7.4.1
Design Strategies
Design Strategies
Design Strategies
You need to be able to produce a range of design ideas and solutions for your NEA/coursework. You will need to develop your design ideas through sketching, CAD, modelling, testing and feedback.
Collaboration
Collaboration
- Collaboration (working with others) helps you to discuss ideas and solutions to a problem.
- You should have a client who is the person you are designing for who has a problem to be solved.
- Take time to choose the client and make sure you will be able to have regular discussions about your project and coursework.
Collaboration cont.
Collaboration cont.
- Make sure you speak regularly with your client as well as getting feedback from your target market.
- A target market is the age/group of people who your product will be aimed at.
- By getting feedback from your target market you will be able to make changes and improvements to your product.
User centred design
User centred design
- Your NEA/coursework is based on you understanding the needs of your client and the target market.
- Your client needs to be your main focus and you should speak with them about your design work and models to help you throughout the entire coursework.
User centred design cont.
User centred design cont.
- Gather information by:
- Regular interviews and questionnaires.
- Video their reaction to designs and models.
- Get them to test out your model and provide feedback.
Evaluating user centred design
Evaluating user centred design
- The advantage of this is that your client feels involved and is part of the entire process so you get really good useful feedback.
- The disadvantage is that it is extra time and your design can be too focussed on just your client not your overall target market.
Design Strategies
Design Strategies
You need to be able to produce a range of design ideas and solutions for your NEA/coursework. You will need to develop your design ideas through sketching, CAD, modelling, testing and feedback.
Systems approach
Systems approach
- A systems approach method is good when designing electronic products as you will need to plan how the system is produced.
- Input, process, output all requires the order to be correct and this will be reflected in your design work and solutions.
Iterative design
Iterative design
- Iterative design is a cycle approach where you are constantly designing, testing and re-designing.
- The Dyson company use this approach when manufacturing their vacuum cleaner.
- Test one part out and then change it until all the parts are tested and the product comes together.
- It does take time but you should move away from just designing the first idea that comes into your head.
Iterative design cont.
Iterative design cont.
- Iterative designing is about the refining the design:
- Could it be better?
- What are the alternatives and options?
- Only by doing this will you build up and outstanding portfolio and also come up with the best solution/ product.
Design fixation
Design fixation
- Design fixation is usually the biggest issue with pupils studying GCSE Design Technology.
- Design fixation is when at an early stage you decide what it is you want to design and make and do not take into account other options.
Avoiding design fixation
Avoiding design fixation
- To avoid design fixation:
- Produce a wide range of initial ideas.
- Do lots of modelling and testing out of ideas.
- Listen and act upon your client feedback and target market feedback.
- Make little changes, look at the options for each part.
1Core Technical Principles
1.1New & Emerging Technologies
1.2Energy Generation & Storage
1.3Developments in New Materials
1.4Systems Approach to Designing
1.5Mechanical Devices
1.6Materials Categories
2Paper & Board: Specialist Technical Principles
2.1Selection of Materials
2.2Paper & Board: Forces & Stresses
2.3Paper & Board: Ecological & Social Footprint
2.4Paper & Board: Sources & Origins
2.5Paper & Board: Using Materials
2.6Paper & Board: Stock Forms, Types & Sizes
2.7Paper & Board: Scales of Production
2.8Paper & Board: Specialist Techniques & Processes
2.9Paper & Board: Surface Treatments & Finishes
3Timber: Specialist Technical Principles
3.1Timber: Selection of Materials
3.2Timber: Forces & Stresses
3.3Timber: Ecological & Social Footprint
3.4Timber: Sources & Origins
3.5Timber: Using Materials
3.6Timber: Stock Forms, Types & Sizes
3.7Timber: Scales of Production
3.8Timber: Specialist Techniques & Processes
3.9Timber: Surface Treatments & Finishes
4Metal: Specialist Technical Principles
4.1Metals: Selection of Materials
4.2Metals: Forces & Stresses
4.3Metals: Ecological & Social Footprint
4.4Metals: Sources & Origins
4.5Metals: Alloy-Based Materials
4.6Metals: Using Materials
4.7Metals: Scales of Production
4.8Metals: Specialist Techniques & Processes
4.9Metals: Quality Control
4.10Metals: Surface Treatments & Finishes
5Polymers: Specialist Technical Principles
5.1Polymers
5.2Polymer Categories
5.3Polymer Forms
5.4Polymer Production, Techniques & Quality Control
6Textiles: Specialist Technical Principles
6.1Textile Materials
6.2Selection of Materials
6.3Forces & Stresses
7Designing & Making Principles
7.1Investigation & Data
7.2Environmental, Social & Economic Challenges
7.3The Work of Others
7.4Design Strategies
7.5Communication of Design Ideas
7.6Prototype Development
7.7Selection of Materials
7.8Tolerances
7.9Material Management
7.10Specialist Equipment
7.11Specialist Techniques & Processes
Jump to other topics
1Core Technical Principles
1.1New & Emerging Technologies
1.2Energy Generation & Storage
1.3Developments in New Materials
1.4Systems Approach to Designing
1.5Mechanical Devices
1.6Materials Categories
2Paper & Board: Specialist Technical Principles
2.1Selection of Materials
2.2Paper & Board: Forces & Stresses
2.3Paper & Board: Ecological & Social Footprint
2.4Paper & Board: Sources & Origins
2.5Paper & Board: Using Materials
2.6Paper & Board: Stock Forms, Types & Sizes
2.7Paper & Board: Scales of Production
2.8Paper & Board: Specialist Techniques & Processes
2.9Paper & Board: Surface Treatments & Finishes
3Timber: Specialist Technical Principles
3.1Timber: Selection of Materials
3.2Timber: Forces & Stresses
3.3Timber: Ecological & Social Footprint
3.4Timber: Sources & Origins
3.5Timber: Using Materials
3.6Timber: Stock Forms, Types & Sizes
3.7Timber: Scales of Production
3.8Timber: Specialist Techniques & Processes
3.9Timber: Surface Treatments & Finishes
4Metal: Specialist Technical Principles
4.1Metals: Selection of Materials
4.2Metals: Forces & Stresses
4.3Metals: Ecological & Social Footprint
4.4Metals: Sources & Origins
4.5Metals: Alloy-Based Materials
4.6Metals: Using Materials
4.7Metals: Scales of Production
4.8Metals: Specialist Techniques & Processes
4.9Metals: Quality Control
4.10Metals: Surface Treatments & Finishes
5Polymers: Specialist Technical Principles
5.1Polymers
5.2Polymer Categories
5.3Polymer Forms
5.4Polymer Production, Techniques & Quality Control
6Textiles: Specialist Technical Principles
6.1Textile Materials
6.2Selection of Materials
6.3Forces & Stresses
7Designing & Making Principles
7.1Investigation & Data
7.2Environmental, Social & Economic Challenges
7.3The Work of Others
7.4Design Strategies
7.5Communication of Design Ideas
7.6Prototype Development
7.7Selection of Materials
7.8Tolerances
7.9Material Management
7.10Specialist Equipment
7.11Specialist Techniques & Processes
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