1.1.8
Emerging Technologies & Design
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Evaluation of Emerging Technologies and Design Decisions
Designers/manufactures are becoming more aware of the ethical and environmental impact of their design decisions. Consumers are also taking responsibility for the waste they create and are demanding more environmentally friendly products.

Planned obsolescence
- Products are manufactured to last a specific length of time before needing to be replaced.
- Consumers will then need/want to buy a new version of the product.
- Sales will be maintained.

Achieving planned obsolescence
- This can be achieved by:
- Using materials that break/wear out easily.
- The cost of repairing being more than replacing e.g. washing machine.
- Upgrades in software e.g. mobile phones.
- Aesthetic upgrades to match fashion trends e.g. mobile phones.

Environmental impacts
- This has a negative effect on the environment as more waste is created in the manufacture of new products and the disposal of old ones.
- An awareness of planned obsolescence and the responsibility of the designer can influence the design decisions.
- For example a disposable coffee cup that is a single use product. The designer could use a compostable material made from plants.

Design for maintenance
- Products are being designed with easily accessible, replaceable parts.
- New software can be uploaded onto existing products to update them.
- Companies usually arrange the replacement of parts to ensure safety and reliability.
- These products are becoming more popular with people who are increasingly more aware of reducing waste and the shared responsibility for global warming.
The Environment and Ethics
Designers, manufacturers and consumers are becoming more aware of the ethical and environmental impact of their design decisions and purchases.

Consumers
- The impact of social media, celebrity influencers and access to a wide range of information through the internet means people have increased awareness about the impact they are having on the environment.

Consumer demand
- Consumers are realising their responsibility to help reduce waste.
- This is leading to an increased demand for more environmentally friendly products.
- There is also an increase in demand for “upcycled” products and second-hand products.

End of life
- At the end of life of a product, the consumer has increased accessibility to:
- Recycling schemes with councils for household rubbish.
- Returning electronic products to companies for disposal.
- Repairing parts of a product rather than throwing it away.
- Refilling existing bottles to reduce waste.
- The consumer has a responsibility to make use of these schemes.

Designers and manufacturers
- The responsibility for designers and manufacturers to consider the environmental impact of their products has become a key part of the design process.
- Life cycle assessment (LCA) can be used to analyse all the stages in a product’s life and highlight the impact it will have on the environment.

Life cycle assessment (LCA)
- The designer can then investigate different ways to reduce the negative impact at each stage of the design process.
- The increased use of lean manufacturing systems reduces waste and creates an efficient product.
- Products are designed for disassembly so that parts can easily be identified and re-used, replaced or recycled.
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
Practice questions on Emerging Technologies & Design
Can you answer these? Test yourself with free interactive practice on Seneca — used by over 10 million students.
- 1Why do companies create products with planned obsolescence?Multiple choice
- 2How companies achieve planned obsolescence:Fill in the list
- 3
- 4Responsibilities consumers have at end of life:Fill in the list
- 5Consumer demand has increased for: Fill in the list
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