Introduction to Product Analysis

Have you ever looked at a product—like your phone, a chair, or even a drink bottle—and wondered why it looks that way? Or why it’s made of plastic instead of metal? Product analysis is like being a "design detective." It involves taking a product apart (sometimes literally, sometimes just with our eyes) to understand how it works, who it’s for, and how it was made.

By studying the work of other designers and companies, we can learn from their successes (and their mistakes!) to help us create better designs of our own. In this chapter, we will look at the specific criteria used to judge a product and how the work of famous designers shapes the world we live in.


1.15.1 Product Analysis Criteria

When you analyze a product for your GCSE, you need to look at it through several different "lenses." Use the list below as a checklist for any product you encounter.

Form and Function

These two are the "big players" in design:

  • Form: This refers to the shape, style, and outward appearance of the product. Is it sleek and modern? Or chunky and industrial?
  • Function: This is what the product actually does. A chair's function is to support a person's weight comfortably.

Design Tip: Always ask, "Does the form follow the function?" (Does the way it looks help it do its job?)

Client and User Requirements

Who is the product for? A toy for a toddler has very different requirements than a professional power tool for a builder. User requirements include things like ease of use, safety, and ergonomics (how well it fits the human body).

Performance Requirements

This is about how well the product stands up to use. Does it need to be waterproof? Does it need to withstand high temperatures? Does it need to last for 10 years without breaking? This is often called durability.

Materials and Components

Designers must choose the right materials for the job. You should be able to identify if a product uses ferrous metals (like stainless steel), polymers (like acrylic), or timbers (like oak) and justify why. For example, a kitchen whisk is often made of stainless steel because it is food-safe and won't rust (corrode).

Scale of Production and Cost

How many were made?
- One-off: A single, unique item (very expensive).
- Batch: A specific number (e.g., 500 limited edition sneakers).
- Mass: Thousands of identical items (e.g., plastic water bottles).
- Continuous: Runs 24/7 (e.g., sheet glass or steel).

Cost is linked to the scale. Generally, the more you make, the cheaper each individual item becomes to produce.

Sustainability and Innovation

  • Sustainability: Does the product hurt the environment? Can it be recycled? Is it made from renewable materials?
  • Innovation: Does the product use new technology or a clever new way of solving a problem? Think about how Modern and Smart Materials (like shape-memory alloys) might be used to make a product "smarter."

Aesthetics and Marketability

  • Aesthetics: This is all about "beauty." Does it look attractive to the target audience? Designers use color, texture, and symmetry to make things look good.
  • Marketability: Is there a gap in the market for this? How does it compete with other products? If a product is "marketable," people will actually want to spend their money on it.

1.15.2 The Work of Past and Present Designers

While the exam board doesn't force you to memorize one specific person, you need to understand how designers and companies influence the world. They don't just make things; they change the way we live.

Why study other designers?

  • Avoiding "Design Fixation": This is when a designer gets stuck on one idea. Looking at others' work gives you fresh inspiration.
  • Evolution of Style: You can see how products have changed over time due to new and emerging technologies.
  • Brand Identity: Companies (like those who make smartphones or vacuum cleaners) often have a "look" that makes their products instantly recognizable.

Quick Review: When looking at a designer's work, ask: What was their signature style? What materials did they prefer? How did they use technology to innovate?


Math in Product Analysis: Costing and Quantities

In the "Core" section of your exam, you might be asked to do some simple calculations related to product analysis. Don't worry, they are usually straightforward!

Calculating Unit Cost

To find the cost of a single product, we use this formula:
\( \text{Unit Cost} = \frac{\text{Total Production Cost}}{\text{Number of Units Made}} \)

Example: If a company spends \( £5000 \) to set up a batch run of \( 250 \) wooden clocks, what is the cost per clock?
\( 5000 \div 250 = £20 \text{ per clock} \).

Wastage and Percentages

If a designer uses a sheet of material that is \( 100 \text{cm}^2 \) but the product only uses \( 80 \text{cm}^2 \), the waste is \( 20\% \). Reducing waste is a key part of sustainability and lean manufacturing.


Key Takeaways

  • Product Analysis is the process of examining a product's form, function, and impact.
  • User Requirements are at the heart of every successful design.
  • Scale of production (One-off, Batch, Mass) affects the final cost of the product.
  • Studying past and present designers helps us avoid design fixation and understand how materials and technology evolve.

Common Mistake to Avoid: Don't confuse "Aesthetics" with "Form." Form is the physical shape and structure, while Aesthetics is the subjective "look and feel" (is it pretty, cool, or ugly?).

Did you know? The concept of "Life Cycle Analysis" (LCA) is often used during product analysis to see the total environmental impact from the "cradle to the grave"—from extracting raw materials to final disposal!