Artificial Intelligence and the future of work

By Isabelle Zeidler, Year 7.

What is AI, and how will it change our future?

Firstly, so that AI works, there are three key requirements: data, hardware and algorithms. An example of data are the words in a dictionary saved on a computer. You need this because otherwise Google Translate won’t work. Hardware is necessary so that the computer is able to store data. Lastly, algorithms are what many of us know as programming; the function so that we can do something with our data.

The history of AI is longer than we imagine; we have used AI since 1950. Machine Learning (ML) is a kind of AI. We have used ML since 1980. The most modern kind of ML, AI is Deep Learning (DL). Many of us do not know about this, but a lot of us know the companies that use it. One of the most advanced companies in DL are Google and IBM Watson. So why is DL so amazing? ML has some kind of coding of rules given by programmers. DL learns these rules by observation. This is similar to what happens when babies learn to speak – they rely on observing others.

There are four amazing skills which AI can do:

  • computer vision
  • natural language processing
  • complex independent navigation
  • machine learning

Not all AI use all of these abilities. Some examples of computer vision would include the new passport control at the airport. Another example which is very popular is face recognition in an iPhone X or Surface Pro. The second skill is natural language processing. This is the ability to understand language. A relevant example is Alexa. In the future, some call centres will also use AI’s ability to understand language (it has already started). For example, when you call a bank, a robot will be able to answer even complex inquiries, not just tell you the account balance. Complex independent navigation examples are modern technology ideas like drones and planes.

Do you think that AI may soon even be better than humans?

Well, it is happening already. When focusing on image recognition and accuracy, some scientists compared machines with humans. Human’s accuracy is at 97%. But AI’s accuracy has changed dramatically. Eight years ago, machines were 65% accurate. In 2016, machines were equal to humans, both 97%. Today, in 2018, machines are even better than humans. This is why AI is very likely to change our world, positively and negatively. Some positive examples are that AI powered machines can understand many languages, can speak many different accents, are never tired or grumpy and may be cheaper.

In 1997, IBM Watson made the start to a big step in AI. For the first time, a machine won against a human in chess. A programmer programmed all the moves, and the robot didn’t need AI, let alone ML and DL. 19 years later, another exciting game was played. In an even more complex game than chess, the Japanese game ‘Go’, a robot won against world champion Lee Sedol. In the game ‘Go’, however, Google faced a big problem. Go has too many possible moves to programme. So, Google programmers used AI: they programmed the rules and objective of the game and based on that AI won. Later, AlphaGo lost against AlphaGo0. Both robots used AI but AlphaGo0 was even more advanced. AlphaGo0 learnt the rules by observing AlphaGo.

Will AI powered machines replace workers?

How much time could be saved by using AI in the future? McKinsey compared which skills that humans have will be easiest to replace in the future. The skills which would be easy to replace include predictable physical work (building cars is already being replaced) and collecting and processing data (because this is what robots do all the time, such as calculator). On the other hand, the four activities which would not be easily replaced are management, expertise (applying judgement), interface (interacting with people) and unpredictable physical work (e.g. caretakers). The research group discovered that less than 10% of jobs can be fully automated, but more than 50% of work activities can be automated.

What will the future look like?

The following jobs will be in high demand: care providers, educators, managers, professionals and creatives. So, if you were interested in being doctors, teachers, scientists, engineers, programmers or artists, you are less likely to be replaced by robots. AI will also take away jobs, however such as customer interaction and office support. Waiters and IT helpdesks will not be so promising careers anymore (robots will fix robots!).

There are three main reasons why these jobs will be automated: save costs, provide better customer services and offer entirely new skills. The main reason is better services. Saving costs also plays a big role, e.g. for building cars.  And oil and gas islands will be taken over by robots because it is less dangerous for robots, who can go to most places.

In conclusion, AI is already taking over some elements of jobs. As the technology progresses, however, many more jobs may be automated.

The safest jobs are the ones with social skills.

(source: report by Susan Lund from McKinsey: https://www.mckinsey.com/~/media/McKinsey/Global%20Themes/Future%20of%20Organizations/What%20the%20future%20of%20work%20will%20mean%20for%20jobs%20skills%20and%20wages/MGI-Jobs-Lost-Jobs-Gained-Report-December-6-2017.ashx )

Follow @STEAM_WHS on Twitter

Computer Science at Wimbledon High

Veerman Sajadah, Head of Computer Science, investigates how a change in governmental policy in 2012 impacted the teaching of ICT and Computer Science to current pupils.

2012 marked a major change in secondary education. The education secretary announced that the Information Communication Technology (ICT) curriculum must be scrapped in favour of computer science. While this change was seen as a step forward by many, the debate is still on as to whether our students are missing out on the previously skill based ICT curriculum. Consequently, GCSEs in ICT have now disappeared to make way for new Computer Science (CS) GCSE courses from all major exam boards and all schools have had to adapt. At WHS, students were introduced to CS in Year 7 in 2013. These students were the first cohort to study CS instead of ICT.

The differences between the two subjects have been more contrasting than I anticipated, given that some of the CS content was already being brought into the ICT curriculum. CS offers more challenging topics and the subject content is more specific compared to ICT. ICT topics were seen as more relevant by students not aspiring to pursue a career in technology. If a student wanted to be a historian or lawyer, they could still relate to ICT but when being taught CS topics and programming, they have found it less relevant to what they aim to do in the future.

With all exam boards offering courses in Computer Science rather than ICT, it was important to look closely at their respective specifications. As of date, different exam boards expect different topics to be covered in different depths at GCSE and at A Level. This has major implications on how to structure the KS3 curriculum so that students are ready to cope with the GCSE contents by the end of Year 9.

When we started teaching CS to Year 7 back in September 2013, our students were excited to learn a subject different from what the previous groups had studied. Indeed, CS was a much welcomed change for our girls. This group of students are now in Year 12. Four girls are currently studying the subject at A Level and are keen to study it at University. They are our most senior girls in the subject and the only group from WHS who have a GCSE in CS. Last year’s year 11 result in CS saw all 11 girls score a grade A or A*, (100% A*/A, 46% A*).

Unfortunately, like in many schools, after the first wave of keen Computer Scientist, the numbers of students opting for the subject has fallen. Several studies have been conducted both nationally and internationally to investigate why it has been hard to attract students to study CS. At WHS, we have taken on board these researches and have worked on a plan to address the challenges that we face. We have restructured our KS3 curriculum by introducing key challenging topics early with the aim of making students feel more comfortable and confident with the subject by the time they decide whether to continue studying CS at GCSE. I believe that one of the reasons ICT uptake at GCSE was higher than CS was because students were confident and comfortable with the ICT curriculum. The introduction of programming in early years is also very important to achieve this aim. However, it is not simple to teach complex concepts to children who are too young to learn them. Fortunately, the emergence of several pieces of “children friendly” software that allow students to learn programming through “blockly” has aided teachers incredibly. We are now able to introduce coding to students as early as Year 4. This will produce a generation of students keen and enthusiastic in CS.

On the other hand, there can be a risk of bringing challenging topics to the KS3 curriculum. Students can be put off the subject if they find it too hard. Hence, it is paramount to strike the right balance between “fun” lessons and relevant CS concepts. At WHS, we have brought various new fun activities into our KS3 curriculum. Girls are now able to use the micro:bit to program ringtones and LED strips in Year 7 (see image 1 below). They can create websites and web apps in Year 8 (see image 2 below) and they can use Minecraft and robots to enhance their programming skills in Year 9 (see image 3 below). The department also offers various extra-curricular clubs to engage the students. We are also working with our Scientists in Residence every week to reinforce knowledge learnt in the classroom.

Image 1: Year 7 have been using the micro:bit to program LED lights.

Image 2: Year 8 have been using appshed to create web apps.

Image 3: Year 9 learn how to program the picaxe 20X2 robot.

Our efforts towards promoting this new subject at WHS remain as strong as ever. We are continuously thinking of new ways to promote CS amongst the girls with a view to preparing them for their technological future. We also reach out to Universities such as Imperial College and work with them on projects that allow female students to come in and inspire our pupils. Being a Microsoft Showcase school, we are lucky to participate in events run by Microsoft and we are also looking at inviting experts to deliver talks on latest technologies and innovations in the world of CS. The future of the subject at WHS is bright and we are all ready to embrace it.

Research articles:

1.Computing or ICT: which would serve our pupils better?

https://www.theguardian.com/teacher-network/teacher-blog/2013/aug/12/computing-ict-curriculum-teaching-debate

2.Encouraging Girls to Participate in Computer Science

https://www.slideshare.net/kimarnold28/encouraging-girls-to-participate-in-computer-science-1-092014

3.School ICT to be replaced by computer science programme

http://www.bbc.co.uk/news/education-16493929

4.Women in Computer Science: Getting Involved in STEM

https://www.computerscience.org/resources/women-in-computer-science/

 

Twitter: @CS_IT_WHS

Engineering – Take a closer look

Alex Farrer, one of our Scientists in Residence, looks at the value of science capital and the potential that this can have on future careers in the sciences.

Engineering 2018

2018 is the Year of Engineering – a government campaign to support the engineering profession in recruiting tomorrow’s engineers. Over the last 30 years efforts to attract girls and women into engineering have been unsuccessful. Currently less than 1 in 8 of the engineering workforce is female; boys are 3.5 times more likely to study A level Physics than girls; and boys are five times more likely to gain an engineering and technology degree (Engineering UK 2017).

Our STEAM focus at Wimbledon High provides insights into a variety of opportunities in engineering and in related areas such as design, sports, medicine and computer science. Through STEAM we strive to broaden what counts as science and help build the skills that future employers will value highly such as communication, problem solving and adaptability. We aim to encourage all pupils from Reception to Year 13 to think that STEAM is relevant and important to their lives, both now and in the future, and aim to build their science capital.

A national survey of young people aged between 11 and 15 found that 5% had a high level of science capital (ASPIRES projects).

Professor Louise Archer from UCL Institute of Education, directs the ASPIRES projects and has developed the concept of science capital which refers to someone’s science related qualifications, understanding, knowledge, interests, attitudes and contacts.

The Science Capital Teaching Approach aims to build on the existing science capital of pupils, encourage engagement with science and promote social justice.

If you have a high science capital you might:

  • watch scientific TV programmes
  • have science qualifications
  • enjoy reading popular science books
  • have friends and relatives that work in science and engineering professions
  • visit science museums and fairs
  • engage in science related hobbies or activities
  • talk about science and engineering news topics with people you know

The evidence from this research project shows that the more science capital a pupil has the more they will aspire to continue with sciences post-16 and see science and engineering as fulfilling roles.

Below are some suggestions that schools could consider to build the science capital of pupils and adults in their communities so that everyone sees science and engineering as something of value.

  1. Host a family STEAM challenge event. This will help to encourage science talk with family members and show that STEAM is for everyone in the school community.
  2. Encourage science and engineering activities to “pop up” in the playground. Pupils, parents or staff could run the activities and the high visibility will encourage all members of the school community to get involved.
  3. Celebrate interest in scientific TV programmes and films. For example show a screening of a film like Hidden Figures with scientists or historians on hand to answer any questions, or encourage staff and pupils to talk about the science on TV they have seen.
  4. Signpost STEAM books, magazines and events to staff and pupils. An example is Itch by Simon Mayo, which contains a great deal of chemistry, and there are also some excellent science magazines such as Whizz Pop Bang and BBC Focus that can be linked to lesson content.
  5. Think about ways to get families talking about STEAM homework that is set. Linking tasks to science or technology in the news will encourage talk as will setting tasks where help from adults is very much encouraged such as making a marble run, growing a mystery seed or taking a STEAM photograph.
  6. Find out the sorts of science interests, hobbies, and expertise pupils and their families have so that lessons and assemblies can be personalised. Setting a “Science and me” homework will heWHS Gymnasticlp to discover how many parents and pupils you have in your class with scientific interests and skills.
  7. Elicit and value the wider links that pupils have to science and engineering and draw upon them in lessons. For example using the experience of a gymnast in your class in a physics lesson will enable pupils to broaden what they thinks counts as science in their life.
  8.  Invite scientists and engineers that pupils will relate to into lessons and encourage them to talk about the skills and attributes they use. This could be a parent who uses STEAM skills in their job, a STEM Ambassador or someone who has relevant interest and knowledge. Even better if the scientist or engineer visits a lesson other than science! @STEMAmbassadors

Science lesson Wimbledon

If you are a primary teacher and would like to find out more about how you can build science capital in your school we will be hosting a Science Capital Workshop on February 7th 1.30-3.30pm. Please contact joanna.sandys@wim.gdst.net if you would like to come along.

If any parents with STEAM expertise would enjoy sharing some of their knowledge, skills and insights with our pupils please do let antonia.jolly@wim.gdst.net know and we will be in touch.

We look forward to enriching the science capital of our community in this exciting Year of Engineering as our STEAM journey continues.

Follow @STEAM_WHS on Twitter – #YoE

O Chemistree, O Chemistree: The Wonder of Chemistry at Christmas

By Georgina Hagger, Year 12.

In this article I will endeavour to convince you of the magic of Chemistry, through Christmas related examples, and why we should all care a little bit more about not only the science itself but its contribution to our daily lives.

It’s the most wonderful time of the year, and whilst we all enjoy the lights, presents and the much-anticipated food, the reason behind all of these is forgotten. What makes your turkey go brown, what makes the smell of Christmas trees so enticing and what do your wrapping paper and Sellotape all have in common? To answer all these questions, we need one thing only: Chemistry. Chemistry is what makes this time of the year so enjoyable and yet it is overlooked, ignored and underrated.

When cooking many foods, a reaction called the Maillard Reaction is undergone: such is the case with the iconic Christmas Turkey. This is a chemical reaction between reducing sugars (for example glucose) and amino acids, and the different combinations of these two components is what makes the many different flavour compounds produced in this reaction. In turkey, some of these compounds are furans which produce the meaty, burnt flavours and also pyrazines for the cooked, roasted flavours. This reaction is what makes crisps go golden brown, along with giving some meat its brown colour, as melanoidins are formed which contribute to the brown colouration in cooking.

The smell of Christmas Trees, and pine trees more generally, is much-loved. This scent comes from three main compounds; the two types of pinene (alpha-pinene and beta-pinene) and bornyl acetate. It is this bornyl acetate that produces the pine smell, making it commonly used in fragrances and air conditioners for that fresh aroma. This smell originates from the just three elements that the compound is made from: carbon, hydrogen and oxygen.

When giving a gift at Christmas, or any other time of the year, the wrapping of the present is an important part. Whilst, wrapping paper and Sellotape do not immediately seem to be that similar, they are in fact both based on the same fundamental compound, the very same compound that gives plants their strength: cellulose. Whilst Sellotape needs an additional adhesive element to it, these two items are largely similar.

These ideas are all easy to understand, yet they are never talked about. Chemistry is simply defined as “the branch of science concerned with the substances of which matter is composed” and then how these substances react with each other. When the discipline is defined in such a way it is hard to see how this cannot be part of our everyday lives. Rosalind Franklin, the brilliant and unfortunately often forgotten chemist, once said:

“Science and everyday life cannot and should not be separated.”

However, we seem to have strayed from this, and now Chemistry is just for the people in white coats and goggles, whilst the vast majority of the others, according to a 2015 survey by the Royal Society of Chemistry, seem to only associate the subject with their school days and scientists. Yet we take selfies on our lithium powered smart phones, brush our teeth with our fluoride filled toothpastes and cure headaches with medicine without even knowing how any of this actually happens.

You may now ask, why do we need to know about Chemistry? And there are so many answers to that question; the emergence of disciplines like Green Chemistry to combat the disastrous effect we have on our planet and the shortage of engineers in this country alone, means more Chemists are needed now than ever before. As well as this, there is the simple answer of why should people not know, why should everyone not have the chance to understand the world around them? In recent weeks we have seen guides written by scientists, including chemists, to explain the use of scientific methods – such as DNA fingerprinting – to judges in order to aid better understanding of the chemistry that is used to prosecute and defend people in court. This is just one example of how chemistry is returning to the forefront of society and so needs to be understood.

By encouraging the sciences, and encouraging the explanation of the chemistry we all use; this makes one area of science so much more interesting and accessible to everyone. If everyone can hear about how this discipline is connected to their current situation through the engaging explanations of something like Christmas or cooking or electronics, then perhaps less people will feel marginally indifferent about Chemistry and more will feel interested and passionate about a subject that richly deserves and needs it.

So, as you pull a cracker this Christmas, become disgusted at the bitter taste of a brussels sprout, or watch the fireworks explode at New Year, remember to think about why and how these things happen and add a little bit of Chemistry induced magic to your life.

Follow @Chemistry_WHS on Twitter.

Why being bad at Maths just doesn’t add up

By Helena Rees, Head of Maths.

Many still see people who are good at maths as slightly weird, geeky, uncool. Why is this? Why should we study maths?

A couple of years ago Professor Brian Cox hosted ‘A Night with the Stars’ on the BBC. From the lecture theatre of the Royal Institution, he undertook to explain among other things how diamonds are made up of nothingness and how things can be in an infinite number of places at once. He took the audience, made up of famous faces, celebrities and scientists, through some of the most challenging concepts in physics, using maths and science experiments as he went along. It was a truly fascinating programme and if nothing else demonstrated the power of numbers and the speed with which they can make a grown man cry. Jonathan Ross (43 mins approx) was invited to assist Brian Cox in a maths calculation using standard form. The look of sheer panic on Ross’s face, followed by him saying, “This is the worst thing that’s happened to me as an adult” and “I’m sweating”, just about sums up many people’s attitude towards maths.

Mrs Duncan spoke to the whole school this week and used this example. Imagine going out for dinner with six friends and the bill comes. When the time comes to split the bill between seven, the bill is shuffled to the maths teacher or accountant with a slightly shame-faced look saying, “I am rubbish at maths” or “I couldn’t do maths at school”. Imagine, however, that same group of people sitting down to order and someone asking for the menu to be read out because they can’t read it. Few will admit that they can’t read as the stigma of this would be hugely embarrassing. Yet no such reservations exist for maths with individuals almost boasting about their lack of maths ability. Why is this?

Many still see people who are good at maths as slightly weird, geeky, uncool. A PhD in Maths or Physics at the end of a name tends to conjure up images of social awkwardness — people more to be pitied. On the whole surveys of attitudes over the past 50 years have shown that the cultural stereotype surrounding ‘scientist and mathematician’ has been largely consistent — and negative. However, things are changing, in November 2012, President Obama held a news conference to announce a new national science fair. “Scientists and engineers ought to stand side by side with athletes and entertainers as role models, and here at the White House, we’re going to lead by example,” he said. “We’re going to show young people how cool science can be.” The idea that scientists, mathematicians and engineers could attain iconic status is exciting.

The popularity of television shows such as ‘Think of a Number, ‘Countdown’ and more recently the use of numbers in ‘Numb3rs’, and ‘How Do They Do That?’ have boosted the public’s perception of Maths. CSI has done more for boosting number of students of forensic science than any careers fair. The Telegraph recently reported that students who had a Maths A Level earned on average £10,000 more than a student without. Perhaps statistics like these would encourage more students to take the subject seriously. A report by think-tank Reform estimates that the cost to the UK economy between 1990 and 2008 of not producing enough home-grown mathematicians was £9 billion, such is the value of maths expertise to business.

Marcus du Sautoy, second holder of the Charles Simonyi Chair in the Public Understanding of Science at the University of Oxford says he can’t understand the pride there is in being bad at Maths. “It’s bizarre why people are prepared to admit that because it’s an admission that you can’t think logically. Maths is more than just arithmetic. I would rather do business with someone who admits they’re good at Maths. You don’t get that in the Far East. In Korea or China they’re really proud of being good at Maths because they know the future of their economies depend on it, their finances depend on it. Mobile phones, the internet, Playstations and Google all depend on Maths,” he says. “If people realised that, then they wouldn’t poke fun at it so easily. In today’s information age, Mathematics is needed more than it ever was before – we need Maths. Problem solving skills are highly prized by employers today. There is an increasing need for Maths and the first step needed is a change in our attitudes and beliefs about Maths.”

It is true that many of us will not do another quadratic equation or use trigonometry in our daily lives. However, Mathematics is more than just the sum of subject knowledge. The training to become a scientist or an engineer comes with a long list of transferable skills that are of enormous value in the ‘outside world’. Communication skills, analytical skills, independence, problem-solving skills, learning ability — these are all valuable and at the top of Bloom’s taxonomy. But scientists, mathematicians and engineers tend to discount these assets because they are basic requirements of their profession. They tend to think of themselves as subject-matter experts rather than as adaptable problem solvers.

We have all heard of Pythagoras and his famous theorem. The theorem states that the sum of the squares on the two shorter sides of a right angle triangle sum to the square on the hypotenuse, more commonly shortened to a2 + b2 = c2. In 1637 Pierre de Fermat postulated that no three positive integers a, b, and c satisfy the equation an + bn = cn for any integer value of n greater than 2. For example to a3 + b3 = c3 After his death, his Fermat’s son found a note in a book that claimed Fermat had a proof that was too large to fit in the margin. It was among the most notable theorems in the history of mathematics and prior to its proof, it was in the Guinness Book of World Records as the “most difficult mathematical problem”.
(https://plus.maths.org/content/fermats-last-theorem-and-andrew-wiles ) However, in 1994 Andrew Wiles, published a proof after 358 years of effort by Mathematicians. The proof was described as a ‘stunning advance’ in the citation for his Abel Prize award in 2016. You can watch an interview with Andrew Wiles by Hannah Fry where he was interviewed this week in the London Public Lecture Series organised by Oxford University.

In a recent article Wiles commented “What you have to handle when you start doing Mathematics as an older child or as an adult is accepting the state of being stuck. People don’t get used to that. They find it very stressful.” He used another word, too: “afraid”. Even people who are very good at Mathematics sometimes find this hard to get used to. They feel they’re failing. “But being stuck, isn’t failure. It’s part of the process. It’s not something to be frightened of. Then you have to stop. Let your mind relax a bit…. Your subconscious is making connections. And you start again—the next afternoon, the next day, the next week.”

Patience, perseverance, acceptance—this is what defines a Mathematician.

Hilary Mantel, novelist and writer of Wolf Hall writes “If you get stuck, get away from your desk. Take a walk, take a bath, go to sleep, make a pie, draw, listen to music, meditate, exercise; whatever you do, don’t just stick there scowling at the problem. But don’t make telephone calls or go to a party; if you do, other people’s words will pour in where your lost words should be. Open a gap for them, create a space. Be patient” Perhaps Mathematicians and novelists are so different after all?

When it comes to Mathematics people tend to believe that this is something you’re born with, and either you have it or you don’t and this is the common refrain at parents evenings. But that’s not really the experience of Mathematicians. We all find it difficult. It’s not that we’re any different from someone who struggles with Mathematics problems in junior school…. We’re just prepared to handle that struggle on a much larger scale. We’ve built up resistance to those setbacks. A common comment on parents evening is to delegate the Maths homework to dad as that is ‘his thing’. What message does this give our girls of today? That this is a subject that boys are good at.

Luckily for us here at Wimbledon High School we have a strong culture of doing well in Maths. We have excellent results at iGCSE and there are over 50 girls this year in year 12 alone studying some form of post 16 Mathematics qualification with a view to a STEM career. The new Steam room is an exciting initiative to be part of. A recent article in the National Centre for the Excellence in Teaching of Mathematics journal, asked how can we get more girls to study A Level Maths. The answer at WHS? Keep doing what we are doing well and continue to be excited and positive about the beauty and the magic of numbers.

 

STEAM

By Alex Farrer, Scientist in Residence.

Since the launch of our STEAM (Science, Technology, Engineering, Arts and Maths) space in September, STEAM lessons, activities, clubs and assemblies have been delivered by the new Scientist in Residence team. This has created a buzz of curiosity around the school and enabled “STEAM” to be injected into the curriculum, but what is exactly going on, and why?

It is frequently reported in the press that thousands of additional science and engineering graduates are needed each year and many national initiatives aim to encourage more girls to aspire to such careers. However it is still the case that most pupils decide by the age of 10 that science is “not for them”. They enjoy science, they are good at science, but they think that other people become scientists and engineers. The STEAM initiative aims to encourage more girls to aspire to study science, technology, art and mathematics subjects post 16, but also to develop STEAM skills in all pupils. Not every pupil will aspire to a career in science and engineering, but every pupil will benefit from added exposure to STEAM. Employers and universities are increasingly looking for candidates who have problem solving skills, consider the impact of their decisions, use their imagination, communicate well, work well in teams and cope with frustrations, problems and difficulties. Cross curricular STEAM activities not only help to develop these skills for every pupil, but also show how relevant the subjects of science, technology, engineering and mathematics are to all subjects.

More information is available here about the ASPIRES and ASPIRES 2 studies which track the development of young people’s science and career aspirations and also here about the benefits of keeping options open for possible engineering careers.

This new initiative at Wimbledon High aims to promote STEAM cross curricular activity for all year groups from Reception to Year 13. The Scientist in Residence team consists of experts in computer science, medicine and STEAM teaching and learning, who are able to plan activities that are practical, challenging, engaging and linked to real life situations. Visiting engineers and scientists enrich the projects and links are made to STEAM careers. In the lessons things might go wrong, groups may have to start all over again, team members might disagree and tasks may be really difficult to succeed in. Coping with the epic fails that can occur when imaginatively attempting to solve a STEAM challenge is all part of the benefit though, and there is also a lot of laughter and fun. The lessons can certainly be classed as “serious play”!

These are just a few examples showing how STEAM is beginning to form…

Year 3 launching projectiles ‘Into the Woods” 
• KS3 being creative with Minecraft Education Edition
• Year 7 using their physics knowledge to capture amazing light and colour photographs at the beginning of their art topic
• Year 6 learning about sensors and coding with micro:bits
• Year 1 becoming rocketeers
• Year 7 creating pigments for Joseph’s technicolor dreamcoat in R.S.
• KS3 gaining medical insights into the Black Death in History
• KS3 pupils designing and building a City of Tomorrow
• Year 5 designing ocean grabbers inspired by the R.S.S. Sir David Attenborough
• Year 4 controlling machines built with LEGO WeDo

Year 12 are also beginning a joint project with local schools and scientists from UCL and Imperial College as part of the ORBYTS initiative – Original Research By Young Twinkle Students – an exciting project using mass spectrometry to look at exoplanet atmospheres which includes the opportunity for students to be co-authors on an academic paper. There may even be a robot orchestra in the making, so there is certainly a variety of STEAM forming!

What all of these activities have in common is that they aim to promote STEAM dialogue around the school. The year 6 academic committee have been putting intriguing photographs with an attached question around the school to promote just this sort of discussion, whether it might be year 8 on their way into lunch or parents chatting while waiting to pick up year 2.

 

 

 

What happened here?

 

 

 

We want to show students and adults in our community that STEAM is something done by us all. As an adult yourself you may have felt in the “not for me” category – you might have given up science early, or not felt that it was your best subject. As role models we all need to show that we are interested in talking and getting involved in STEAM, so that no one in our community is in the “not for me” category. Helping with a competition entry, discussing Blue Planet 2, using STEAM news articles or photos as hooks for lessons, all help to inject STEAM into the school community.

Follow us on Twitter @STEAM_WHS to see more of what is going on and look out for future blogs on the importance of building science capital and using STEAM photos to inspire and engage. The following web links are examples of the many cross curricular ideas available for all age groups that could be used in lessons and at home. Create some STEAM!

https://www.stem.org.uk/cross-curricular-topics-resources

https://www.stem.org.uk/welcome-polar-explorer-programme

https://practicalaction.org/challengesinschools

http://www.rigb.org/families/experimental

http://www.rsc.org/learn-chemistry/resources/art/topics