Joining Fabrics and Selecting Components

Understand how responsible designers take risks, innovate, and respond to cultural, social, and environmental influences in product design, fashion and textiles, and design engineering.

Develop in-depth knowledge of materials, components, and processes, and apply mathematical and scientific understanding to inform design decisions.

Communicate design intentions effectively through drawing, sketching, reporting, and digital tools, and understand CAD/CAM in the design-to-manufacture process.

Understand modern manufacturing practices, health and safety regulations, and how to manage a design through to a high-quality prototype collaboratively.

Learners will be able to investigate user needs, apply design strategies, and iteratively develop and evaluate prototypes with users.

Learners will understand key design movements, critically appraise technological developments, and navigate intellectual property and commercial enterprise in design.

Learners will be able to conduct feasibility studies and apply design-for-manufacture principles, considering material selection, product lifecycle, and longevity across different scales of production.

Learners will be able to apply project management methodologies (critical path analysis, scrum/agile, Six Sigma) and plan prototype manufacture for accuracy and efficiency at various scales.

Learners will understand the characteristics, working properties, and performance of materials used in product design, including smart and modern materials.

Learners will select appropriate permanent and semi-permanent joining methods for assembling products made from different materials.

Learners will select and specify surface finishes, coatings, and protective treatments to enhance appearance and prevent degradation of product materials.

Learners will explain and select appropriate forming, moulding, subtractive, and supporting processes for manufacturing product components.

Learners will apply BSI and ISO standards, safely use specialist tools and machinery, determine precision requirements, and evaluate environmental and sustainability factors in design.

Learners will understand industrial and commercial manufacturing practice, including modular and cell production, just-in-time systems, and rapid prototyping technologies.

Learners will classify textile fibres, understand yarn and fabric production methods, and explain the processes and reasons for blending fibres.

Learners will evaluate the working, physical, and performance characteristics of textile materials and apply this knowledge to select appropriate fabrics for specific products and end-users.

Learners will understand how construction methods, finishes, and surface decoration give fabrics their qualities, and explore smart, e-textile, and technical textile applications.

Learners will master fabric joining methods, including stitching and bonding, and evaluate fastenings and components for appropriateness in textile products.

Learners will understand industrial textile practices including ICT, pattern drafting, toiles, quality control, sustainability, and production scales in fashion manufacturing.

Learners will apply system design processes, evaluate innovation strategies, and use CAD and CAE tools for visualisation and simulation in engineering design.

Learners will select engineering materials by their working properties and understand the principles of electronic sensing, control, and output systems.

Learners will analyse forces in structures and material behaviour under load, then evaluate mechanical systems including motion types, power transmission, and motion-converting mechanisms.

Learners will understand energy sources, storage, and transmission in engineering systems, then apply programmable devices and microcontrollers to solve real-world engineering problems.

Learners will be able to create and interpret circuit diagrams, flowcharts, and constructional diagrams to represent engineering systems and their components.

Learners will be able to interface electrical, electronic, mechanical, and pneumatic systems, and apply communication protocols for wireless, embedded, and smart devices.

Learners will be able to develop production plans, schedule tasks using Gantt charts and critical path analysis, and apply Agile methodologies to manage engineering projects.

Learners will understand how ICT supports manufacturing, identify stages and modern methods of production, and evaluate rapid prototyping techniques for engineering applications.

Learners will analyse how production scale, quality control, lean manufacturing, standardised components, and sustainability/legal requirements shape engineering industrial practice.

Learners will be able to apply destructive and non-destructive testing methods to evaluate engineering designs and use test data to propose design modifications.

Learners will be able to use mathematical models and IT-based simulation tools to predict product performance and validate models against real-world testing.

Learners will be able to apply product lifecycle management principles, including engineered lifespans, planned obsolescence, maintenance, product support, and end-of-life strategies in engineering design.