and biotechnology firms; the ports and marine industry; and the water management districts. Florida's engineering employment is concentrated in aerospace, defence, construction, transportation and utilities in a way that shapes which disciplines have the strongest in-state demand.
Special Information
Position in the curriculum
EGS1006C is a first-term, first-year course. It is taken alongside the opening mathematics and chemistry courses — calculus I or precalculus depending on placement — and it has no engineering prerequisites because it is designed for students who have not chosen a discipline yet. UCF's prerequisite of "new student status or consent of instructor" makes the intent explicit: this course is for people at the start.
⚠ The 2+2 transfer context — the most important planning point
Many Florida students begin engineering at a state college and transfer to a university with an engineering programme. That route works, and it is well supported by the Statewide Course Numbering System, but the binding constraint is the mathematics and science sequence, not this course. The engineering common prerequisites — calculus I through III, differential equations, calculus-based physics with laboratories, and chemistry — are what a receiving programme requires, and a student who arrives having completed EGS1006C but not calculus II is not on track.
The practical advice this course should give and does not always: start calculus in the first term if you place into it, and treat the mathematics sequence as the schedule's controlling path. Engineering degrees have long prerequisite chains, and a term's delay in calculus generally propagates into a delayed graduation rather than being absorbed.
Note also that engineering technology is a different pathway with different mathematics: engineering technology calculus (EGN2045, EGN3046) typically does not satisfy MAC2311/MAC2312 for engineering transfer. A student who wants to become a licensed engineer must take the engineering mathematics sequence. This asymmetry catches students every year and is worth confirming with an adviser rather than inferring from course titles.
Prerequisites narrative
Effectively none. UCF requires new student status or instructor consent; UWF and UF list none. Some institutions restrict the course to declared engineering or pre-engineering students, or to students in a first-year engineering learning community. Mathematics placement is not usually a prerequisite for this course but is the constraint on everything taken alongside it.
Course format and workload
One credit, with contact time above one hour per week where the hands-on or laboratory component is integrated — the C suffix marks that. Delivery varies more than for most courses: UCF combines required classroom attendance with online instruction; UF runs departmental rotations in small groups; UWF includes a hands-on design component and interaction with practising engineers. Assessment is typically participation, a team design project and presentation, short reflective assignments, and an academic plan. The workload is light in absolute terms and students should not treat it as filler — the decisions this course informs are the expensive ones.
Transfer and articulation
EGS1006C is a 1000-level SCNS course and carries the statewide equivalency guarantee among Florida public institutions. In practice it usually transfers as elective credit rather than satisfying a requirement, because many engineering programmes require their own first-year introduction course — often a discipline-specific one taught by the department the student is entering, and often carrying an ABET student-outcome assessment role that a transferred course cannot fill. A student transferring in should expect to take the receiving institution's version and should not count on this one substituting. That is not a defect: at one credit, it is a small cost, and the receiving course does something the sending one cannot.
Course-code variations across Florida
The EGS prefix is engineering support courses — the courses shared across engineering disciplines. EGS1006 and EGS1006C are this course under either suffix; EGS1111-range numbers carry engineering graphics and CAD at some institutions; EGS3441 is engineering statistics; EGS4032 is professional ethics (a separate 2-credit course at UWF, indicating that where ethics is treated seriously it gets its own number). The EGN prefix carries the shared engineering core — statics (EGN2312/EGN3311), dynamics (EGN2322/EGN3321), mechanics of materials (EGN2332C/EGN3331C), thermodynamics, engineering economics — and discipline prefixes (CES, CGN, EEL, EML, ECH, EIN, EAS) carry the majors. Discipline-specific introduction courses also exist at some institutions and are not equivalent to this one.