Complete Guide to Creating Your Capstone Exhibition Poster
The poster is worth 30% of your Capstone grade. It summarizes your entire project for external evaluators at the exhibition. A well-designed poster should tell your complete project story at a glance.
Your poster is worth 30% of your total Capstone grade. Here's how each section is weighted:
| Section | Weight | Description |
|---|---|---|
| Abstract | 5% | Concise summary of the entire project |
| Introduction | 10% | Grand challenge, prior solutions, your approach |
| Materials & Methods | 10% | How you built and tested your prototype |
| Results | 15% | Data, tables, graphs, measurements |
| Analysis | 20% | Scientific explanation of results |
| Conclusions | 10% | Summary of findings and comparisons |
| Recommendations | 5% | Future improvements and applications |
| Literature Cited | 5% | APA formatted references |
| Layout & Design | 10% | Visual presentation and formatting |
The top section of your poster that immediately identifies your project.
Placeholder format:
<<Project Title>>
<<STEM School Name | Grade X | Semester X>>
<<Team: Name1, Name2, Name3, Name4>>
Keywords: <<keyword1, keyword2, keyword3, keyword4>>A distinguished abstract is clear, engaging, organized, and sophisticated. It should contain ALL of the following in order:
This project addresses Egypt's Grand Challenge of improving alternative energy use by developing a sustainable water heating solution for residential applications. We designed a solar-powered water heater that meets critical design requirements including low cost, energy efficiency, environmental sustainability, and ease of maintenance. The prototype was constructed using locally-sourced recycled materials including aluminum panels, copper tubing, and insulated containers, with a total cost of approximately 500 EGP. Testing was conducted across five comprehensive trials under various weather conditions, measuring temperature rise over time, heat retention capacity, and overall energy conversion efficiency. Results demonstrate an average temperature increase of 25°C in 30 minutes under direct sunlight, with 92% consistency across all trials and a thermal efficiency of 68%. The system maintained water temperature above 50°C for over 3 hours after sunset, proving its viability for evening use. Cost analysis shows our solution is 75% cheaper than commercial alternatives while providing comparable heating performance. Therefore, our solution demonstrates a practical, affordable, and environmentally-friendly approach to sustainable water heating that addresses both the national energy challenge and the specific needs of Egyptian households seeking cost-effective alternatives to electric or gas-powered water heaters.
The introduction must contain exactly THREE paragraphs, structured as follows:
Explain the national/societal challenge and connect it to your project. Do NOT discuss your solution yet.
Discuss TWO prior practical solutions (not generic STEM projects). For each solution: what it did, its strength, its weakness. Include in-text citations.
Explain why you chose this solution, how it addresses design requirements, and briefly describe the prototype.
Important Flow: The introduction must flow: Egypt Grand Challenge → Semester Challenge → Prior Solutions → Your Solution → Brief Prototype Description
This section must be detailed enough for a professional to replicate your work.
A table listing all materials used
| Item | Usage | Quantity | Source | Cost | Image |
|---|---|---|---|---|---|
<<value>> | <<value>> | <<value>> | <<value>> | <<value>> | <<value>> |
Step-by-step assembly instructions with labeled images
Brief description of your testing procedure (no results here!)
Do NOT include any results or conclusions in this section!
Present your data clearly and systematically. Data only - no interpretation here.
| <<Column 1>> | <<Column 2>> | <<Column 3>> |
|---|---|---|
<<data>> | <<data>> | <<data>> |
<<data>> | <<data>> | <<data>> |
| <<Column 1>> | <<Column 2>> | <<Column 3>> | <<Column 4>> |
|---|---|---|---|
<<data>> | <<data>> | <<data>> | <<data>> |
<<data>> | <<data>> | <<data>> | <<data>> |
Do NOT explain or discuss results here - only display data!
MOST IMPORTANT SECTION! This is the MOST IMPORTANT section. Connect your problem, solution, design requirements, and results using scientific principles.
Note: You must include exactly 5 laws or theories relevant to your project.
<<Connection between the law and the project>>
Note: You must include exactly 5 Learning Outcomes (LOs) from different subjects.
<<Connection between the LO and the project>>
Draw conclusions from your test results and analysis, then compare to prior solutions.
Our solar water heater prototype successfully met all five design requirements, demonstrating both technical effectiveness and practical viability. The system achieved an average thermal efficiency of 68% with excellent consistency (CV = 3.2%), indicating reliable performance across different environmental conditions. Temperature measurements showed consistent heating from ambient temperature to 75°C in 30 minutes under optimal sunlight, with the ability to maintain temperatures above 50°C for over 3 hours after sunset. Compared to the commercial solution by Ahmed & Hassan (2019), which costs approximately 2000 EGP and requires professional installation, our design costs only 500 EGP using locally-sourced recycled materials and can be assembled with basic tools. Unlike the Chen et al. (2020) prototype, which required external power supply and complex electronic controls, our design operates entirely on passive solar principles with a simple manual valve system, eliminating dependency on electricity and reducing maintenance requirements. The cost-effectiveness analysis reveals that our solution pays for itself within 4 months of use compared to electric water heaters, while the environmental impact study shows a reduction of approximately 450 kg of CO2 emissions annually per household. These comprehensive results demonstrate that our solution offers not only a practical and affordable alternative for Egyptian households facing energy challenges, but also contributes significantly to national goals of energy sustainability and environmental protection. The prototype's simplicity, reliability, and use of recycled materials make it particularly suitable for rural areas and low-income communities where access to conventional water heating systems is limited.
Provide practical recommendations directed towards future research, engineering, or policy groups, informed by the problem and proposed solutions.
Include at least 5 reliable references in proper APA format.
Author, A. A., & Author, B. B. (Year). Title of article. Journal Name, Volume(Issue), pages. https://doi.org/xxxxx
Mercer, A., & Leech, D. (2017). Solar water heating systems: A comprehensive review. Energy Reports, 3(2), 45-58. https://doi.org/10.1016/j.egyr.2017.02.001
Brief thanks to people/organizations who helped.
We thank our Principal Dr. [Name], Academic Deputy [Name], Capstone Leader [Name], and our Capstone Teacher [Name] for their guidance and support throughout this project.
Team contact details and project resources.
Top of poster, readable from 2 meters distance (1.5-2.5 cm tall words)
Names and school name 20-30% smaller than title. Include grade, semester, and academic year
Readable from 1 meter distance
Unique identification numbers, keys to identify symbols, and full explanations in legends
Text must include references to specific graphics or pictures
Focused, well-synthesized, straight to the point while targeting a professional audience
Consistency between the Font and background color. Uses correct grammar and spelling