First Year Engineering Laboratory

Course Description

EGN1004L – First Year Engineering Laboratory is a 1-2 credit-hour laboratory-only course that provides first-year engineering students with hands-on engineering experience through structured laboratory exercises and design projects. The "L" suffix in the course code denotes a laboratory-only course (without an integrated lecture component) — typically a companion to a separate first-year engineering lecture course (EGN1001C, EGN1002C, or EGN1007C). The course is designed to build foundational engineering practice skills, expose students to multiple engineering disciplines through hands-on activities, and develop the laboratory practices, teamwork, and engineering documentation skills that support engineering education and practice.

Course content varies among Florida institutions but typically includes hands-on engineering design projects (often team-based), introduction to engineering measurement and instrumentation, basic prototyping (3D printing, simple electronics, basic mechanical fabrication), and engineering communication through laboratory reports and team presentations. Some institutions structure EGN1004L around discipline-specific modules introducing students to mechanical, electrical, civil, chemical, and other engineering fields; others structure it around a sustained team-based design project.

EGN1004L is a Florida common course offered at approximately 2 Florida institutions. Because the course is offered at relatively few institutions, content varies significantly across programs. Students should consult their specific institution for the current syllabus and emphasis. EGN1004L transfers as the equivalent course at all Florida public postsecondary institutions per SCNS articulation policy where the receiving institution accepts the course.

Learning Outcomes

Required Outcomes

Specific outcomes vary across Florida institutions offering EGN1004L. Common outcomes typically include:

• Apply engineering laboratory practices, including laboratory safety, the proper use of laboratory equipment and tools, accurate data recording, and laboratory notebook keeping.
• Apply foundational engineering measurement at introductory level, including the use of common measurement instruments (calipers, multimeters, scales, oscilloscopes); the relationship between measurement and engineering decision-making; introduction to measurement uncertainty.
• Apply foundational prototyping skills, including 3D printing (model preparation, printing, finishing); basic electronics breadboarding; basic mechanical fabrication (where included); the iteration between design and prototype.
• Apply the engineering design process through hands-on project work, including problem identification, concept generation, evaluation, prototyping, testing, and iteration.
• Apply engineering teamwork in laboratory and project contexts, including effective participation in engineering teams, managing collaborative projects, and managing conflict.
• Demonstrate foundational engineering communication, including laboratory reports (objective, methodology, results, discussion, conclusion); engineering presentations; the documentation of engineering work.
• Apply foundational engineering computational tools as needed for laboratory work, including Excel for data analysis, programming environments (typically MATLAB or Python at introductory level), and CAD software at introductory level.
• Engage with multiple engineering disciplines through hands-on activities, supporting informed decisions about engineering specialization.
• Apply engineering safety at the introductory level, including basic shop safety, electrical safety, chemical safety, and the safety culture of engineering practice.

Optional Outcomes (Vary by Institution)

• Develop a substantive design project through extended team-based work, often culminating in a final presentation, demonstration, or competition.
• Apply introductory programming for engineers, particularly with hardware integration (Arduino, Raspberry Pi, microcontrollers).
• Apply introductory engineering analysis in laboratory contexts (statics analysis, basic circuits analysis, materials testing introduction).
• Engage with engineering professional society activities at the institutional level (visits to student chapters of ASME, ASCE, IEEE, etc.).
• Engage with industry-relevant projects through partnerships with local engineering employers.

Major Topics

Required Topics

• Engineering Laboratory Practices: Laboratory safety; the proper use of laboratory equipment and tools; the laboratory notebook (date, objective, procedures, observations, signatures); accurate data recording; managing the laboratory environment.
• Foundational Engineering Measurement: Common measurement instruments (calipers, micrometers, scales, multimeters, oscilloscopes — depending on emphasis); precision vs. accuracy; significant figures; introduction to measurement uncertainty.
• Foundational Prototyping: 3D printing — model preparation in CAD, slicing software, printer operation, post-processing; basic electronics — breadboarding, basic component identification, simple circuits; basic mechanical fabrication where included (band saw, drill press, basic hand tools).
• The Engineering Design Process — Applied: Through hands-on team-based project work; problem identification; requirements; concept generation; evaluation; prototyping; testing; iteration; the iterative nature of design.
• Engineering Teamwork: Effective participation; role allocation; collaborative work; managing conflict; the role of teamwork in engineering practice.
• Engineering Communication: Laboratory reports (purpose, methodology, results, discussion, conclusion); engineering presentations; the documentation of work.
• Engineering Software Tools: Excel for data analysis at introductory level; programming environments (MATLAB or Python at introductory level); CAD software at introductory level for design work.
• Engineering Discipline Exposure: Hands-on activities introducing students to mechanical engineering (mechanical systems, machine elements); electrical engineering (circuits, electronics); civil engineering (structures, surveying); chemical engineering (reactions, processes); and other disciplines depending on institutional emphasis.
• Engineering Safety Culture: Basic shop safety (PPE, awareness, machine guarding); electrical safety; chemical safety where included; the engineering safety culture; OSHA awareness at introductory level.

Optional Topics (Vary by Institution)

• Sustained Design Project: A multi-week or semester-long team design project culminating in a final demonstration, competition, or presentation.
• Microcontroller and Hardware Programming: Arduino or Raspberry Pi programming; sensor integration; the relationship between programming and physical hardware.
• Discipline-Specific Modules: Specific exposure to selected engineering disciplines, sometimes structured as rotations through different department laboratories.
• Industry Partnerships: Projects with local industry partners; site visits to engineering employers.
• Engineering Professional Society Engagement: Engagement with ASME, ASCE, IEEE, AIChE, AIAA, IISE, and other student chapters.

Resources & Tools

• Common Texts: Institutional laboratory manuals (typically not commercial textbooks); supplementary materials may include Engineering Fundamentals: An Introduction to Engineering (Moaveni) or similar first-year engineering texts
• Lab Equipment: Engineering shop tools (band saws, drill presses, hand tools); 3D printers; electronics breadboards and component sets; multimeters and oscilloscopes; computer lab with engineering software access; safety equipment (PPE, safety glasses, ventilation)
• Software: CAD software at introductory level (AutoCAD, SolidWorks, Inventor, Fusion 360); MATLAB or Python at introductory level; Excel
• Reference Standards: NSPE Code of Ethics for Engineers; ABET accreditation criteria; SI units (NIST publications)
• Reference Organizations: American Society for Engineering Education (asee.org); discipline-specific professional societies (ASME, ASCE, IEEE, AIChE, AIAA, IISE, BMES)

Career Pathways

EGN1004L is a foundational course supporting all engineering career pathways. Specific career-relevant outcomes:

• Engineering Discipline Decision — Hands-on exposure to multiple engineering disciplines supports informed major selection.
• Engineering Identity and Confidence — Hands-on success in laboratory work builds engineering identity and confidence that support persistence through challenging engineering coursework.
• Foundational Practice Skills — Laboratory practices, prototyping skills, teamwork, and communication established here support all subsequent engineering coursework and career.
• Pre-Internship Preparation — Hands-on engineering work supports later success in engineering internships.

Special Information

The "L" Course Code Convention

The "L" suffix in EGN1004L indicates a laboratory-only course in Florida's Statewide Course Numbering System. Such courses provide laboratory experience separate from the lecture component, often as a companion to a separate lecture course. Some Florida engineering programs structure first-year engineering as a lecture course (EGN1001C, EGN1002C, or EGN1007C) plus a separate laboratory (EGN1004L); others integrate lecture and laboratory in the lecture course's "C" indicator.

Variation Across Institutions

Because EGN1004L is offered at relatively few Florida institutions (approximately 2), the specific structure and content varies significantly. Some programs use EGN1004L as a discipline-exploration course with rotations through multiple engineering departments; others use it as a sustained team-based design project; still others integrate it more closely with a specific paired lecture course. Students should consult their specific institution's current syllabus.

General Education and Transfer

EGN1004L is a Florida common course number that transfers as the equivalent course at all Florida public postsecondary institutions per SCNS articulation policy where the receiving institution accepts the course. Students transferring between institutions should consult both the sending and receiving institutions about specific articulation in the major, as the substantial content variation may affect application.

Position in the Engineering Curriculum

EGN1004L is typically taken in the first year of engineering study, often the first semester. The course establishes hands-on engineering practice foundations that support subsequent engineering coursework.

The Importance of Hands-On Engineering Experience

Research on engineering student retention consistently identifies hands-on first-year experience as a critical factor in engineering persistence. Students who engage in active, hands-on engineering work in their first year typically demonstrate stronger engineering identity, better academic outcomes, and higher rates of program completion than those whose first-year experience is exclusively lecture-based. EGN1004L specifically addresses this need by providing dedicated laboratory engagement.