Component 2: Non-examined assessment (NEA) - Make — Edexcel GCSE Design and Technology

Component 2: Non-examined assessment (NEA) - Make is the practical culmination of your GCSE Design and Technology course. This component requires you to manufacture a high-quality, functional prototype based on your own design brief and specification. It accounts for 50% of your total GCSE grade, so mastering this component is essential for success. The 'Make' phase focuses on your ability to select and use appropriate materials, tools, and processes to bring your design to life, demonstrating precision, safety, and problem-solving skills.

This component is not just about making something that looks good; it's about showing that you can work accurately and efficiently, making adjustments as needed to achieve a fully working prototype. You will need to document your making process through photographs and annotations, explaining your choices and modifications. This evidence is crucial for the examiner to understand your decision-making and technical competence. The skills you develop here—such as measuring, cutting, joining, and finishing—are directly transferable to further education and careers in engineering, product design, and manufacturing.

The NEA Make component is the final stage of a design process that began with research and idea generation. It tests your ability to apply theoretical knowledge from Component 1 (written exam) to a practical context. Success in this component demonstrates that you can not only design but also realise your ideas, a key skill for any designer or engineer. By the end of this component, you should have a fully functional prototype that meets your specification and a portfolio of evidence showing your journey from design to finished product.

• →Accuracy and precision: Using measuring tools (e.g., callipers, rulers) and marking out techniques to ensure components fit together correctly.
• →Material selection: Choosing appropriate materials (e.g., hardwoods, softwoods, manufactured boards, metals, polymers) based on properties like strength, durability, and workability.
• →Joining methods: Applying permanent (e.g., welding, adhesives) and temporary (e.g., screws, knock-down fittings) joining techniques correctly.
• →Finishing techniques: Applying surface finishes (e.g., varnish, paint, lacquer) to protect the product and enhance aesthetics.
• →Health and safety: Using tools and machinery safely, including wearing PPE and following workshop rules.

• Analysis of the prototype against the product specification using tests under realistic conditions.
• Analysis of the results obtained from prototype testing.
• Evaluation of whether the prototype meets the product specification.
• Evaluation of the sustainability of the final prototype through a life cycle assessment (LCA).

• 💡Ensure testing is measurable and directly linked to the criteria established in the product specification.
• 💡Use photographic evidence to support the evaluation of the prototype's performance.
• 💡Ensure the LCA is specific to the materials and processes used in the final prototype.
• 💡Draw clear, substantiated conclusions from the testing results.
• 💡Tip 1: Document every step with clear, well-lit photographs. Annotate each photo to explain what you did, why, and any changes you made. This shows the examiner your thought process and adaptability.
• 💡Tip 2: Test your prototype as you go. Don't wait until the end to check if parts fit. Regular testing allows you to correct errors early, saving time and materials.
• 💡Tip 3: Show a range of skills. Use at least two different joining methods and finishing techniques. This demonstrates versatility and depth of understanding.

• Failing to conduct tests under realistic conditions.
• Neglecting to link evaluation findings back to the original product specification.
• Providing superficial analysis of testing results.
• Omitting the life cycle assessment (LCA) or failing to relate it to the final prototype's environmental impact.
• Misconception: 'I can skip the planning stage and just start making.' Correction: Planning your making sequence is crucial to avoid mistakes and wasted materials. Always create a step-by-step plan before cutting any material.
• Misconception: 'If my prototype doesn't look perfect, I'll lose marks.' Correction: Examiners value a working prototype over a perfect-looking one. Functionality and evidence of problem-solving are more important than flawless aesthetics.
• Misconception: 'I don't need to take photos during making.' Correction: Photographic evidence of each stage is essential for your portfolio. Without it, you cannot prove your making process to the examiner.