Tag: STEM

  • Opinion: Why Rishi Sunak needs to think beyond STEM

    Finito World

     

    We know that Rishi Sunak thinks about mathematics a lot because he has told us this is the case. This is a prime minister who, as the almost clicheic saying goes, ‘inherited a mess’, and is now beginning to think about what his priorities going forward might be.

    He has sorted out that mess to some extent. Certainly, he has shown he can handle the work – a low bar perhaps, but one which his predecessor Liz Truss never managed to clear. He also has some victories to his name: the Windsor Accords should in time spark a return to power-sharing in Northern Ireland; the AUKUS submarine deal shows he is capable of operating on the world stage; and most importantly, he has begun to get control of the public finances, though inflation remains stubbornly high and his decision to promise to cut it in half was an own goal: in politics, never promise something which isn’t in your control to deliver.

    None of his achievement are showy, and all of his progress is incremental. All is not lost: due to a low energy opponent in the shape of Sir Keir Starmer it may enough to put the Conservatives in touching distance of a 1992-style election victory in next year’s General Election, though that remains a long shot. What’s needed to pull off victory is leadership, and direction. So far, we have the ‘maths to 18’ policy, stipulating that all students should have some maths education right up until the end of secondary school.

    It is well-intentioned, and the prime minister has a point. Many young people do indeed, as the prime minister said in his speech at the start of the year, leave university without a basic understanding of finances, and experience difficulty when it comes to negotiating their mortgage deals.

    But in framing the question of mathematics in such limited terms he has made the matter seem dull, thereby making it hard to bring people along, and earning derision in some quarters for a ‘cookie cutter’ approach. A tax return is a good thing to have sent in on time, but it doesn’t speak to the human heart. It was Albert Einstein who said: “Imagination is more important than knowledge. Knowledge is limited. Imagination encircles the world.”

    In politics it is best never to express an intention aloud without having fleshed out the consequences of choosing to pursue it. In rushing into the debate without a full appreciation of how more maths teachers will be delivered – and doing so during such a febrile atmosphere of teachers’ strikes – Sunak has raised more questions than he has answered, leading to a series of jokes about not having done his sums.

    This isn’t to say the policy is dead. It simply needs to be recalibrated and, of great importance to this magazine, tethered properly to the realities of the jobs market. Sunak would do well to read the Institute of Engineering and Technology’s report Engineering Kids Futures. This highlights a shortfall of 173,000 workers in the so-called STEM (science, technology, engineering and mathematics) sectors. The cost to the UK economy of this shortfall is projected at £1.5 billion.

    It might be that the economic cost is the least of it. Children need wonderment and inspiration; they need to feel early in life the joy of creating things – and also to learn from the experience of wrestling with the difficulty of making things work.

    Of course, mathematics isn’t separate from the importance of engineering; an engineer who can’t count won’t get very far. But maths isn’t a siloed subject – quite the opposite. Sunak now has an opportunity to reimagine ‘Maths to 18’, by tethering it to employability. How might it transform our children’s careers outlook?

    While he’s about that he might go further. A glance at the sector output of the UK economy, ought to persuade the prime minister to think not just in terms of STEM but also STEAM.

    The ‘A’ stands for art, of course, a word which can still seem wishy-washy to the conservative mentality – so perhaps we might be thinking in terms of STEMCI – where the CI stands for Creative Industries.

    That ought to get recalcitrant Conservative minds to pay attention: the creative sector is big business. Year on year, the sector continues to boom – and that’s in spite of the restrictions placed on many businesses during the Covid-19 pandemic. For instance, according to the Department for Culture, Media and Sport, the creative industries grew by 6.9 per cent in September 2022 compared with the same month in 2021. Growth across the UK economy as a whole was 1.2% over the same period.

    Perhaps we need to think not just of Einstein’s contributions to maths and science, but to remember his violin-playing. A new generation of renaissance men and women is possible if Sunak gets this right.

    It also happens to tally with what he needs to do politically. He has made a good start and is probably the best-suited to the role of any of the occupants of 10 Downing Street since David Cameron. But he is yet to make anything approaching a powerful speech. And if he can’t make one about maths, he needs to think again.

     

  • Inspiring the next generation of engineers

    Natasha Bougourd

    The future of engineering has never been more important. According to a report by the Institute of Engineering and Technology, the UK science, technology, engineering, and mathematics (STEM) sectors are experiencing a shortage of 173,000 workers, and 49% of engineering businesses are struggling to recruit skilled workers. Therefore, as the technological world continues to evolve and advance, the government strives to prioritise STEM education within primary and secondary schools.

    So how can we ensure that engineering remains an attractive career choice? The UK is encouraging young people into engineering careers in many ways, from stimulating interest at a young age to creating an inclusive space for underrepresented groups in STEM and equipping students with transferable skills they will use for life.

    Stimulating an interest in STEM education from a young age
    There are many organisations that are encouraging STEM learning within primary education. A continuing professional development (CPD) programme, STEM learning supports primary school teachers in its endeavour to inspire the next generation of engineers. It offers regional and remote courses, bursaries, and other online materials. The Institute of Engineering and Technology also offers free material for children aged between 5 and 11 years of age, such as lesson plans and education videos. This equips teachers with the tools to inspire the next generation.

    In addition to this, children can begin their STEM education outside of the classroom. To encourage this, parents can teach their children to question the world around them. Even the toys children play with can be used for this purpose. Educational toys, such as coding robots, enrich children with life skills as well as the tools to excel in STEM subjects.

    Encouraging STEM subjects within underrepresented groups in schools
    In order to inspire the future generation of engineers, we must continue to offer educational tools to underrepresented groups. In 2021, women accounted for just 14.5% of the engineering sector. The number of girls taking STEM subjects in school is significantly lower than boys. This is apparent in A-Level technology subjects, such as computer science. In 2021, the number of A-Level students taking computer science rose from 12,428 to 13,829 across the UK. Out of these, 11,798 were boys and 2,031 were girls. This gender gap within STEM subjects can be partly explained as a result of harmful stereotypes. According to Women In Tech, early socialisation and classroom culture can deter girls away from STEM subjects, as they are traditionally portrayed as boy-dominated subjects.

    Computer science and technology subjects are a great way to inspire the next generation of engineers. The skills that young men and women will learn in these subjects can form a foundational knowledge to succeed as an engineer. This can lead to the cultivation of multiple skills, for example, the development of engineering software such as building design software.

    Furthermore, students from low socio-economic backgrounds are less likely to choose STEM subjects in school. Research from In2ScienceUK shows that students from disadvantaged backgrounds can be 2.2 times less likely to take triple science at GCSE when compared to other students. This could be due to a number of factors, from individual student interests to counter-culture within disadvantaged youth.

    To tackle this, the UK government is investing money and resources into initiatives. These schemes encourage underrepresented groups to take part in STEM education and inspire the next generation of engineers. It intends to improve the accessibility of computer science with female students at GCSE and A-Level. This corresponds with other incentives, such as the Gender Balance in Computing Programme.

    Thankfully, the efforts to make engineering an inclusive space is paying off. The number of people within these underrepresented groups undergoing a degree in a STEM subject has increased. Between 2010–2020, the number of women accepted onto undergraduate courses rose by 49%, and the number of people from disadvantaged backgrounds achieving places on such courses increased by a staggering 79%. This is an encouraging sign for the future minds of engineering!

    Highlight the importance of the transferable skills students learn in STEM subjects
    STEM education equips children and young adults with transferable skills which will aid them in their future endeavours. These skills transcend the ability to solve an equation or design a building. By highlighting the importance of these transferable skills, students will realise the value of STEM education and how this can help them in multiple careers, from business management to teaching and much more.

    STEM education requires students to think for themselves. Tasks often involve problem-solving, and this encourages critical thinking. Not only is this skill highly important in STEM careers, but it is also a well-respected transferable skill. Any career involving research and development would benefit from this.

    Another transferable skill students learn from STEM subjects is teamwork. To work in a team, they will develop their communication skills, which is vital for practically any career path. Finally, STEM education requires management skills, from overseeing a project to delegating tasks. This is particularly beneficial for careers in business, as well as any engineering role.

    Overall, the UK is taking the necessary steps to encourage the younger generation into STEM careers. This can start as early as childhood, with the toys they play with to the subjects at primary school. Although STEM subjects are predominately made up of boys, more and more girls are choosing to study science, technology, engineering, and mathematics subjects, such as computer science. As STEM begins to create an inclusive space for more underrepresented groups, students will gain transferable skills that can be used within engineering and a plethora of other careers.

    Sources:

    The Engineer

    Stem.org.uk

    The IET

    Today’s Parent

    Independent.co.uk

    Computer Weekly

    Women in Tech

    ResearchFeatures.com