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Engineering Lab Report Guide: Complete Structure & Examples

An engineering lab report follows a standardized structure: Title, Abstract, Introduction, Methods, Results, Discussion, Conclusions, References, and Appendices. Each engineering discipline (mechanical, electrical, chemical, civil) has specific formatting expectations. This guide provides discipline-specific templates, annotated examples, and a checklist to ensure your report meets academic standards and earns top grades. Common mistakes include weak abstracts, passive voice overuse, inadequate data analysis, and missing error analysis.

Why Engineering LabReports Need a Precise Structure

Engineering lab reports aren’t just assignments—they’re training for the technical documentation you’ll write throughout your career. Whether you’re documenting experimental results in a mechanical engineering materials lab or presenting circuit analysis in an electrical engineering course, your report must communicate findings with clarity, precision, and scientific rigor.

Unlike humanities essays, engineering lab reports follow strict conventions rooted in scientific communication standards. According to IEEE (Institute of Electrical and Electronics Engineers), technical documents should prioritize clarity, completeness, and conciseness over literary flourish.¹ This means your report needs a logical flow that allows readers to reproduce your work, evaluate your methods, and understand your conclusions.

Many students lose points not because their experiments are flawed, but because their reporting doesn’t meet disciplinary expectations. A well-structured lab report demonstrates:

  • Objective analysis (not just describing what happened)
  • Scientific reasoning (connecting data to conclusions)
  • Professional communication (following technical writing conventions)
  • Ethical documentation (proper citation and data integrity)

This guide covers every section of an engineering lab report, highlights discipline-specific requirements, provides annotated examples, and identifies common pitfalls. You’ll learn exactly what professors look for and how to structure your report for maximum impact.

1. Standard Engineering Lab Report Structure

The IMRaD Framework (and Its Engineering Adaptations)

Most engineering lab reports follow the IMRaD structure: Introduction, Methods, Results, and Discussion. However, engineering typically includes additional sections:

  1. Title Page (sometimes separate)
  2. Abstract (150-250 words)
  3. Table of Contents (for longer reports)
  4. Introduction
  5. Experimental Apparatus / Materials and Methods
  6. Results (Data Presentation)
  7. Discussion (Data Analysis)
  8. Conclusions
  9. Recommendations (optional, for applied reports)
  10. References / Bibliography
  11. Appendices (raw data, calculations, supplementary figures)

Let’s examine each section in detail.

1.1 Title Page & Title

What to include:

  • Clear, descriptive title (avoid “Lab Report #5”)
  • Your name, student ID, lab partner names
  • Course name/number
  • Instructor’s name
  • Date of submission
  • Institution (often required)

Title writing tips:

  • Use specific technical terms: “Investigation of Tensile Strength in PLA vs. ABS 3D-Printed Specimens”
  • Avoid vague titles: “Strength Test” or “Materials Lab”
  • Include key variables or parameters

Engineering discipline variations:

  • Mechanical/Civil: Emphasize materials, properties, measurements
  • Electrical: Include circuit names, component values, frequencies
  • Chemical: Note chemicals, concentrations, temperatures, pressures
  • All: Follow IEEE or ASME capitalization guidelines²

1.2 Abstract

The abstract is your report’s executive summary—often the most-read section. It must stand alone and answer four questions:

  1. Purpose: What did you study/test/determine?
  2. Methods: What experimental setup/apparatus did you use?
  3. Key Results: What were the most important quantitative findings?
  4. Conclusion: What do the results mean or imply?

Length: 150-250 words (typically one paragraph). DO NOT include citations in the abstract. Write it last, after completing the entire report.

Example abstract (mechanical engineering materials lab):

> This experiment investigated the tensile properties of polylactic acid (PLA) and acrylonitrile butadiene styrene (ABS) thermoplastic specimens fabricated via fused deposition modeling (FDM). Standard ASTM D638 Type V specimens were printed at 100% infill density and tested using an Instron 3344 tensile tester at a crosshead speed of 5 mm/min. Results showed PLA exhibited higher ultimate tensile strength (52.3 ± 2.1 MPa) compared to ABS (38.7 ± 3.4 MPa), while ABS demonstrated greater elongation at break (5.8% vs. 3.2% for PLA). The findings indicate that PLA provides superior strength for load-bearing applications, while ABS offers better flexibility for impact-resistant components. These results support material selection guidelines for FDM 3D printing in rapid prototyping.

Why this works:

  • Specific materials (PLA, ABS)
  • Clear method (ASTM standard, machine model, speed)
  • Quantitative results with units and uncertainty
  • Direct conclusion linking results to applications

1.3 Introduction

The introduction sets context and states objectives. Structure it as an inverted pyramid:

Paragraph 1: Broad context (Why this topic matters in engineering)

  • Real-world application or engineering problem
  • Industry relevance

Paragraph 2: Background (What’s already known)

  • Brief literature review (cite relevant sources)
  • Theoretical principles or equations

Paragraph 3: Gap/Purpose (Why your experiment matters)

  • What specific question are you answering?
  • What gap in knowledge or application does this fill?

Paragraph 4: Objectives & Scope (What you did)

  • State specific objectives (e.g., “This experiment aims to determine the coefficient of friction for three surface finishes…”)
  • Mention experimental approach at high level
  • Optionally: preview report structure

Length: 1-1.5 pages for undergraduate labs

Introduction checklist:

  • Ends with clear statement of objectives
  • Cites relevant sources (textbooks, papers, standards)
  • Uses formal engineering language
  • Avoids first-person (“we” or “I”) in scientific contexts (check your discipline’s preference)

Example opening sentence:

  • ✅ Good: “Bearings are critical components in rotating machinery, with friction directly affecting efficiency and wear rates.”
  • ❌ Avoid: “For our lab, we tested bearings to see how they work.”

1.4 Experimental Apparatus / Materials and Methods

This section must provide enough detail for someone to reproduce your experiment exactly. Use past tense and passive voice (traditional engineering convention), though some disciplines now accept first-person plural (“we assembled…”).

Essential components:

Equipment List

  • Instrument names and models: “MTS 810 hydraulic test frame” not “the testing machine”
  • Measurement ranges and accuracy: “Data acquisition system (NI USB-6000, ±0.1% accuracy)”
  • Calibration status: “All instruments were calibrated prior to testing according to manufacturer specifications”

Materials/Components

  • Materials: Material specifications (e.g., “AISI 1018 cold-rolled steel, 6.35 mm diameter”)
  • Suppliers/catalog numbers if critical: “Nylon screws, McMaster-Carr #91290A191”
  • Preparation: Heat treatment, machining processes, surface finishes

Procedure (Step-by-Step)

  • Sequential, logical order
  • Include safety precautions (important in engineering!)
  • Settings: voltages, speeds, temperatures, loads
  • Measurement intervals: “Strain readings were recorded at 0.5-second intervals”
  • Data collection method: manual readings, DAQ system, software (LabVIEW version)

Common mistake: Skipping details. Assume your reader is a competent engineer but doesn’t know your specific setup.

Example methods paragraph (electrical engineering):

> The circuit was constructed on a breadboard using the components listed in Table 1. A function generator (Agilent 33220A) provided a sinusoidal input signal with frequencies ranging from 100 Hz to 10 kHz. Input and output voltages were measured using two digital oscilloscopes (Tektronix TBS1102B) connected to Channel 1 and Channel 2, respectively. For each frequency, the peak-to-peak voltages were recorded, and the phase difference was measured using the oscilloscope’s built-in cursor measurement. All measurements were taken after the circuit reached steady-state (approximately 2 seconds after frequency change).

1.5 Results

The results section presents what you found—no interpretation, no explanations of why. Just the data.

Components:

Tables

  • Label: “Table 1”, “Table 2”, etc.
  • Title above table, descriptive but concise
  • Column headings with units in parentheses
  • No vertical lines (use horizontal rules only)
  • Example: Table 1 | Tensile Test Results for PLA and ABS Specimens

Figures (Graphs, Diagrams, Photos)

  • Label: “Figure 1”, “Figure 2”, etc.
  • Title/caption below figure
  • Include: What’s plotted, units, key features
  • Captions should be self-contained: readers should understand the figure without reading the text
  • Example: Figure 3 | Bode Plot of Low-Pass Filter Response Showing -3 dB Cutoff Frequency at 1.45 kHz

Text Descriptions

  • Briefly describe trends in words
  • Reference figures/tables: “As shown in Figure 2…”
  • Highlight key data points: “The maximum current measured was 3.2 A at 12 V”
  • Do NOT interpret results here (save for Discussion)

Engineering-specific considerations:

  • Uncertainty analysis: Include measurement uncertainty in tables/error bars
  • Significant figures: Match measurement precision (don’t report 12.34567 mA if your meter reads ±0.1 mA)
  • Units: Always include units (SI units preferred in engineering)
  • Engineering drawings: If required, follow ASME Y14.5 standards for dimensioning and tolerancing³

1.6 Discussion

This is where you interpret the results. It’s the most important section for demonstrating understanding.

Structure:

  1. Interpretation of key results (Answer “What does this mean?”)
  • Compare experimental values to theoretical predictions
  • Calculate percent error and discuss sources of error
  • Explain trends and anomalies
  1. Sources of error (critical for engineering)
  • Systematic errors: Instrument calibration, zero offset, measurement bias
  • Random errors: Instrument precision, human reading variations
  • Experimental design flaws: Heat losses, friction not accounted for, assumptions violated
  • Quantify where possible: “The thermocouple had an accuracy of ±2°C, contributing approximately 5% uncertainty to temperature-dependent calculations.”
  1. Comparison to theory/literature
  • Cite relevant sources: “The experimental Young’s modulus of 2.1 GPa compares favorably with the ASTM standard value of 2.2 GPa for PLA (Smith et al., 2023).”
  • Discuss discrepancies: “The 8% lower observed value likely resulted from_print layer adhesion effects not accounted for in bulk material properties.”
  1. Implications for engineering practice
  • How do results inform design decisions?
  • Safety factors based on experimental data
  • Recommendations for future implementations
  1. Limitations
  • Acknowledge constraints: small sample size, limited conditions, prototype nature
  • Honesty builds credibility
  1. Future work (optional)
  • Next experiments to address unanswered questions
  • Improvements to apparatus or methodology

Discussion length: Typically 2-3 pages—longer than Results.

Example discussion snippet:

> The measured bending moment capacity of the aluminum beam (124 N·m) exceeded the theoretical Euler-Bernoulli prediction of 118 N·m by 5%. This discrepancy is within the combined measurement uncertainty of ±7% and may be attributed to material grain orientation effects not considered in the isotropic model. The observed failure initiated at the fixed support, consistent with maximum moment predictions. However, unexpected plastic deformation occurred at 90% of predicted load, suggesting residual stresses from the machining process. These findings underscore the importance of incorporating safety factors of at least 2.0 for similar aluminum structures in applications where cyclic loading is expected.

1.7 Conclusions

NOT a repetition of results. Provide closure:

  • Restatekey findings without introducing new data
  • State whether objectives were met
  • Mention broader implications
  • Keep concise: 1-2 paragraphs for undergraduate labs

Example conclusion:

> This experiment successfully determined the thermal conductivity of insulating foam samples using the guarded hot plate method. The measured conductivity of 0.035 ± 0.003 W/(m·K) meets the manufacturer’s specification of 0.034 W/(m·K), validating the experimental approach. Results confirm that this foam provides adequate insulation for building envelope applications, potentially reducing heating energy consumption by 15-20% compared to conventional fiberglass. Future work should investigate performance across humidity variations to assess moisture effects.

1.8 References / Bibliography

Citation styles:

  • Mechanical, Civil, Chemical Engineering: Often APA or custom house style
  • Electrical/Computer Engineering: IEEE format (numbered citations in order of appearance)⁴
  • General science: APA or author-date (Harvard)

Key resources:

Never cite:

  • Wikipedia (use as starting point, find primary sources)
  • Chegg/Course Hero (unreliable, often violate academic integrity)
  • Random blogs (unless industry expert with credentials)

1.9 Appendices

Place supplementary material here:

  • Raw data tables (full 200+ rows, not summarized)
  • Detailed calculations
  • Code listings
  • Complex schematics
  • Calibration certificates

Each appendix gets a letter: “Appendix A: Full Raw Data Set”, “Appendix B: MATLAB Analysis Script”

Refer to appendices in text: “Detailed calculations are provided in Appendix B.”

2. Discipline-Specific Variations

Engineering isn’t monolithic. Different disciplines emphasize different aspects.

2.1 Mechanical, Civil, and Aerospace Engineering

Focus: Materials, structures, mechanics, dynamics

Key elements:

  • Free-body diagrams (FBDs) included in Methods or Results
  • Stress-strain curves, equations: σ = F/A, ε = ΔL/L₀
  • Material specifications: ASTM standards (ASTM E8 for tension testing, ASTM D638 for plastics)
  • Units: SI units (MPa, N·m, mm) or US customary (ksi, in·lb) depending on program
  • Uncertainty analysis: Propagation of uncertainty formulas
  • Safety factors: Explicit discussion in Conclusions

Example mechanical engineering specifics:

> Table 2 | Von Mises Stress Results for Cantilever Beam
> Load (N) | Deflection (mm) | Calculated σ_von Mises (MPa) | Factor of Safety
> 100 | 2.3 | 45.2 | 3.2
> 200 | 4.7 | 90.4 | 1.6
> 250 | 6.1 | 113.0 | 1.3*

*Note: Factor of safety below 2.0 approaches yield strength of AISI 1020 steel (σ_y = 295 MPa), indicating design limitation.

2.2 Electrical, Electronics, and Computer Engineering

Focus: Circuits, signals, systems, measurements

Key elements:

  • Schematics: Clearly labeled circuit diagrams in Results or Methods
  • Component values: Resistances, capacitance, inductance with tolerances (e.g., 10 kΩ ± 5%)
  • Bode plots, Nyquist plots, oscilloscope traces
  • Frequency domain analysis: dB magnitude, phase angle
  • Signal integrity: Rise time, overshoot, noise
  • Units: Hz, V, A, Ω, dB, radians
  • Standards: IEEE citation style required⁴

Example electrical engineering specifics:

> Figure 4 | Frequency Response of Second-Order Low-Pass Filter
> The measured -3 dB cutoff frequency was 1.42 kHz (theoretical: 1.59 kHz), representing a 10.7% deviation attributable to component tolerance accumulation. The phase shift at cutoff was -63°, close to the theoretical -90°/2 = -45° for a second-order system, suggesting minimal parasitic capacitance in the op-amp circuit.

2.3 Chemical and Biomolecular Engineering

Focus: Reactors, separations, thermodynamics, kinetics

Key elements:

  • Process flow diagrams (PFDs) and P&ID (Piping and Instrumentation Diagrams)
  • Material balances: Inlet = Outlet + Accumulation – Consumption
  • Energy balances: Enthalpy calculations, heat duty
  • Reactors: Batch, CSTR, PFR specifications
  • Equilibrium constants, rate constants, conversion
  • Units: mol, L, atm, K, kJ/mol
  • Safety considerations: Hazardous chemicals, pressure relief, containment

Example chemical engineering specifics:

> Table 3 | Material Balance for Distillation Column
> Stream | Flow (mol/h) | Methanol | Water
> Feed | 1000 | 0.40 | 0.60
> Distillate | 400 | 0.95 | 0.05
> Bottoms | 600 | 0.02 | 0.98
> Overall recovery: Methanol 95%, Water 98%

2.4 Environmental and Civil Engineering

Focus: Water, soil, air, structures, transportation

Key elements:

  • Site plans, soil profiles, hydrologic maps
  • Standards: EPA methods, ASTM, ACI (concrete), AISC (steel)
  • Statistical analysis: Precipitation frequency, contaminant concentration distributions
  • GIS data, remote sensing
  • Environmental impact metrics: BOD, COD, TSS, PM2.5
  • Units: mg/L, m³/s, kPa, mm/hr

3. Formatting & Technical Writing Style

3.1 Voice: Passive vs. Active

Traditional engineering convention: Passive voice (“The beam was loaded…” not “We loaded the beam…”). This emphasizes the experiment, not the experimenter.

Modern trend: Many journals and instructors now accept first-person plural (“We applied the load…”) for clarity.

Check with your professor. If unsure, use passive voice for safety.

Examples:

  • ✅ Passive: “The voltage was measured using a digital multimeter.”
  • ✅ Active (if allowed): “We measured the voltage using a digital multimeter.”
  • ❌ Avoid first-person singular in formal reports: “I measured the voltage…” (unless your program explicitly uses it)

3.2 Tense

  • Methods: Past tense (“The sample was heated”, “Data were recorded”)
  • Results: Past tense (“Figure 2 shows the trend” not “Figure 2 showed”)
  • Discussion/Conclusions: Present tense for established facts (“These results suggest…”, “The data indicate…”), past tense for specific experimental findings (“The observed efficiency was higher than expected”)

3.3 Abbreviations and Acronyms

  • Spell out first use: “National Instruments (NI) data acquisition system”
  • Subsequent use: “NI USB-6000”
  • Standard abbreviations (no definition needed): ASTM, IEEE, AISI, RMS, DC, AC, PID

3.4 Numbers and Units

Key rules:

  • SI units preferred in engineering (meters, kilograms, seconds, Newtons, Pascals)
  • One space between number and unit: “25 mm” not “25mm”
  • Significant figures: Match measurement precision
  • Percentages: Use “%” symbol, no space: “5%”
  • Decimals: Always include leading zero: “0.5” not “.5”

3.5 Figures and Tables

Figure best practices:

  • High resolution (300+ DPI for submission)
  • Clear line weights (≥ 0.5 pt for lines)
  • Readable fonts (Arial, Times New Roman, 8-12 pt)
  • Color vs. black-and-white: Ensure grayscale versions are still distinguishable
  • Gridlines: Use sparingly; major gridlines only

Table best practices:

  • Horizontal rules only (no vertical lines)
  • Right-align numbers (decimal alignment)
  • Units in column header in parentheses: “Stress (MPa)”
  • Note significant digits: “2.34 ± 0.05” not “2.34567”

3.6 Citation Styles

IEEE Style (Electrical/Computer):

  • In-text: numbered brackets [1], [2]
  • Order of appearance in reference list
  • Format: [1] A. Author and B. Coauthor, “Title of paper,” Journal Name, vol. 1, no. 2, pp. 123–145, Jan. 2023.

APA Style (Mechanical/Civil/Chemical):

  • In-text: author-date (Smith, 2023)
  • Reference list alphabetical
  • Format: Smith, J. (2023). Title of article. Journal Name, 1(2), 123-145.

Check your department’s preference before submitting.

4. Engineering Lab Report Checklist

Before submitting, verify every item:

Structural Elements

  • Title page complete (title, name, course, date, instructor)
  • Abstract present (150-250 words) and includes purpose, methods, key results, conclusion
  • Table of Contents included for reports > 10 pages
  • All section headings present and correctly labeled
  • Page numbers

Content Quality

  • Introduction establishes context, background, objectives
  • Methods section provides sufficient detail for replication
  • Equipment listed with models and accuracy specifications
  • Safety considerations mentioned (if applicable)
  • Results section presents data only (no interpretation)
  • Figures and tables are numbered, have captions, and are referenced in text
  • All figures/tables have units clearly indicated
  • Uncertainty quantified where appropriate
  • Discussion provides meaningful interpretation of results
  • Sources of error analyzed thoroughly (not just “human error”)
  • Results compared to theoretical/literature values
  • Conclusions summarize findings without introducing new data
  • Recommendations provided for applied reports (if applicable)

Technical Style

  • Consistent voice (passive or first-person plural as appropriate)
  • Correct tense usage (past for methods/results, present for discussion)
  • SI units used (or program-appropriate units)
  • Numbers and units formatted correctly (space between value and unit)
  • Significant figures consistent with measurement precision
  • No jargon without definitions (if audience may not know)

Citations & References

  • All sources cited in text appear in References/Bibliography
  • All references follow correct style (IEEE, APA, etc.)
  • No Wikipedia, Chegg, or unverified online sources (unless primary manufacturer documentation)
  • At least 3-5 credible sources cited (textbooks, peer-reviewed papers, standards)
  • URLs included for online references (accessed dates if no publication date)

Figures & Tables

  • Figures/tables placed near first mention in text (not all at end)
  • Figure captions below figure; table titles above table
  • Axes labeled with quantity and units
  • Graph legends present when multiple datasets
  • Photographs have scale bars if measurement intended
  • Color figures work in grayscale (test if printed in B&W)
  • Schematics/diagrams follow engineering drawing standards if required

Ethics & Originality

  • All data presented accurately (no cherry-picking)
  • Uncertainties and anomalies disclosed (not hidden)
  • No plagiarism (all sources cited)
  • Raw data available if requested (appendix or separate file)
  • Collaborators/partners acknowledged if applicable

Final Review

  • Spell-checked and grammar-checked
  • Consistent formatting (headers, fonts, spacing)
  • All figures/tables referenced in text: “see Figure 1” or “as shown in Table 2”
  • No “orphan” figures/tables (everything referenced)
  • File name follows convention: “LastName_Course_LabReport.pdf”

5. Common Engineering Lab Report Mistakes (and How to Avoid Them)

Mistake 1: Weak or Missing Abstract

Problem: “This lab report describes an experiment on circuits.” (No specific details)
Solution: Include quantitative results: “The measured cutoff frequency was 1.42±0.05 kHz, compared to the theoretical 1.59 kHz.”

Mistake 2: Methods as Instructions rather than Description

Problem: “We connected the wires according to the lab manual.” (Unhelpful)
Solution: “The circuit was constructed using a breadboard (Philips PB-503) with components specified in Table 1. The function generator (Agilent 33220A) supplied a 5 Vpp sinusoidal input…”

Mistake 3: Results and Discussion Merged

Problem: “Figure 3 shows that the voltage dropped, which indicates that the diode is forward-biased.” (Interpreting in Results)
Solution: Results section: “Figure 3 shows the voltage dropped from 5.2 V to 0.7 V.” Discussion: “This drop indicates forward-biased diode behavior consistent with the expected 0.7 V silicon junction voltage.”

Mistake 4: Inadequate Error Analysis

Problem: “Sources of error: human error, equipment error.” (Vague)
Solution: “Systematic error likely resulted from multimeter calibration uncertainty (±0.5% + 2 digits). For the voltage reading of 2.45 V, this translates to an uncertainty of ±0.02 V. Random error was assessed by 10 repeated measurements, yielding a standard deviation of 0.03 V.”

Mistake 5: Poor Figure/Table Presentation

Problem: Unlabeled axes, missing units, blurry graphs, tables with vertical lines
Solution: Use engineering software (MATLAB, Excel with engineering templates, Python matplotlib) to generate publication-quality figures. Follow ASME or IEEE figure guidelines.

Mistake 6: Ignoring Discipline Conventions

Problem: Using APA in an electrical engineering course where IEEE is standard
Solution: Always confirm citation style with your professor or department guidelines.

Mistake 7: First-Person Singular (When Inappropriate)

Problem: “I built the circuit…”
Solution: Check preferences. If not explicitly allowed, use passive voice (“The circuit was constructed…”) or first-person plural (“We constructed the circuit…”).

6. When to Seek Additional Help

Even with this guide, you might encounter challenges:

  • Complex experiments with unusual measurement techniques
  • Interdisciplinary reports spanning multiple engineering fields
  • Specific professor requirements that vary from standards
  • Time constraints preventing thorough write-up

If you’re struggling with any section—particularly data analysis, uncertainty propagation, or technical writing clarity—consider seeking targeted assistance. Our team includes graduate engineers from mechanical, electrical, and chemical backgrounds who can review your report structure, verify calculations, and ensure your writing meets disciplinary standards. Engineering Lab Report Review Service

Summary & Next Steps

A successful engineering lab report requires:

  1. Following the correct structure (Title → Abstract → Introduction → Methods → Results → Discussion → Conclusions → References → Appendices)
  2. Adapting to your discipline (mechanical uses different conventions than electrical)
  3. Providing reproducible methods with exact equipment details
  4. Separating results from interpretation (no analysis in Results section)
  5. Analyzing errors rigorously (quantitative uncertainty, not just “human error”)
  6. Citing authoritative sources (standards, textbooks, peer-reviewed papers)
  7. Using professional formatting (IEEE/APA, proper figures, clear captions)

Action items for your next lab report:

  1. Download the discipline-specific template here
  2. Review the checklist against a past report to identify gaps
  3. Study the annotated examples in this guide
  4. Start your report early—writing takes longer than the experiment
  5. Have a peer or tutor review before submission

Related Guides

If you found this helpful, explore our other technical writing resources:

Need personalized help? Book a one-on-one consultation with an engineering writing specialist to review your draft and receive targeted feedback on structure, clarity, and grading potential. Schedule a Consultation

Citations & References

  1. IEEE Editorial Style Manual. (2024). Institute of Electrical and Electronics Engineers. https://journals.ieeeauthorcenter.ieee.org/wp-content/uploads/sites/7/IEEE-Editorial-Style-Manual-for-Authors.pdf
  2. ASME Standards. (2024). American Society of Mechanical Engineers. https://www.asme.org/codes-standards
  3. ASME Y14.5-2018: Dimensioning and Tolerancing. (2018). American Society of Mechanical Engineers.
  4. IEEE Reference Guide. (2024). https://www.readwonders.com/guides/citations/ieee
  5. Purdue OWL: Engineering Writing. (2024). Purdue University Writing Lab. https://owl.purdue.edu/owl/subject_specific_writing/writing_in_engineering/index.html
  6. Writing Lab Reports. (2024). University of Waterloo Writing and Communication Centre. https://uwaterloo.ca/writing-and-communication-centre/blog/writing-genre-series-lab-report-writing
  7. Guidelines for Engineering Technical Writing. (2023). Monash University Engineering Faculty. https://www.monash.edu/engineering/current-students/graduate-research/graduate-research-academic-support/resources
  8. How to Write a Lab Report. (2024). UC Berkeley College of Engineering. https://people.eecs.berkeley.edu/~sojoudi/EE128_SP18_Lab_ReportWritingGuide.pdf