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Thousands of UK schools are now running after-school ... - Ingenia

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AFTER-SCHOOL CLUBS<br />

SOCIETY<br />

SUPPORTING STEM TEACHING<br />

AND LEARNING<br />

The Engineering Engagement Programme run by The Royal<br />

Academy <strong>of</strong> Engineering has delivered continual pr<strong>of</strong>essional<br />

development training to over 180 <strong><strong>school</strong>s</strong> and teachers across<br />

the <strong>UK</strong>. Through this project, <strong><strong>school</strong>s</strong> have been provided<br />

with resources and activities to support and develop their<br />

engineering clubs. Teaching resources have been developed by<br />

the Academy, with activities including designing packaging with<br />

thermochromatic pigment to ensure safe food storage, making<br />

plastics from milk and devising applications for new materials.<br />

STEM activities <strong>are</strong> also developed by the Academy, exemplified<br />

by the classroom resource ‘Athlete or Machine?’ This investigation<br />

into the science, technology, engineering and mathematics behind<br />

the bob skeleton provides a truly cross-curricular activity, with realworld<br />

applications to Olympic sport. Students <strong>are</strong> challenged to<br />

design, build and test a model bob skeleton, while optimising for<br />

maximum speed and minimum aerodynamic drag.<br />

The Academy continues to develop and disseminate resources<br />

through its own networks. It also works closely with STEMNET to<br />

support and encourage STEM ambassadors to engage actively<br />

with <strong><strong>school</strong>s</strong> in delivering and developing engineering projects.<br />

A programme <strong>of</strong> working with teacher coordinators is actively<br />

developing networks with <strong><strong>school</strong>s</strong> not previously engaged with STEM<br />

activities. More information at www.raeng.org.uk/education/eenp/<br />

North London STEM Club participants extracting plastic from milk. Students<br />

heated up whole milk before adding vinegar, causing the protein caesin to<br />

precipitate out <strong>of</strong> the milk as a white solid. Caesin is a long-chain molecule,<br />

or polymer, and the students were encouraged to mould the solid into<br />

different shapes, thereby making a comparison with other plastics<br />

The approach adopted by<br />

the vast majority <strong>of</strong> clubs is to<br />

engage young people in ‘real<br />

world’ activities, <strong>of</strong>ten using the<br />

latest technologies, to build or<br />

create something that works.<br />

This has enabled thousands <strong>of</strong><br />

young people to see the study<br />

<strong>of</strong> STEM subjects as fun, exciting<br />

and relevant. Club leaders <strong>are</strong><br />

consistent in their view that<br />

projects should be based on<br />

themes or activities chosen by<br />

the students themselves and that<br />

they should be ‘hands-on’ and<br />

closely related to what they can<br />

see and experience in the world<br />

around them.<br />

Building eco-friendly<br />

buildings or ‘green’ cars have<br />

been popular choices for clubs,<br />

as has the never-ending interest<br />

in programming machines to<br />

race each other, climb over<br />

obstacles or carry out robotic<br />

tasks. Remote-controlled<br />

cars, jitterbugs and buggies<br />

<strong>are</strong> commonplace, while<br />

rockets continue to fire the<br />

imagination. In a nod to the<br />

television programme Scrapheap<br />

Challenge, at least one club has<br />

built go-karts from old bicycle<br />

frames. Some clubs have<br />

gone even further combining<br />

‘classroom’ projects with a wider<br />

interaction with their <strong>school</strong> or<br />

local community based on ideas<br />

related to medicine, health, and<br />

consumer products, such as<br />

clothing.<br />

BUILDING<br />

CONTROLLABLE<br />

DEVICES<br />

One major advance in recent<br />

years has been the availability <strong>of</strong><br />

cheap programmable devices<br />

that allow students to design<br />

and make devices that produce<br />

computer-controlled movement.<br />

These allow pupils to experience<br />

the concept <strong>of</strong> a programming<br />

language and how logic may<br />

be used to structure a series<br />

<strong>of</strong> commands that control<br />

mechanical devices.<br />

Controlling movement in<br />

a machine can be achieved<br />

using a simple Peripheral<br />

Interface Controller (PIC) or more<br />

advanced microprocessors.<br />

Microchips <strong>of</strong>fer a useful<br />

introduction to programming<br />

without the need for expensive<br />

computer suites. To make things<br />

easier, a range <strong>of</strong> commercially<br />

supplied kits <strong>are</strong> <strong>now</strong> readily<br />

available, comprising simple<br />

programmable devices with<br />

s<strong>of</strong>tw<strong>are</strong> for as little as £2 each.<br />

School clubs <strong>are</strong> also able<br />

to purchase reasonably priced<br />

microcontroller systems that<br />

help with an introduction to<br />

programming. PICAXE is a<br />

<strong>UK</strong>-sourced system based on<br />

a standard PIC microcontroller<br />

chip. Arduino is an opensource<br />

(free to use and develop)<br />

single-board microcontroller.<br />

Both systems <strong>are</strong> designed to<br />

make the process <strong>of</strong> controlling<br />

electromechanical devices more<br />

accessible to people with limited<br />

or no programming experience.<br />

Schools also reported using the<br />

GENIE 8-pin microcontroller<br />

system, the Micros<strong>of</strong>t .NET<br />

Gadgeteer open-source toolkit<br />

and Lego Mindstorms.<br />

The next stage is to consider<br />

more sophisticated systems<br />

such as the $25 Raspberry Pi,<br />

a credit-card-sized computer<br />

that can connect a television<br />

monitor, keyboard and other<br />

peripherals via a USB hub.<br />

Despite its small size, each unit<br />

packs considerable processing<br />

power and can be used as part<br />

<strong>of</strong> a toolkit for young people<br />

interested in learning about<br />

IMAGINEERING CLUBS<br />

Imagineering Clubs provide<br />

hands-on activities for one<br />

hour a week throughout the<br />

academic year to groups <strong>of</strong><br />

around 12 pupils. Most <strong>of</strong><br />

these out-<strong>of</strong>-<strong>school</strong> clubs<br />

<strong>are</strong> run by engineer tutors,<br />

providing real-life experiences<br />

<strong>of</strong> engineering. Offering a<br />

sustained programme <strong>of</strong><br />

development throughout the<br />

academic year, sitting alongside<br />

the National Curriculum, they<br />

cover subjects as diverse as<br />

electricity, magnetism, flight<br />

and measurement. Where<br />

possible, the youngsters <strong>are</strong><br />

taken on visits to factories and<br />

other engineering facilities to<br />

experience modern engineering<br />

and technology in action.<br />

Bob Young is a retired<br />

engineer and volunteer tutor<br />

at a long-<strong>running</strong> Imagineering<br />

Club at St Richard’s Church <strong>of</strong><br />

England First School in Evesham,<br />

Worcestershire. He finds that as<br />

well as gaining practical skills,<br />

the children <strong>are</strong> able to grasp<br />

how things work and the science<br />

and technology behind each<br />

model. The youngsters learn to<br />

read drawings, use checklists,<br />

organise their work surfaces and<br />

the disciplines associated with<br />

these activities, gaining personal<br />

confidence and a sense <strong>of</strong><br />

achievement by learning through<br />

this practical experience.<br />

Elizabeth Spencer, Head<br />

Teacher at St Richard’s, says that<br />

the involvement with engineers<br />

and the opportunities for the<br />

pupils to visit engineering works<br />

has also proved beneficial with<br />

pupils gaining in confidence<br />

and becoming enthusiastic<br />

about engineering as a result.<br />

More information at<br />

www.imagineering.org.uk<br />

A youngster at an Imagineering Club at St Richard’s Church <strong>of</strong> England First School in Evesham constructs a Morse key<br />

and buzzer using simple tools and learns the principles <strong>of</strong> electro-magnetism through practical experience<br />

© The Imagineering Foundation<br />

2 INGENIA INGENIA ISSUE 50 MARCH 2012 3

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