1.1.7

Production Techniques & Systems

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Computer Aided Design (CAD)

Computers are now an integrated part of production techniques and systems. As technology and artificial intelligence develop we will be increasingly reliant on them for all stages of the design and manufacture process.

Automation

Automation

  • Automation is the use of computers to automatically run a production line.
  • This reduces the need for skilled manual labour and reduces human error.
Computer aided design (CAD)

Computer aided design (CAD)

  • CAD packages are computer programs that the designer can use to draw detailed designs, and model ideas.
  • The product can be realised quickly and seen in 3D.
  • Components can be drawn separately and virtually assembled to check if they fit.
  • Colours, materials and sizes can be altered quickly.
Benefits of CAD

Benefits of CAD

  • Early models can be used to aid market research and can be quickly and easily shared via email with clients.
  • Optimum material thicknesses can be calculated.
  • Tests can be simulated without waste.
  • The drawings can be used to program CAM (computer aided manufacture - see the next slide!).
Computer aided manufacture (CAM)

Computer aided manufacture (CAM)

  • Computer numerical control (CNC) uses codes converted from the CAD drawings to program different machines to shape and engrave material.
Machines

Machines

  • These machines include:
    • Laser cutter.
    • Computer numerical control (CNC) milling machine.
    • CNC lathe.
    • CNC Router.
    • CNC sewing machines.

Manufacturing Systems

Computers are now an integrated part of production techniques and systems. As technology and artificial intelligence develops we will be increasingly reliant on them for all stages of the design and manufacture process.

Flexible manufacturing systems (FMS)

Flexible manufacturing systems (FMS)

  • A series of automated machines are used in the production of a product.
  • The machines can be easily re-programmed to change the task that they are doing which makes the process flexible.
  • Robot arms are often used as they can be easily adaptable.
Benefits of FMS

Benefits of FMS

  • The machines can:
    • Restock shelves.
    • Transfer and assemble parts.
    • Manufacture parts.
    • Check quality, improving efficiency and reducing human error.
Just in time (JIT)

Just in time (JIT)

  • Just in time manufacturing systems work by having close relationships with suppliers.
  • The parts needed for manufacture arrive just as they are needed directly from the supplier.
Advantages and disadvantages

Advantages and disadvantages

  • Advantages include:
    • Less storage space needed.
    • Minimal waste as you only order what you need.
    • Production runs can change easily to another product.
  • Disadvantages include:
    • If there is a problem with the supplier, the process is delayed.
    • An unexpected demand could lead to delays.
Lean manufacturing

Lean manufacturing

  • Lean manufacturing looks at the whole manufacturing process and works to create the best product to meet consumer demand.
  • The main aim is to create the most efficient and effective product while eliminating waste.
Lean manufacturing cont.

Lean manufacturing cont.

  • It includes:
    • Efficient working.
    • Just in time manufacture.
    • Continuous improvement.
    • Quality assurance.
    • Feedback from the consumer.
Jump to other topics
1

Core Technical Principles

1.1

New & Emerging Technologies

1.1.1Industry1.1.2Enterprise1.1.3Sustainability1.1.4People1.1.5Culture & Society1.1.6Environment1.1.7Production Techniques & Systems1.1.8Emerging Technologies & Design1.1.9End of Topic Test - New & Emerging Technologies1.1.10Exam-Style Questions - Emerging Technologies
1.2

Energy Generation & Storage

1.2.1Fossil Fuels & Nuclear1.2.2Renewable Energy1.2.3Energy Storage Systems
1.3

Developments in New Materials

1.3.1Modern Materials1.3.2Smart Materials1.3.3Exam-Style Questions - Smart Materials1.3.4Composite Materials1.3.5Technical Textiles
1.4

Systems Approach to Designing

1.4.1Inputs1.4.2Processes1.4.3Outputs1.4.4Looped Systems
1.5

Mechanical Devices

1.5.1Types of Movement1.5.2Levers1.5.3Linkages1.5.4Rotary Systems1.5.5End of Topic Test - Designing & Mechanical Devices
1.6

Materials Categories

1.6.1Timbers1.6.2Metals & Alloys1.6.3Metals & Alloys 21.6.4Polymers1.6.5Polymer Types1.6.6Textiles1.6.7Textile Types: Fibres1.6.8Textile Types: Weave1.6.9Paper & Boards
1.7

Material Properties

1.7.1Physical & Working Properties1.7.2End of Topic Test - Materials1.7.3Exam-Style Questions - Materials
2

Paper & Board: Specialist Technical Principles

2.1

Selection of Materials

2.1.1Paper & Boards2.1.2Working with Paper & Boards
2.2

Paper & Board: Forces & Stresses

2.2.1Paper & Board: Forces & Stresses2.2.2Cardboard & Paper
2.3

Paper & Board: Ecological & Social Footprint

2.3.1Paper & Board: Ecological & Social Footprint2.3.2Paper & Board: The Six Rs2.3.3Social Issues
2.4

Paper & Board: Sources & Origins

2.4.1Paper & Board2.4.2End of Topic Test - Paper & Board
2.5

Paper & Board: Using Materials

2.5.1Paper & Board: Properties of Materials2.5.2Paper & Board: Modification of Materials2.5.3Paper & Board: Shape & Form
2.6

Paper & Board: Stock Forms, Types & Sizes

2.6.1Paper & Board: Forms2.6.2Paper & Board: Types2.6.3Paper & Board: Sizes2.6.4Paper & Board: Standards Components
2.7

Paper & Board: Scales of Production

2.7.1Paper & Board: Scales of Production2.7.2Exam-Style Questions - Scales of Production
2.8

Paper & Board: Specialist Techniques & Processes

2.8.1Paper & Board: Techniques & Processes2.8.2Paper & Board: Quality Control
2.9

Paper & Board: Surface Treatments & Finishes

2.9.1Paper & Board: Surface Treatments & Finishes2.9.2End of Topic Test - Specialist Techniques
3

Timber: Specialist Technical Principles

3.1

Timber: Selection of Materials

3.1.1Timber Based Materials3.1.2Timber: Environment & Ethics
3.2

Timber: Forces & Stresses

3.2.1Timber: Forces & Stresses3.2.2Timber
3.3

Timber: Ecological & Social Footprint

3.3.1Timber: Ecological & Social Footprint3.3.2Timber: The Six Rs3.3.3Timber: Social Issues3.3.4Exam-Style Questions - Timber
3.4

Timber: Sources & Origins

3.4.1Timber3.4.2Timber: Processing & Seasoning3.4.3Manufactured Board3.4.4End of Topic Test - Timber
3.5

Timber: Using Materials

3.5.1Timber: Properties of Materials3.5.2Timber: Modification of Materials3.5.3Timber: Shape & Form3.5.4Timber: Shape & Form 2
3.6

Timber: Stock Forms, Types & Sizes

3.6.1Timber: Stock Forms, Types & Sizes
3.7

Timber: Scales of Production

3.7.1Timber: Scales of Production
3.8

Timber: Specialist Techniques & Processes

3.8.1Timber: Tools, Equipment & Processes3.8.2Timber: Tools, Equipment & Processes 23.8.3Timber: Quality Control
3.9

Timber: Surface Treatments & Finishes

3.9.1Timber: Surface Treatments3.9.2Timber: Finishes3.9.3End of Topic Test - Specialist Techniques
4

Metal: Specialist Technical Principles

4.1

Metals: Selection of Materials

4.1.1Metal-Based Materials4.1.2Ferrous Metals4.1.3Non-Ferrous Metals4.1.4Alloys4.1.5Metals: Environment & Ethics
4.2

Metals: Forces & Stresses

4.2.1Metals: Forces & Stresses
4.3

Metals: Ecological & Social Footprint

4.3.1Metals: Ecological Footprint4.3.2Metals: Social Footprint4.3.3Metals: The Six R's4.3.4Metals: Social Issues
4.4

Metals: Sources & Origins

4.4.1Origins of Metal4.4.2Processing Metals
4.5

Metals: Alloy-Based Materials

4.5.1Types of Metal Alloys4.5.2Alloying Elements4.5.3Properties & Benefits4.5.4Processing & Fabrication4.5.5Applications of Alloys4.5.6Metal Alloys in Industry4.5.7Applications of Metal Alloys
4.6

Metals: Using Materials

4.6.1Properties of Metals4.6.2Modification of Metals4.6.3Metals: Shape & Form
4.7

Metals: Scales of Production

4.7.1Metals: Scales of Production
4.8

Metals: Specialist Techniques & Processes

4.8.1Metals: Tools4.8.2Metals: Tools & Equipment4.8.3Metals: Cutting, Forming & Machining Processes4.8.4Metals: Joining, Casting & Heat Treatment Process
4.9

Metals: Quality Control

4.9.1Metals: Quality Control4.9.2Metals: Quality Control Processes
4.10

Metals: Surface Treatments & Finishes

4.10.1Metals: Surface Treatments4.10.2Metals: Surface Treatments for Metals4.10.3Metals: Finishes4.10.4Metals: Finishing Techniques for Metals
5

Polymers: Specialist Technical Principles

5.1

Polymers

5.1.1Polymers: Functionality & Aesthetics5.1.2Polymers: Environment & Ethics5.1.3Polymers: Sources, Origins & Properties5.1.4Polymers: Forces & Stresses5.1.5Polymers: Ecological & Social Footprint5.1.6Polymers: The Six R's
5.2

Polymer Categories

5.2.1Categories of Polymers5.2.2Thermoforming Polymers5.2.3Thermosetting Polymers
5.3

Polymer Forms

5.3.1Polymers: Stock Forms5.3.2Polymers: Shape & Form
5.4

Polymer Production, Techniques & Quality Control

5.4.1Polymers: Scales of Production5.4.2Polymers: Specialist Techniques & Processes5.4.3Polymers: Quality Control Systems: Tolerance5.4.4Polymers: Finishes
6

Textiles: Specialist Technical Principles

6.1

Textile Materials

6.1.1Origin of Textiles6.1.2Textile Industry
6.2

Selection of Materials

6.2.1Natural Fibres6.2.2Synthetic Fibres6.2.3Environmental Concerns6.2.4Environmental Impact6.2.5Ethical Challenges
6.3

Forces & Stresses

6.3.1Forces & Stresses
6.4

Ecological & Social Footprint

6.4.1Ecological Footprint6.4.2Social Footprint6.4.3Addressing Ecological & Social Footprints6.4.4The Six R's6.4.5Labour Conditions6.4.6Social Issues6.4.7Addressing Social Issues
7

Designing & Making Principles

7.1

Investigation & Data

7.1.1Iterative Design7.1.2Primary & Secondary Data7.1.3Market Research7.1.4Ergonomics7.1.5Specifications7.1.6End of Topic Test - Investigation & Data7.1.7Exam-Style Questions - Specifications
7.2

Environmental, Social & Economic Challenges

7.2.1Challenges7.2.2Your Research
7.3

The Work of Others

7.3.1Designers7.3.2Architects7.3.3Product Design7.3.4Industrial Designers7.3.5Product Design Companies7.3.6Textile Design Companies7.3.7End of Topic Test - The Work of Others
7.4

Design Strategies

7.4.1Design Strategies
7.5

Communication of Design Ideas

7.5.1Design Communication
7.6

Prototype Development

7.6.1Prototype Development
7.7

Selection of Materials

7.7.1Materials
7.8

Tolerances

7.8.1Tolerances
7.9

Material Management

7.9.1Managing Material7.9.2Tools
7.10

Specialist Equipment

7.10.1Health & Safety
7.11

Specialist Techniques & Processes

7.11.1Specialist Techniques & Processes7.11.2Surface Finishes7.11.3End of Topic Test - Designing & Making

Practice questions on Production Techniques & Systems

Can you answer these? Test yourself with free interactive practice on Seneca — used by over 10 million students.

  1. 1
    Consequences of automation:Fill in the list
  2. 2
    What does CAD stand for?Fill in the list
  3. 3
    Features of computer aided design (CAD):True / false
  4. 4
    Benefits of CAD:Fill in the list
  5. 5
    FMS machines can:Fill in the list
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Environment

Emerging Technologies & Design