Design and Technology Revision — WJEC GCSE

    Complete WJEC GCSE Design and Technology specification revision resources. Tailored syllabus coverage with topic breakdowns, quizzes, and practice questions.

    Overview

    In the WJEC GCSE Design and Technology course, students embark on a creative and practical journey, exploring how everyday products are designed and manufactured. This specification encourages learners to become innovative, critical thinkers, capable of identifying real-world problems and developing functional, imaginative solutions. The course is built around a core set of design and technology principles, including understanding user needs, sustainability, material properties, and the impact of emerging technologies. Students then specialise in one of several focus areas—such as resistant materials, textiles, graphic products, electronic products, or systems and control—allowing them to deepen their skills in a specific discipline.

    The qualification is structured to reflect the iterative nature of design, moving from research and concept generation through to making and evaluation. Through both theoretical study and hands-on practical work, students gain a holistic understanding of the design process, from initial ideas to finished prototypes. WJEC places a strong emphasis on real-world contexts, encouraging learners to consider social, moral, and environmental factors in their designs. This approach not only prepares them for further study in design, engineering, or manufacturing but also equips them with transferable skills like project management, communication, and problem-solving.

    Students develop confidence in using a wide range of materials, tools, and digital technologies, including computer-aided design (CAD) and computer-aided manufacture (CAM). The course fosters creativity and independent thinking, as learners are expected to document and reflect on their design decisions throughout their coursework. By the end of the GCSE, students will have produced a substantial design portfolio and a high-quality prototype, demonstrating their ability to tackle complex design challenges from concept to realisation.

    Why Choose WJEC for Design and Technology?

    WJEC’s GCSE Design and Technology offers a clear and balanced assessment structure, with equal weighting between the written exam and the practical NEA. This allows students who excel in hands-on, project-based work to shine alongside those who perform well in exams, providing a fair reflection of overall ability.

    The specification is highly flexible, offering a choice of focus areas (such as resistant materials, textiles, or electronic products) that cater to a range of interests and career aspirations. This means students can specialise in the material or system area that excites them most, making learning more engaging and relevant.

    WJEC’s emphasis on real-world problem solving and sustainability equips students with valuable skills for employment and further education. The course is designed in consultation with industry and universities, ensuring that the content is up-to-date and meets the needs of the modern design and manufacturing sectors.

    Assessment & Exam Structure

    The WJEC GCSE Design and Technology is assessed through two components. Unit 1: Design and Technology in the 21st Century is a written examination lasting 2 hours, worth 100 marks and accounting for 50% of the qualification. This paper tests core knowledge and understanding of design and technology principles, as well as knowledge specific to the chosen focus area. Unit 2: Design and Make Task is a non-exam assessment (NEA) lasting approximately 35 hours, also worth 100 marks and 50% of the grade. For the NEA, students complete a sustained design and make activity, producing a portfolio of evidence and a practical outcome. Both components are externally moderated, with the NEA marked by the school and moderated by WJEC.

    Specification Topics

    Top Exam Board Tips

    Common Mistakes to Avoid

    Design and Technology

    WJEC
    GCSE

    Specification: WJEC-GCSE-Design-and-Technology

    The WJEC GCSE Design and Technology specification covers 86 topics with 0 learning objectives (WJEC-GCSE-Design-and-Technology). Use the topic browser below to explore subtopics, exam tips, common mistakes, and key terminology for each area of the course.

    This subject will help you develop key knowledge and skills required for exam success.

    86

    Topics

    0

    Objectives

    334

    Exam Tips

    302

    Pitfalls

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    Key Features

    • Master key concepts
    • Develop exam technique
    • Apply knowledge effectively

    About WJEC GCSE Design and Technology

    In the WJEC GCSE Design and Technology course, students embark on a creative and practical journey, exploring how everyday products are designed and manufactured. This specification encourages learners to become innovative, critical thinkers, capable of identifying real-world problems and developing functional, imaginative solutions. The course is built around a core set of design and technology principles, including understanding user needs, sustainability, material properties, and the impact of emerging technologies. Students then specialise in one of several focus areas—such as resistant materials, textiles, graphic products, electronic products, or systems and control—allowing them to deepen their skills in a specific discipline.

    The qualification is structured to reflect the iterative nature of design, moving from research and concept generation through to making and evaluation. Through both theoretical study and hands-on practical work, students gain a holistic understanding of the design process, from initial ideas to finished prototypes. WJEC places a strong emphasis on real-world contexts, encouraging learners to consider social, moral, and environmental factors in their designs. This approach not only prepares them for further study in design, engineering, or manufacturing but also equips them with transferable skills like project management, communication, and problem-solving.

    Students develop confidence in using a wide range of materials, tools, and digital technologies, including computer-aided design (CAD) and computer-aided manufacture (CAM). The course fosters creativity and independent thinking, as learners are expected to document and reflect on their design decisions throughout their coursework. By the end of the GCSE, students will have produced a substantial design portfolio and a high-quality prototype, demonstrating their ability to tackle complex design challenges from concept to realisation.

    Assessment Structure

    The WJEC GCSE Design and Technology is assessed through two components. Unit 1: Design and Technology in the 21st Century is a written examination lasting 2 hours, worth 100 marks and accounting for 50% of the qualification. This paper tests core knowledge and understanding of design and technology principles, as well as knowledge specific to the chosen focus area. Unit 2: Design and Make Task is a non-exam assessment (NEA) lasting approximately 35 hours, also worth 100 marks and 50% of the grade. For the NEA, students complete a sustained design and make activity, producing a portfolio of evidence and a practical outcome. Both components are externally moderated, with the NEA marked by the school and moderated by WJEC.

    Why Choose WJEC?

    • WJEC’s GCSE Design and Technology offers a clear and balanced assessment structure, with equal weighting between the written exam and the practical NEA. This allows students who excel in hands-on, project-based work to shine alongside those who perform well in exams, providing a fair reflection of overall ability.
    • The specification is highly flexible, offering a choice of focus areas (such as resistant materials, textiles, or electronic products) that cater to a range of interests and career aspirations. This means students can specialise in the material or system area that excites them most, making learning more engaging and relevant.
    • WJEC’s emphasis on real-world problem solving and sustainability equips students with valuable skills for employment and further education. The course is designed in consultation with industry and universities, ensuring that the content is up-to-date and meets the needs of the modern design and manufacturing sectors.

    Frequently Asked Questions

    Assessment Objectives

    AO1
    10%

    Identify, investigate and outline design possibilities to address needs and wants

    AO2
    30%

    Design and make prototypes that are fit for purpose

    AO3
    20%

    Analyse and evaluate – • design decisions and outcomes, including for prototypes made by themselves and others • wider issues in design technology

    AO4
    40%

    Demonstrate and apply knowledge and understanding of – • technical principles • design and making principles

    What Gets Top Grades

    A*/Grade 9

    Knowledge & Understanding

    Demonstrates comprehensive and accurate knowledge

    • Uses correct subject-specific terminology
    • Shows detailed understanding of concepts
    • Makes accurate connections between topics
    • Demonstrates depth beyond surface-level knowledge

    Application

    Applies knowledge effectively to new contexts

    • Selects relevant knowledge for the question
    • Adapts understanding to unfamiliar scenarios
    • Uses examples appropriately
    • Shows awareness of context

    Analysis & Evaluation

    Develops sophisticated analytical arguments

    • Constructs logical chains of reasoning
    • Considers multiple perspectives
    • Weighs evidence to reach justified conclusions
    • Acknowledges limitations and nuances

    Key Command Words

    WJEC
    State
    1 mark

    Give a single fact or term

    Identify
    1 mark

    Name, select, or recognise

    Outline
    2 marks

    Set out main features briefly

    Describe
    2-4 marks

    Give an account of what something is like or what happens

    Explain
    3-6 marks

    Give reasons with developed cause→effect chains

    Compare
    2-4 marks

    State similarities AND differences (both required)

    Analyse
    6-9 marks

    Examine in detail showing cause→effect→consequence chains

    Evaluate
    6-12 marks

    Weigh up BOTH sides, reach JUSTIFIED conclusion

    Assess
    6-12 marks

    Make judgments about importance with justification

    Calculate
    2-4 marks

    Show formula→substitution→calculation→answer with units

    Common Exam Mistakes

    Pitfalls to avoid in your exams

    • •Failing to link design decisions to wider issues like ethics, sustainability, or the environment.
    • •Confusing core knowledge requirements with in-depth knowledge requirements.
    • •Inaccurate use of technical terminology related to systems and materials.
    • •Neglecting to consider the 'systems' approach (input, process, output) when analyzing electronic or mechanical products.
    • •Poor application of mathematical and scientific principles (e.g., Ohm's Law, mechanical advantage calculations) in design contexts.
    • •Confusing 'market pull' with 'technology push'.
    • •Failing to link material selection to specific functional or aesthetic requirements.
    • •Inaccurate application of the input-process-output model in electronic systems.

    Top Examiner Tips

    Expert advice for exam success

    • •Ensure you can apply the 'systems' approach to both electronic and mechanical problems.
    • •Use specific examples of smart materials and explain how they function in a product.
    • •Be prepared to perform calculations related to mechanical advantage, velocity ratios, and material costs.
    • •When discussing sustainability, refer to the SIX R's and Life Cycle Analysis.
    • •Clearly distinguish between thermoforming and thermosetting polymers in terms of their properties and processing.
    • •Ensure you have mastered the in-depth content for at least one material area as this is essential for high-mark questions.
    • •Use specific design and technology terminology when answering questions.
    • •Ensure answers reflect the 'systems approach' (input-process-output) when discussing electronics or mechanics.

    Specification Topics

    86 topics

    Technical principles

    Technical principles covers core knowledge in design and technology, including the impact of new technologies, smart materials, electronic systems, mechanical devices, and a broad understanding of material categories. It also requires in-depth study of at least one specific material or system area.

    0 objectives6 tips5 pitfalls

    Technical principles – Core knowledge and understanding

    This topic covers the core technical principles required for GCSE Design and Technology, focusing on five key areas: design and technology and our world, smart materials, electronic systems and programmable components, mechanical components and devices, and materials. It provides the foundational knowledge necessary for making informed decisions regarding material selection, system integration, and the environmental/social impact of design.

    0 objectives5 tips5 pitfalls

    The impact of new and emerging technologies on: industry; enterprise; sustainability; people; culture; society; the environment; production techniques; systems

    This topic covers the impact of new and emerging technologies on various aspects of modern life, including industry, enterprise, sustainability, people, culture, society, the environment, production techniques, and systems. It focuses on how these technologies drive market pull and technology push, the product life cycle, global production effects, legislation, consumer rights, and the ethical/moral considerations of manufacturing and product use.

    0 objectives4 tips4 pitfalls

    Ferrous and non-ferrous metals

    This topic covers the classification, properties, and applications of ferrous metals, non-ferrous metals, and alloys, including their sourcing, working properties, stock forms, and the necessity for protective finishes.

    0 objectives5 tips5 pitfalls

    Thermoforming and thermosetting polymers

    This topic covers the categorisation, physical properties, and working characteristics of thermoforming (thermoplastic) and thermosetting polymers, including their sources, stock forms, and specific material examples.

    0 objectives

    Natural, synthetic, blended and mixed fibres, and woven, non-woven and knitted textiles

    This topic covers the classification, properties, and construction methods of textile fibres and fabrics. It includes the study of natural and synthetic fibres, the process of blending and mixing fibres to enhance properties, and the various methods of fabric construction including weaving, knitting, and non-woven techniques.

    0 objectives5 tips5 pitfalls

    How the critical evaluation of new and emerging technologies informs design decisions; considering contemporary and potential future scenarios from different perspectives, such as ethics and the environment

    This topic focuses on the critical evaluation of new and emerging technologies to inform design decisions, specifically considering contemporary and future scenarios through the lenses of ethics, the environment, and sustainability.

    0 objectives4 tips4 pitfalls

    How energy is generated and stored in order to choose and use appropriate sources to make products and to power systems

    This topic covers the generation and storage of energy, focusing on the classification of energy sources, their environmental impact, and their application in powering products and manufacturing systems.

    0 objectives3 tips

    Developments in modern and smart materials, composite materials and technical textiles

    This topic covers the technological advancements in materials, specifically focusing on modern and smart materials, composite materials, and technical textiles, and their impact on product design and functionality.

    0 objectives3 tips

    How electronic systems provide functionality to products and processes, including sensors and control devices to respond to a variety of inputs, and devices to produce a range of outputs

    This topic covers the fundamental principles of electronic systems, focusing on the 'systems approach' (input, process, output) to provide functionality to products. It includes the use of sensors to detect environmental changes, control devices to process signals, and output devices to perform functions, alongside the importance of feedback and graphical communication methods.

    0 objectives4 tips4 pitfalls

    The use of programmable components to embed functionality into products in order to enhance and customise their operation

    The use of programmable components to embed functionality into products in order to enhance and customise their operation.

    0 objectives

    The functions of mechanical devices, to produce different sorts of movement, changing the magnitude and direction of forces

    The study of mechanical devices and systems, focusing on their function to transform input motion and force into desired output motion and force, including the analysis of everyday mechanical products and simple calculations.

    0 objectives3 tips

    Papers and boards

    This topic covers the categorisation, properties, and applications of papers, cards, boards, and composite materials, including their standard sizes, measurement systems, and manufacturing processes.

    0 objectives3 tips3 pitfalls

    Natural and manufactured timber

    This topic covers the categorisation, properties, and applications of natural and manufactured timbers. It includes the identification of hardwoods and softwoods, their sources, and the forms in which they are available. It also details the composition, standard forms, and uses of manufactured boards, as well as the methods for protecting and finishing timber products.

    0 objectives3 tips

    Design and technology and our world

    This topic explores the broader context of design and technology, focusing on the impact of new and emerging technologies on industry, enterprise, sustainability, people, culture, society, the environment, production techniques, and systems. It also covers the critical evaluation of these technologies, the importance of sustainability (including the 6 Rs and Life Cycle Analysis), and the generation and storage of energy.

    0 objectives5 tips5 pitfalls

    Smart materials, composites and technical textiles

    This topic covers the development and implementation of modern, smart, and composite materials, as well as technical textiles, in product design. It focuses on how these advanced materials respond to environmental stimuli and their impact on product functionality and design.

    0 objectives4 tips4 pitfalls

    Electronic systems and programmable components

    This topic covers the integration of electronic systems and programmable components into products, focusing on the systems approach (input, process, output), feedback mechanisms, and the use of programmable microcontrollers to enhance functionality.

    0 objectives4 tips4 pitfalls

    Mechanical components and devices

    The study of mechanical components and devices, focusing on their function to produce different types of movement and their ability to change the magnitude and direction of forces within products.

    0 objectives3 tips

    Materials

    This topic covers the core knowledge and understanding of materials required for GCSE Design and Technology. It includes the categorisation, properties, sources, uses, and applications of papers and boards, natural and manufactured timber, ferrous and non-ferrous metals, thermoforming and thermosetting polymers, and various textile fibres (natural, synthetic, blended, and mixed).

    0 objectives5 tips5 pitfalls

    Technical principles – In-depth knowledge and understanding

    This topic covers the in-depth knowledge and understanding of technical principles required for GCSE Design and Technology. Learners must study at least one of six specific material/system areas: electronic systems/programmable components/mechanical devices, papers/boards, natural/manufactured timber, ferrous/non-ferrous metals, thermoforming/thermosetting polymers, or fibres/textiles. The focus is on sources, properties, ecological/social footprints, selection factors, forces/stresses, stock forms, manufacturing processes, specialist techniques, and surface treatments.

    0 objectives8 tips9 pitfalls

    Electronic systems, programmable components & mechanical devices (in-depth)

    This in-depth study focuses on the technical principles, components, and systems of electronic and mechanical devices. It covers the sources, properties, and applications of these systems, including input, process, and output blocks, programmable microcontrollers, and mechanical devices like pulleys, gears, and levers. It also addresses the ecological and social footprint of these technologies, their selection factors, and the specialist techniques required to manufacture high-quality prototypes.

    0 objectives6 tips6 pitfalls

    The sources, origins, physical and working properties of the material categories or the components and systems, and their ecological and social footprint [Electronic systems, programmable components & mechanical devices]

    This topic covers the in-depth technical principles of electronic systems, programmable components, and mechanical devices. It focuses on the sources, origins, physical and working properties of these components, their integration into systems, and their ecological and social footprint.

    0 objectives5 tips6 pitfalls

    The way in which the selection of materials or components is influenced by a range of factors, such as functional, aesthetic, environmental, availability, cost, social, cultural and ethical [Electronic systems, programmable components & mechanical devices]

    This topic focuses on the factors influencing the selection of electronic systems, programmable components, and mechanical devices in design. It requires an understanding of how functional, aesthetic, environmental, availability, cost, social, cultural, and ethical considerations dictate the choice of components and systems in product design.

    0 objectives5 tips5 pitfalls

    The impact of forces and stresses on materials and objects and the ways in which materials can be reinforced and stiffened [Electronic systems, programmable components & mechanical devices]

    This topic focuses on the impact of forces and stresses on materials and objects within the context of electronic systems, programmable components, and mechanical devices. It covers how mechanical components are strengthened to withstand forces and the methods for casing and protecting electronic components.

    0 objectives

    Stock forms, types and sizes in order to calculate and determine the quantity of materials or components required [Electronic systems, programmable components & mechanical devices]

    This topic focuses on the knowledge of standard stock forms, types, and sizes of electronic systems, programmable components, and mechanical devices to enable accurate calculation and determination of the quantity of materials or components required for a design project.

    0 objectives3 tips3 pitfalls

    Alternative processes that can be used to manufacture products to different scales of production [Electronic systems, programmable components & mechanical devices]

    This topic covers the alternative manufacturing processes used to produce products at different scales of production, specifically within the context of electronic systems, programmable components, and mechanical devices.

    0 objectives3 tips

    Specialist techniques and processes that can be used to shape, fabricate, construct and assemble a high quality prototype, including techniques such as wastage, addition, deforming and reforming, as appropriate to the materials and/or components being used [Electronic systems, programmable components & mechanical devices]

    Specialist techniques and processes for shaping, fabricating, constructing, and assembling high-quality prototypes in electronic systems, programmable components, and mechanical devices, focusing on wastage, addition, deforming, and reforming.

    0 objectives5 tips5 pitfalls

    Appropriate surface treatments and finishes that can be applied for functional and aesthetic purposes [Electronic systems, programmable components & mechanical devices]

    This topic covers the application of surface treatments and finishes to electronic systems, programmable components, and mechanical devices for both functional and aesthetic purposes, including the protection of electronic components and the finishing of metal parts.

    0 objectives3 tips3 pitfalls

    Papers & boards (in-depth)

    In-depth study of papers and boards, covering their sources, properties, manufacturing processes, and their application in design and technology, including sustainability and commercial production techniques.

    0 objectives4 tips4 pitfalls

    The sources, origins, physical and working properties of the material categories or the components and systems, and their ecological and social footprint [Papers & boards]

    This topic covers the in-depth study of papers and boards, focusing on their sources, origins, physical and working properties, and their ecological and social footprint. It includes the manufacturing processes of wood pulp, the properties of various paper and board types, and the environmental impact of their production and use.

    0 objectives5 tips5 pitfalls

    The way in which the selection of materials or components is influenced by a range of factors, such as functional, aesthetic, environmental, availability, cost, social, cultural and ethical [Papers & boards]

    This topic covers the factors influencing the selection of papers and boards for design and manufacturing, including functional, aesthetic, environmental, availability, cost, social, cultural, and ethical considerations.

    0 objectives4 tips4 pitfalls

    The impact of forces and stresses on materials and objects and the ways in which materials can be reinforced and stiffened [Papers & boards]

    This topic covers the behavior of papers and boards when subjected to forces and stresses, and the specific techniques used to reinforce and stiffen these materials to improve their structural integrity and performance in products.

    0 objectives3 tips

    Stock forms, types and sizes in order to calculate and determine the quantity of materials or components required [Papers & boards]

    This topic covers the standard stock forms, types, and sizes of papers and boards, and the application of this knowledge to calculate and determine the quantity of materials or components required for design and make activities.

    0 objectives4 tips4 pitfalls

    Alternative processes that can be used to manufacture products to different scales of production [Papers & boards]

    This topic covers the alternative manufacturing processes used for papers and boards across different scales of production, including one-off, batch, and high-volume/mass production, and the role of CAM in these processes.

    0 objectives3 tips

    Specialist techniques and processes that can be used to shape, fabricate, construct and assemble a high quality prototype, including techniques such as wastage, addition, deforming and reforming, as appropriate to the materials and/or components being used [Papers & boards]

    This topic covers the specialist techniques and processes required to shape, fabricate, construct, and assemble high-quality prototypes using papers and boards. It focuses on the practical application of wastage, addition, deforming, and reforming techniques to transform raw materials into functional prototypes.

    0 objectives5 tips5 pitfalls

    Appropriate surface treatments and finishes that can be applied for functional and aesthetic purposes [Papers & boards]

    This topic covers the application of surface treatments and finishes to papers and boards for both functional and aesthetic purposes, including commercial printing and finishing processes.

    0 objectives

    Natural & manufactured timber (in-depth)

    In-depth study of natural and manufactured timber, covering their sources, properties, stock forms, manufacturing processes, and environmental/social impacts.

    0 objectives5 tips5 pitfalls

    The sources, origins, physical and working properties of the material categories or the components and systems, and their ecological and social footprint [Natural & manufactured timber]

    This topic covers the in-depth study of natural and manufactured timber, focusing on their sources, origins, physical and working properties, and their ecological and social footprint.

    0 objectives5 tips5 pitfalls

    The way in which the selection of materials or components is influenced by a range of factors, such as functional, aesthetic, environmental, availability, cost, social, cultural and ethical [Natural & manufactured timber]

    This topic covers the factors influencing the selection of natural and manufactured timber for design and manufacturing, including functional, aesthetic, environmental, availability, cost, social, cultural, and ethical considerations.

    0 objectives3 tips

    The impact of forces and stresses on materials and objects and the ways in which materials can be reinforced and stiffened [Natural & manufactured timber]

    This topic covers the mechanical behaviour of natural and manufactured timber under various forces and stresses, and the methods used to reinforce or stiffen timber structures to improve their performance and structural integrity.

    0 objectives3 tips3 pitfalls

    Stock forms, types and sizes in order to calculate and determine the quantity of materials or components required [Natural & manufactured timber]

    This topic focuses on the standard stock forms, types, and sizes of natural and manufactured timber, and the application of this knowledge to calculate and determine the quantity of materials or components required for design and make tasks.

    0 objectives4 tips4 pitfalls

    Alternative processes that can be used to manufacture products to different scales of production [Natural & manufactured timber]

    This topic covers the alternative manufacturing processes used to produce natural and manufactured timber products across different scales of production, ranging from one-off to high-volume manufacturing.

    0 objectives3 tips

    Specialist techniques and processes that can be used to shape, fabricate, construct and assemble a high quality prototype, including techniques such as wastage, addition, deforming and reforming, as appropriate to the materials and/or components being used [Natural & manufactured timber]

    This topic covers the specialist techniques and processes required to shape, fabricate, construct, and assemble high-quality prototypes using natural and manufactured timber. It focuses on wastage, addition, deforming, and reforming techniques, alongside appropriate joining methods and surface treatments.

    0 objectives5 tips5 pitfalls

    Appropriate surface treatments and finishes that can be applied for functional and aesthetic purposes [Natural & manufactured timber]

    This topic covers the application of surface treatments and finishes to natural and manufactured timber for both functional (protection) and aesthetic (appearance) purposes.

    0 objectives3 tips3 pitfalls

    Ferrous & non-ferrous metals (in-depth)

    In-depth study of ferrous and non-ferrous metals, covering their classification, properties, sources, and industrial applications, as well as the environmental and social impacts of their use.

    0 objectives5 tips5 pitfalls

    The sources, origins, physical and working properties of the material categories or the components and systems, and their ecological and social footprint [Ferrous & non-ferrous metals]

    This topic covers the in-depth study of ferrous and non-ferrous metals, including their classification, sources, physical and working properties, and their ecological and social footprint.

    0 objectives4 tips4 pitfalls

    The way in which the selection of materials or components is influenced by a range of factors, such as functional, aesthetic, environmental, availability, cost, social, cultural and ethical [Ferrous & non-ferrous metals]

    The selection of ferrous and non-ferrous metals and their alloys is influenced by a range of factors including functional, aesthetic, environmental, availability, cost, social, cultural, and ethical considerations.

    0 objectives3 tips

    The impact of forces and stresses on materials and objects and the ways in which materials can be reinforced and stiffened [Ferrous & non-ferrous metals]

    This topic covers the impact of forces and stresses on ferrous and non-ferrous metals, and the methods used to reinforce and stiffen these materials to improve their structural integrity and performance.

    0 objectives3 tips3 pitfalls

    Stock forms, types and sizes in order to calculate and determine the quantity of materials or components required [Ferrous & non-ferrous metals]

    This topic focuses on the standard stock forms, types, and sizes of ferrous and non-ferrous metals, enabling learners to calculate and determine the quantity of materials or components required for design and make tasks.

    0 objectives4 tips4 pitfalls

    Alternative processes that can be used to manufacture products to different scales of production [Ferrous & non-ferrous metals]

    Alternative processes used to manufacture products to different scales of production for ferrous and non-ferrous metals.

    0 objectives

    Specialist techniques and processes that can be used to shape, fabricate, construct and assemble a high quality prototype, including techniques such as wastage, addition, deforming and reforming, as appropriate to the materials and/or components being used [Ferrous & non-ferrous metals]

    Specialist techniques and processes for shaping, fabricating, constructing, and assembling high-quality prototypes using ferrous and non-ferrous metals, including wastage, addition, deforming, and reforming.

    0 objectives4 tips4 pitfalls

    Appropriate surface treatments and finishes that can be applied for functional and aesthetic purposes [Ferrous & non-ferrous metals]

    The application of surface treatments and finishes to ferrous and non-ferrous metals for both functional and aesthetic purposes.

    0 objectives2 tips

    Thermoforming & thermosetting polymers (in-depth)

    This topic covers the in-depth study of thermoforming (thermoplastic) and thermosetting polymers, including their sources, physical and working properties, ecological and social impacts, and their application in design and manufacturing processes.

    0 objectives5 tips5 pitfalls

    The sources, origins, physical and working properties of the material categories or the components and systems, and their ecological and social footprint [Thermoforming & thermosetting polymers]

    This topic covers the classification, physical and working properties, and the ecological and social footprint of thermoforming (thermoplastic) and thermosetting polymers. It includes understanding the differences between these two material categories, their sources (natural and synthetic), and their application in products.

    0 objectives4 tips4 pitfalls

    The way in which the selection of materials or components is influenced by a range of factors, such as functional, aesthetic, environmental, availability, cost, social, cultural and ethical [Thermoforming & thermosetting polymers]

    This topic covers the factors influencing the selection of thermoforming and thermosetting polymers in design and manufacturing, including functional, aesthetic, environmental, availability, cost, social, cultural, and ethical considerations.

    0 objectives4 tips4 pitfalls

    The impact of forces and stresses on materials and objects and the ways in which materials can be reinforced and stiffened [Thermoforming & thermosetting polymers]

    This topic covers the impact of forces and stresses on thermoforming and thermosetting polymers, including methods for reinforcement and stiffening to improve structural integrity and performance.

    0 objectives2 tips

    Stock forms, types and sizes in order to calculate and determine the quantity of materials or components required [Thermoforming & thermosetting polymers]

    This topic covers the standard stock forms, types, and sizes of thermoforming and thermosetting polymers, and the application of this knowledge to calculate and determine the quantity of materials or components required for design and manufacturing projects.

    0 objectives4 tips4 pitfalls

    Alternative processes that can be used to manufacture products to different scales of production [Thermoforming & thermosetting polymers]

    This topic covers the alternative manufacturing processes used for thermoforming and thermosetting polymers across different scales of production, including the principles of mass, batch, and one-off production, and the use of specific moulding techniques.

    0 objectives4 tips4 pitfalls

    Specialist techniques and processes that can be used to shape, fabricate, construct and assemble a high quality prototype, including techniques such as wastage, addition, deforming and reforming, as appropriate to the materials and/or components being used [Thermoforming & thermosetting polymers]

    Specialist techniques and processes for shaping, fabricating, constructing, and assembling high-quality prototypes using thermoforming and thermosetting polymers, including wastage, addition, deforming, and reforming.

    0 objectives4 tips5 pitfalls

    Appropriate surface treatments and finishes that can be applied for functional and aesthetic purposes [Thermoforming & thermosetting polymers]

    This topic covers the application of surface treatments and finishes to thermoforming and thermosetting polymers for both functional and aesthetic purposes, including the self-finishing nature of these materials.

    0 objectives3 tips3 pitfalls

    Natural, synthetic, blended and mixed fibres; woven, non-woven and knitted textiles (in-depth)

    This topic covers the in-depth study of natural, synthetic, blended, and mixed fibres, as well as the construction methods for woven, non-woven, and knitted textiles. It includes the classification of fibres by source, their physical and working properties, the impact of blending and mixing, and the various finishing processes used for aesthetic and functional purposes.

    0 objectives5 tips5 pitfalls

    The sources, origins, physical and working properties of the material categories or the components and systems, and their ecological and social footprint [Fibres & textiles]

    This topic covers the in-depth study of fibres and textiles, focusing on their sources, origins, physical and working properties, and their ecological and social footprint. It includes the classification of fibres (natural, synthetic, blended, mixed), construction methods (weaving, knitting, bonding, felting, laminating), and the application of finishing processes to enhance aesthetic and functional qualities.

    0 objectives5 tips5 pitfalls

    The way in which the selection of materials or components is influenced by a range of factors, such as functional, aesthetic, environmental, availability, cost, social, cultural and ethical [Fibres & textiles]

    This topic focuses on the factors influencing the selection of fibres and textiles for design and manufacturing, including functional, aesthetic, environmental, availability, cost, social, cultural, and ethical considerations.

    0 objectives4 tips4 pitfalls

    The impact of forces and stresses on materials and objects and the ways in which materials can be reinforced and stiffened [Fibres & textiles]

    This topic focuses on the impact of forces and stresses on textile materials and objects, and the methods used to reinforce and stiffen them to improve functionality and durability.

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    Stock forms, types and sizes in order to calculate and determine the quantity of materials or components required [Fibres & textiles]

    This topic focuses on the understanding of standard stock forms, types, and sizes of fibres and textiles to accurately calculate material requirements, estimate costs, and determine the quantity of materials or components needed for a design and make task.

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    Alternative processes that can be used to manufacture products to different scales of production [Fibres & textiles]

    This topic covers the various manufacturing systems and processes used to produce textile products at different scales of production, ranging from one-off custom items to high-volume mass production.

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    Specialist techniques and processes that can be used to shape, fabricate, construct and assemble a high quality prototype, including techniques such as wastage, addition, deforming and reforming, as appropriate to the materials and/or components being used [Fibres & textiles]

    Specialist techniques and processes for fibres and textiles used to shape, fabricate, construct, and assemble high-quality prototypes, including wastage, addition, deforming, and reforming.

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    Appropriate surface treatments and finishes that can be applied for functional and aesthetic purposes [Fibres & textiles]

    This topic covers the application of surface treatments and finishes to fibres and textiles for both functional and aesthetic purposes. It includes various methods of dyeing, printing, painting, embroidery, and appliqué, as well as industrial and manual techniques for enhancing appearance and performance.

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    Designing and making principles

    Designing and making principles cover the core and in-depth knowledge required for the iterative design and make process. This includes understanding design contexts, user needs, design strategies, communication of ideas, prototype development, and the application of specialist techniques, tools, and surface finishes to produce high-quality, fit-for-purpose outcomes.

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    Designing and making principles – Core knowledge and understanding

    This topic covers the core knowledge and understanding of designing and making principles required for the sustained design and make task (NEA) and the written examination. It focuses on the iterative process of identifying design opportunities, user needs, developing design briefs and specifications, generating and communicating ideas, prototyping, and making informed decisions through analysis and evaluation.

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    Understand that all design and technological practice takes place within contexts which inform outcomes

    Design and technological practice does not occur in isolation; it is fundamentally shaped by the contexts in which it takes place. These contexts serve as the starting point for identifying design opportunities and creating design briefs.

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    Make informed and reasoned decisions, respond to feedback about their own prototypes (and existing products and systems) to identify the potential for further development and suggest how modifications could be made

    This topic focuses on the iterative design process, specifically the requirement for learners to make informed and reasoned decisions, respond to feedback regarding their own prototypes and existing products, and identify opportunities for further development through suggested modifications.

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    Identify and understand client and user needs through the collection of primary and secondary data

    This topic focuses on the foundational research phase of the design process, requiring learners to identify user needs and wants, explore design problems within a given context, and collect both primary and secondary data to inform the development of design briefs and specifications.

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    Demonstrate an ability to write a design brief and specifications from their own and others' considerations of human needs, wants and interests

    This topic requires learners to demonstrate the ability to write a design brief and a design specification based on their own and others' considerations of human needs, wants, and interests. This is a core designing and making principle that informs the initial stages of the non-exam assessment (NEA) contextual challenge.

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    Investigate factors, such as environmental, social and economic challenges, in order to identify opportunities and constraints that influence the processes of designing and making

    This topic requires learners to investigate wider design factors—specifically environmental, social, and economic challenges—to identify opportunities and constraints that influence the design and manufacturing process. It emphasizes that design does not occur in isolation and requires consideration of ergonomics, anthropometrics, and broader sustainability issues.

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    Explore and develop their ideas, testing, critically analysing and evaluating their work in order to inform and refine their design decisions thus achieving improved outcomes

    This topic focuses on the iterative design process, emphasizing the importance of testing, critically analysing, and evaluating work throughout the development of a prototype to refine design decisions and achieve improved outcomes.

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    Investigate and analyse the work of past and present professionals and companies in the area of design and technology in order to help inform their own ideas

    This topic requires learners to investigate and analyse the work of past and present professionals and companies in the field of design and technology. This research is intended to inform, refine, and modify the learner's own design ideas during their design and make activities.

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    Use different design strategies, such as collaboration, user-centred design and systems thinking, to generate initial ideas and avoid design fixation

    The use of specific design strategies to generate initial ideas and mitigate the risk of design fixation during the design and make process.

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    Develop, communicate, record and justify design ideas, applying suitable techniques, for example: formal and informal 2D and 3D drawing; system and schematic diagrams; annotated sketches; exploded diagrams; models; presentations; written notes; working drawings; schedules; audio and visual recordings; mathematical modelling; computer-based tools

    This topic focuses on the core principles of developing, communicating, recording, and justifying design ideas using a variety of techniques to support the iterative design process in Design and Technology.

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    Design and develop at least one prototype that responds to needs and/or wants and is fit for purpose, demonstrating functionality, aesthetics, marketability and consideration of innovation

    This topic focuses on the practical application of designing and making a prototype that addresses a specific need or want. It requires learners to demonstrate functionality, aesthetics, marketability, and innovation while ensuring the prototype is fit for purpose.

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    Designing and making principles – In-depth knowledge and understanding

    This topic covers the in-depth knowledge and understanding of designing and making principles, specifically focusing on the practical application of selecting materials, marking out, using tools and equipment, employing specialist techniques, and applying surface treatments and finishes in relation to at least one of the six material/system areas (electronic systems, papers/boards, timber, metals, polymers, or textiles).

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    Selecting and working with appropriate materials and components in order to produce a prototype

    This topic focuses on the practical application of selecting and utilizing appropriate materials and components to successfully manufacture a high-quality prototype as part of a sustained design and make task.

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    Using appropriate and accurate marking out methods including: measuring and use of reference points, lines and surfaces; use templates, jigs and/or patterns; work within tolerances; understand efficient cutting and how to minimise waste

    This topic focuses on the practical application of accurate marking out techniques during the design and make process. It emphasizes the importance of precision, the use of reference points, lines, and surfaces, and the utilization of templates, jigs, and patterns to ensure consistency and accuracy. It also covers working within defined tolerances and the necessity of efficient cutting to minimize material waste.

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    Using specialist tools and equipment, appropriate to the materials or components used (including hand tools, machinery, digital design and manufacture), to create a specific outcome

    This topic focuses on the practical application of specialist tools, machinery, and digital manufacturing equipment to create high-quality prototypes. It requires learners to select and use appropriate tools and techniques for shaping, fabricating, constructing, and assembling materials, while adhering to health and safety regulations.

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    Using specialist techniques and processes to shape, fabricate, construct and assemble a high quality prototype, including techniques such as wastage, addition, deforming and reforming, as appropriate to the materials and/or components being used

    This topic focuses on the practical application of specialist techniques and processes to shape, fabricate, construct, and assemble high-quality prototypes. It covers the use of wastage, addition, deforming, and reforming techniques tailored to specific material categories (papers/boards, timber, metals, polymers, or textiles) to ensure prototypes are fit for purpose.

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    Using appropriate surface treatments and finishes for functional and aesthetic purposes

    This topic focuses on the application of surface treatments and finishes to materials and products for both functional purposes (such as protection, durability, and performance) and aesthetic purposes (such as enhancing appearance and visual appeal). It requires an understanding of why specific finishes are chosen for different materials and how they contribute to the overall quality and longevity of a prototype.

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    Design and Technology WJEC GCSE Topics & Revision | MasteryMind