Design and Technology Curriculum

In our primary curriculum, Design & Technology (D&T) is far more than "crafting."

It is a rigorous, strategic journey of problem-solving and innovation designed to move children from being passive consumers to informed, active creators.

By engaging in a full cycle of researching, modeling, making, and evaluating, students develop the resilience and critical thinking necessary to solve real-world problems.

Six Key Principles

This journey is anchored by Six Key Principles that transform a simple classroom project into an engineering challenge:

• User: Identifying exactly who the product is for.

• Purpose: Defining the specific task the product must perform.

• Innovation: Encouraging original ideas and creative solutions rather than "copy-making."

• Authenticity: Ensuring the project exists within a real-world context.

• Functionality: Focusing on how effectively the product works.

• Design Decisions: Empowering children to make choices based on research and testing.

By applying these principles, a child learns to evaluate their work against specific criteria, fostering a habit of deep analytical thinking. This sophisticated path begins not with a blueprint, but with the very first physical interactions a child has with their environment.

Early Years and the Power of Touch

In Nursery and Reception, Physical Development (PD) serves as the "engine room" for all future technical expertise. Long before a child programs a microcontroller, they must master the fine motor control required to manipulate materials and tools safely and with precision.

The progression of physical skills is carefully sequenced to build this foundational strength:

• Pincer Grasp Support: Children participate in activities specifically designed to develop the inferior and fine pincer grasps.

• Finger Strengthening: Sensory play with dough is used strategically; by increasing the resistance of the dough, we strengthen the fingers for complex future tasks.

• Tool Independence: These foundational exercises lead to the ability to use one-handed tools, such as scissors, independently.

• Controlled Actions: Sensory exploration evolves into the ability to "mark make" using controlled actions, which is the precursor to technical drawing and CAD.

During this "Exploring and Making" phase, children move from simply exploring textures to "planning creations." They engage in "junk modelling," learning that materials can be joined to represent real-life objects. This sensory foundation provides the physical confidence required for the structured projects that begin in Key Stage 1.

Key Stage 1 - Building the Basics

In Years 1 and 2, there is a strategic shift as children begin designing for specific "Design Briefs." The focus moves from general exploration to creating products for a "User" and a "Purpose."

The technical progression during these years marks a significant shift from "paper movement" to true "mechanical movement," as outlined below:

This period also introduces the fundamentals of Cooking and Nutrition. Children move from identifying fruit and vegetables to understanding the five food groups on the "Eatwell plate." In the "Dips and Dippers" project, they evaluate flavors using their five senses while learning the safety of holding a knife by the handle.

These concepts provide the essential building blocks for the increased complexity of the junior years.

Lower Key Stage 2:

Accuracy, Seasonality, and Systems

In Years 3 and 4, the curriculum challenges children to move from "making" to "engineering" through increased accuracy and research.

In Mechanical Systems, the simple sliders of Year 1 evolve into Year 3 "linkages" and "levers." Students learn the relationship between "input" (the motion used to start a mechanism) and "output" (the resulting motion), discovering that mechanisms do not just move—they control movement.

The study of Bridges in Year 4 introduces children to the legacy of civil engineers like Thomas Telford and the innovative designs of Zaha Hadid. This project represents a deep dive into "Powerful Knowledge" where students compare:

• Beam and Arch designs.

• Truss bridges, specifically mastering Lattice, Warren, and Pratt trusses.

• Suspension bridges.

Students explore the "So What?" of engineering by investigating compression (squashing forces) and tension, using triangulation to reinforce structures against the force of gravity.

In Food Technology, children move toward "Global Citizenship" by studying seasonality in the UK. After evaluating a Zwiebelkuchen (a traditional German onion tart), students adapt recipes to create their own Savoury Tarts. This is grounded in the "4Cs" of Food Safety: Cleaning, Chilling, Cooking, and avoiding Cross-contamination. They also learn the science of ingredients, such as how yeast produces carbon dioxide to make bread rise.

Upper Key Stage 2: Innovation, Programming, and Global Citizenship

The D&T curriculum culminates in Years 5 and 6, where children act as "Programming Pioneers." They synthesize years of learning to create automated, high-finish products that connect to the wider world.

By Year 6, students master sophisticated technical concepts:

1. Textiles: Moving beyond the running stitch to master blanket stitch, zigzag stitches, and applique (sewing fabric onto fabric), taking inspiration from designers like Vivienne Westwood.

2. Control Systems: Progressing from simple circuits to microcontrollers (like Arduinos and Raspberry Pi). Students study "embedded systems"—the hidden computers found in everyday items like kettles, security lights, and electric toothbrushes. Following the legacy of Alan Turing, they learn to debug code to fix faults in their prototypes.

3. Mechanical Complexity: Mastering cam mechanisms to convert rotary motion to linear motion. In their fairground ride projects, they use pulley and belt systems specifically to transfer movement from one axle to another.

The curriculum maintains deep ties to history and culture, from researching Viking Longboats to inform structural designs to cooking Great British Dishes like cottage pie. This ensures students understand that design is a product of the culture and history from which it arises.