Ready-to-use prompts for generating a complete Final Year Project proposal — select your project type, fill in your details, and send directly to an AI.
Select Your FYP Type
Master Prompt — Research Proposal
Copy, fill in your details, send to AI
Research (Kajian)
fyp-research-proposal.txt
You are an expert in academic writing for Diploma-level Final Year Projects at Malaysian polytechnics. Help me write a complete FYP proposal (Research type / Kajian) following the standard Malaysian polytechnic format.
--- MY PROJECT DETAILS ---
Project Title : [e.g. Knowledge Level of Diploma in Mechanical Engineering Students
on Workshop Safety Practices at POLIMAS]
Department / Course : [e.g. Department of Mechanical Engineering (JKM) /
Diploma in Mechanical Engineering]
Polytechnic : [e.g. Politeknik Sultan Abdul Halim Mu'adzam Shah (POLIMAS)]
Problem Identified : [Describe the issue or problem in 2–3 sentences. e.g. "Workshop injury
incidents still occur frequently, yet students' safety knowledge has
never been formally measured."]
Population / : [e.g. Semester 3 Diploma in Mechanical Engineering students at POLIMAS
Respondents — approximately 120 students]
Research Approach : [Quantitative / Qualitative / Mixed Methods]
Research Instrument : [e.g. Questionnaire / Interview / Observation / Document Analysis]
Analysis Software : [e.g. SPSS v26 / Microsoft Excel / NVivo]
Number of Semesters : [1 Semester / 2 Semesters]
Report Language : [English / Bahasa Malaysia]
--- REQUIRED PROPOSAL STRUCTURE ---
Please write a complete FYP research proposal covering all sections below:
1. PROJECT TITLE
A clear, specific title that reflects the study's scope. Avoid overly generic titles.
Include department/institution context if appropriate.
2. RESEARCH BACKGROUND (~250 words)
Explain the context of this study, why the issue is relevant today, and what motivates
this research. Include statistics, policies, or current situations where relevant.
3. PROBLEM STATEMENT (~150 words)
State the main problem clearly. Answer: What is the problem? Who is affected?
What are the consequences if left unaddressed? End with a clear gap statement.
4. RESEARCH OBJECTIVES
Exactly 3 objectives beginning with measurable action verbs:
(Identify / Analyse / Evaluate / Measure / Compare / Determine)
Each objective must be achievable within the stated timeframe.
5. SCOPE OF STUDY
Define clearly: who the respondents are, where the study is conducted,
what aspects are studied, and what is EXCLUDED from this study.
6. SIGNIFICANCE OF STUDY
Explain the benefits to:
(a) Students or the community involved
(b) Institution / lecturers / management
(c) Industry or policymakers (if applicable)
7. RESEARCH METHODOLOGY (~400 words)
Describe in detail:
• Research design (descriptive / correlational / comparative) with justification
• Population and sampling method (random / purposive / stratified) with justification
• Sample size calculation using Krejcie & Morgan table (state N and selected n)
• Research instrument: type, number of items, measurement scale (5-point Likert, etc.)
• Data collection procedures
• Data analysis methods — state software and statistical tests used for each objective
• Face validity and reliability (pilot test procedure, target Cronbach Alpha ≥ 0.7)
8. GANTT CHART
Activity schedule by week for [number of semesters] semester(s):
Columns: Activity | Week 1–4 | Week 5–8 | Week 9–12 | Week 13–16
Activities: Literature review, Instrument development, Data collection,
Data analysis, Report writing, Final presentation
9. REFERENCES (minimum 10, APA 7 format)
Mix of: Scopus/WoS journals, textbooks, Malaysian TVET proceedings,
policy/official reports. At least 3 references from 2019–2024.
--- QUALITY INSTRUCTIONS ---
- Write in [English / Bahasa Malaysia] — formal academic register
- Ensure every objective is achievable within [number of] semester(s)
- Methodology must align with objectives — each objective needs a clear data collection method
- Avoid generic statements; every sentence must relate directly to the specific topic
- Sample size must be realistic relative to the stated population
You are an expert in engineering project proposal writing for Diploma-level Final Year Projects at Malaysian polytechnics. Help me write a complete FYP proposal (Prototype type / Prototaip) following the standard Malaysian polytechnic format.
--- MY PROJECT DETAILS ---
Project Title : [e.g. Design and Development of an Arduino-Based Automatic Cutting
Machine for Small-Scale Manufacturing]
Department / Course : [e.g. Department of Mechanical Engineering (JKM) /
Diploma in Mechanical Engineering]
Polytechnic : [e.g. Politeknik Sultan Abdul Halim Mu'adzam Shah (POLIMAS)]
Problem to Solve : [e.g. Manual cutting processes are time-consuming and produce
inconsistent dimensions, causing material wastage of up to 15%]
Main Functions : [e.g. Automatically cuts material to ±1mm accuracy, reducing
of Prototype operation time by up to 50% compared to manual methods]
Key Components / : [e.g. Arduino Uno R3, NEMA 17 stepper motor, proximity sensor,
Technology aluminium linear rail, 12V/5A DC power supply]
Main Materials : [e.g. 2020 aluminium extrusion frame, 5mm acrylic sheet,
electronic components]
Estimated Budget : [e.g. RM 320 – RM 420]
Operating : [e.g. Small industrial workshop / school lab / home / agricultural
Environment setting]
Number of Semesters : [1 Semester / 2 Semesters]
Report Language : [English / Bahasa Malaysia]
--- REQUIRED PROPOSAL STRUCTURE ---
Please write a complete FYP prototype proposal covering all sections below:
1. PROJECT TITLE
A title that highlights the main function, technology/approach used, and
the application/context of the prototype.
2. PROJECT BACKGROUND (~250 words)
Describe the current problem, industry/user needs, limitations of existing
solutions, and how this prototype offers a better approach.
3. PROBLEM STATEMENT (~150 words)
State the technical or operational problem to be solved. Include the impact
in terms of cost, time, safety, or quality with supporting figures if possible.
4. PROJECT OBJECTIVES
Exactly 3 objectives using technical action verbs:
(Design / Develop / Build / Integrate / Test / Validate)
Each objective must be verifiable through testing or measurement.
5. PROJECT SCOPE
Define: functions INCLUDED and EXCLUDED, technical limitations (dimensions,
capacity, operating environment), and what will be delivered at the end.
6. SIGNIFICANCE OF PROJECT
Explain the benefits to:
(a) Target users / industry
(b) The process or operation being improved (quantify cost or time savings)
(c) Potential for further development or commercialisation
7. TECHNICAL SPECIFICATIONS (table format)
List target performance specifications:
• Overall dimensions (L × W × H in mm)
• Estimated weight (kg)
• Power requirements (V, A, W)
• Operating range / capacity
• Accuracy / repeatability (mm or %)
• User interface (buttons, LCD, app, etc.)
8. DESIGN AND DEVELOPMENT METHODOLOGY (~400 words)
Describe:
• Concept design phase: at least 2 design alternatives, selection criteria
• Design and development flowchart (from concept → prototype → testing)
• Justification for each major component selected
• Construction process: mechanical, electrical/electronic, software (if any)
• Testing methods: functional test, performance test, reliability test
• Acceptance criteria — how will you prove the prototype succeeds?
9. BILL OF MATERIALS (BOM)
Table: No. | Component/Material | Specification | Qty | Unit Price (RM) | Total (RM)
Sub-total by category (Mechanical / Electrical / Electronic) plus overall total.
10. GANTT CHART
Project phases by week for [number of semesters] semester(s):
Phases: Concept Design | Material Procurement | Construction |
Testing & Improvement | Documentation | Final Presentation
11. REFERENCES (minimum 8, APA 7 format)
Mix of: technical journals, component datasheets, engineering textbooks,
TVET proceedings, standards (MS/IEC/IEEE). At least 3 from 2019–2024.
--- QUALITY INSTRUCTIONS ---
- Technical specifications must be realistic and achievable within the stated budget
- Each objective must have a clear verification method (how will you prove it was achieved?)
- BOM must be detailed with prices based on the current Malaysian market
- Construction process must be executable using facilities available at the polytechnic
You are an expert in engineering project proposal writing for Diploma-level Final Year Projects at Malaysian polytechnics. Help me write a complete FYP proposal (Fabrication type / Fabrikasi) following the standard Malaysian polytechnic format.
--- MY PROJECT DETAILS ---
Project Title : [e.g. Fabrication of a Welding Jig for Go-Kart Chassis Assembly]
Department / Course : [e.g. Department of Mechanical Engineering (JKM) /
Diploma in Mechanical Engineering]
Polytechnic : [e.g. Politeknik Sultan Abdul Halim Mu'adzam Shah (POLIMAS)]
Problem to Solve : [e.g. Go-kart chassis welding is performed without a jig, causing
dimensional inaccuracies of ±5mm that require repeated rework,
wasting up to 2 hours per unit]
Product / Component : [e.g. Steel welding jig for go-kart chassis, working area
to be Fabricated 1200mm × 800mm × 150mm, supporting welding loads up to 50 kg]
Main Materials : [e.g. Mild steel SQ40×40mm, 6mm steel plate,
Grade 8.8 M10 bolts and nuts]
Main Fabrication : [e.g. Cutting (bandsaw), drilling (pillar drill), welding
Processes (MIG/GMAW), surface finishing (sandblast + epoxy paint)]
Machines / Tools : [e.g. Bandsaw machine, 16mm pillar drill, 200A MIG welder,
Used 4″ angle grinder, vernier caliper, 90° square]
Estimated Budget : [e.g. RM 280 – RM 380]
Number of Semesters : [1 Semester / 2 Semesters]
Report Language : [English / Bahasa Malaysia]
--- REQUIRED PROPOSAL STRUCTURE ---
Please write a complete FYP fabrication proposal covering all sections below:
1. PROJECT TITLE
A title that states the product being fabricated, the key material or process
that defines it, and its purpose/application.
2. PROJECT BACKGROUND (~250 words)
Describe the need for this component/product in its industry or use context,
the problem with current methods (manual or no tooling), and the improvement
potential through the planned fabrication.
3. PROBLEM STATEMENT (~150 words)
State the technical or operational problem that drives this fabrication.
Include measurable impacts on quality, operating cost, time, or worker safety.
4. PROJECT OBJECTIVES
Exactly 3 objectives using fabrication action verbs:
(Fabricate / Design / Test / Evaluate / Analyse / Produce)
Each objective must be verifiable through dimensional inspection, load testing,
or quality control checks.
5. PROJECT SCOPE
Define: product dimensions and size, materials used, fabrication processes
involved, and what is NOT included (state limits clearly). Include design
constraints (maximum load, operating environment).
6. SIGNIFICANCE OF PROJECT
Explain the benefits to:
(a) Workers / operators who will use this product
(b) The production or operation process (quantify time/cost savings)
(c) Potential for replication or further improvement
7. TECHNICAL SPECIFICATIONS AND DESIGN REQUIREMENTS (table format)
List specifications that must be met:
• Overall dimensions (L × W × H mm)
• Estimated finished weight (kg)
• Load-bearing requirement (kg or kN)
• Dimensional tolerance required (±mm)
• Surface finish required
• Standards to be complied with (MS / SIRIM / BS / ISO — state standard numbers)
8. FABRICATION METHODOLOGY (~400 words)
Describe in detail:
• Fabrication process flowchart (from working drawing → cutting → forming →
joining → finishing → quality control)
• Material selection justification: required mechanical properties vs. chosen material
• Process selection justification: why MIG instead of TIG, why bandsaw instead of
plasma cutter, etc.
• Key process parameters: welding current (A), gas flow rate, cutting speed
• Correct build sequence to ensure dimensional accuracy
• Quality control methods: visual inspection, dimensional measurement (vernier/CMM),
dye penetrant or magnetic particle testing if required
• Safety requirements during fabrication (PPE, safe welding procedures)
9. BILL OF MATERIALS (BOM)
Table: No. | Material/Component | Size/Specification | Qty | Unit | Unit Price (RM) | Total (RM)
Categorise: Raw Materials | Purchased Components | Consumables (electrodes, gas, paint)
Include sub-total per category and overall project TOTAL.
10. GANTT CHART
Project phases by week for [number of semesters] semester(s):
Phases: Design & Working Drawings | Material Procurement | Fabrication |
Quality Control & Testing | Documentation | Final Presentation
11. REFERENCES (minimum 8, APA 7 format)
Mix of: fabrication engineering textbooks, technical proceedings, MS/SIRIM/BS/ISO
standards, material datasheets, manufacturing journals. At least 3 from 2019–2024.
--- QUALITY INSTRUCTIONS ---
- Specifications must be realistic given polytechnic workshop machine capabilities
- Fabrication processes must use equipment available at the polytechnic
- BOM must be detailed with prices based on the Malaysian market
(hardware shops, Mydin, local suppliers)
- Quality control method must match the required dimensional tolerance
- Clearly state if any process requires outsourcing (laser cutting, CNC, heat treatment)
Section-by-Section Guidance
Focused prompts for each proposal section
Use these after generating a full draft — to deepen any section that still feels weak.
All TypesProject Title & Problem Statement▼
A weak title is either too vague ("A Study on Safety") or too long. A strong polytechnic FYP title contains three elements: what is being done/studied + how/method/material + for what purpose/where.
The problem statement is not a background paragraph — it must answer three questions: What is the problem? Who is affected? What happens if it is not resolved?
Improve the project title and problem statement for my FYP proposal based on the following:
Project Type: [Research / Prototype / Fabrication]
Topic / Field: [describe your topic]
Core problem: [state the problem]
For the title: generate 3 options at different lengths (short / medium / detailed), each on one line.
For the problem statement: rewrite in ~150 words — include 1 supporting statistic or fact, state who is affected, and end with a clear gap statement explaining what is still missing or unmeasured.
All TypesObjectives & Scope of Study▼
Common mistakes: objectives that are too broad ("study all aspects of safety") or unmeasurable ("improve understanding"). Every FYP objective at polytechnic level should be achievable within 1–2 semesters.
The scope is not a summary of the project — it defines the boundaries. State clearly what IS and what IS NOT included.
Review and improve 3 FYP objectives and the scope section for my proposal:
Type: [Research / Prototype / Fabrication]
Topic: [your topic]
My current objectives: [write your objectives here]
Duration: [1 semester / 2 semesters]
For each objective: (1) use an action verb at the appropriate Bloom's Taxonomy level for Diploma, (2) ensure it is measurable and achievable within the stated duration, (3) confirm there is a clear verification method.
For scope: write a scope paragraph stating what IS included (respondents/materials/processes) and what is NOT included (limitations and exclusions).
ResearchResearch Methodology & Instrument▼
The methodology section is the most closely assessed part of a research FYP. Every decision — design, sampling, instrument — must have a justification, not just a description.
Sample size must be calculated using the Krejcie & Morgan (1970) table or Cochran's formula, not an arbitrary estimate.
Write a complete research methodology section for my FYP:
Topic: [research topic]
Approach: [Quantitative / Qualitative / Mixed Methods]
Population: [who and how many]
Instrument: [questionnaire / interview / observation]
Include: (1) justification for the research design chosen, (2) sample size calculation using the Krejcie & Morgan table for population N = [state N], (3) instrument description — number of items, constructs measured, 5-point Likert scale, (4) pilot test procedure to obtain Cronbach Alpha ≥ 0.7, (5) analysis software and the statistical test used for each objective (e.g. Objective 1 → descriptive statistics — mean and standard deviation).
Technical specifications must be grounded in actual user requirements — not arbitrary numbers. Every value should have a source: an industry standard, a literature reference, or a stated user need.
The design flowchart must show decision points in the process — not just a sequence of steps with no choices.
Help me develop technical specifications and a design flowchart for my prototype:
Prototype name: [name]
Main function: [describe function]
Target user: [who will use it]
Operating environment: [workshop / lab / home / outdoor / farm]
Generate: (1) a technical specifications table with 8–10 parameters (dimensions, power, accuracy, capacity, speed, etc.) — each value must have a justification or source reference, (2) a text-format design and development flowchart (from concept → final prototype) using: [Start] → [Phase] → <Decision: Yes/No> → [Action], (3) acceptance criteria for each objective — state exactly how you will prove each one was achieved.
FabricationFabrication Process & Quality Control▼
The fabrication process section must show that the student understands why specific processes were chosen — not just list the steps. Examiners look for justification of both material and process selection.
Quality control is mandatory — it proves the fabricated product meets the specifications set out in the objectives.
Help me write the fabrication process and quality control section for my project:
Product: [name of the fabricated product]
Main material: [material type and grade]
Main processes: [list: cut, weld, drill, etc.]
Required tolerance: [±X mm]
Generate: (1) a step-by-step fabrication process flowchart with key technical parameters (welding current, cutting speed, drill size), (2) a material selection justification table — compare at least 2 material options using criteria: mechanical strength, process compatibility, cost, availability, (3) a quality control table — parameter checked, inspection method, measuring instrument, acceptable limit (tolerance), corrective action if out of spec.
PrototypeBill of Materials & Cost Estimate (BOM)▼
A weak BOM lists only component names without specifications. Examiners will check whether prices are realistic for the Malaysian market and whether all necessary components are listed.
Categorise the BOM: (1) Main Materials / Raw Materials, (2) Off-the-Shelf Components, (3) Consumables (electrodes, fasteners, paint, etc.).
Generate a complete and realistic BOM (Bill of Materials) for my project:
Project type: [Prototype / Fabrication]
Project name: [project name]
Components/materials I know I need: [list them]
Target budget: [RM XXX – RM XXX]
Generate a BOM table in this format:
No. | Component/Material | Technical Specification | Qty | Unit | Unit Price (RM) | Total (RM) | Source/Supplier
Organise by category. Base prices on the current Malaysian market (Shopee/Lazada/hardware shops). Add notes below the table: (1) components that may require outsourcing, (2) alternative components if cost exceeds budget, (3) sub-total per category and overall project total.
All TypesGantt Chart & References▼
The Gantt chart must be realistic — do not put "Construction" from Week 2 to Week 3 for a complex fabrication project. Allocate time proportional to the complexity of each phase.
For references: use a minimum of 10 for Research, 8 for Prototype/Fabrication. Mix international journals with local Malaysian sources for context.
Generate a Gantt chart and reference list for my FYP:
Type: [Research / Prototype / Fabrication]
Title: [project title]
Duration: [1 semester (16 weeks) / 2 semesters (32 weeks)]
For the Gantt chart: a text table with main phases by week. Show overlapping activities (parallel tasks). Include milestones: proposal submission, first test/pilot, draft report, final presentation.
For references: list 10–12 references in APA 7 format. Mix: (1) 3–4 international journals (Scopus/WoS, 2019–2024), (2) 2–3 Malaysian journals/proceedings (TVET-related), (3) 1–2 standard textbooks, (4) 1–2 technical standards or official policy documents. After each reference add a brief note [in brackets] explaining its relevance to the project.
Malaysian Polytechnic Context
Key points for local academic requirements
Follow Your Department Format
Always check your department's (Jabatan) Garis Panduan Projek Akhir. Font, spacing (Calibri/Times New Roman 12pt, 1.5 line spacing) and chapter order may vary between polytechnics.
3 Objectives Is the Standard
Most polytechnic departments require exactly 3 FYP objectives. Don't exceed this unless your Penyelia (supervisor) specifically instructs otherwise.
Cite Malaysian Standards
For engineering projects, reference MS (Malaysian Standard), SIRIM, or JKR (Jabatan Kerja Raya) where applicable. This demonstrates awareness of the local technical context.
Realistic Polytechnic Budget
Typical FYP budgets: Prototype RM200–RM600, Fabrication RM150–RM500. Exceeding this range requires strong justification to your Penyelia before the proposal is approved.
Connect to TVET Policy
Link your project to Malaysian TVET policy (TVET Blueprint, Malaysia Education Blueprint 2015–2025, POLIMAS Strategic Plan) to strengthen the significance section.
Request an Alignment Audit
After generating a full draft, ask the AI: "Review this proposal — does each objective have a clear method, and do all sections point toward the same problem?" This catches misalignments before submission.