FUTURE TALENTED Summer Term 2019 - Issue 3 | Page 44

Gatsby Benchmarks 1 2 3 4 5 6 students that draws on personal experiences, acknowledge the value of their contribution, and link it to aspects of the science curriculum. Finally, teachers support young people to build their science capital, from encouraging them to watch science documentaries to highlighting the science skills integral to the jobs to which students aspire. Archer and her team worked directly with teachers, helping them to translate theory into meaningful practice. During professional development sessions, educators tried out the science capital approach, tweaking lesson plans in line with the methodology. They then applied it in classrooms, observed by the team, and reflected collectively during subsequent sessions. The initiative was trialled over two years in schools in socially disadvantaged communities in London, Newcastle, York and Leeds. “It’s a mindset approach, so it works with any curriculum, changing how the teacher thinks about presenting science to young people,” explains Archer. She adds that the practice varies between classrooms. “It’s meant to be very flexible, it has to work with how things are now.” Resource pack for teachers The initiative concluded in 2018, producing comprehensive resources, including an open- access pack for teachers and the Improving Science Participation policy recommendations. Participating teachers were overwhelmingly positive about the approach, which generated changes in their professional identities and sense of purpose; provided space for reflection and gave them agency. Almost all have cascaded the approach to colleagues and departments. Both teachers and students reported wider involvement and engagement in classes, including among quiet and/or previously disengaged students. “When I use the approach, I can see it in their eyes — ­ like meerkats, they pop up and you can see the engagement,” comments one educator. How effective is the Science Capital Teaching Approach? A comparison of students’ views before and after one year’s implementation of the Science Capital Teaching approach: Before 38.2 % 44 // STEM After 40.6 % Mean capital science scores 16 % 21 % Aiming for one or more science A level 27 % 42 % Science lessons relate to my life 36 % 27 % Students who never go on a nature walk 40 % 33 % Students who never engage with science online “I thought I might need to change loads of lessons and tasks,” admits London science teacher Philip Emwangat. “But I realised that it isn’t necessarily drastically changing your tasks, just approaching them differently.” BP’s Duffy believes the approach completely reconfigures a student’s relationship with science education: “Science stops being something that’s done to them and becomes something they do because it’s part of who they are,” he says. Improved attitudes 18 % It’s a mindset approach, so it works with any curriculum, changing how the teacher thinks about presenting science to young people 7 8 26 % Students who say their teachers ask about their experiences and ideas in every lesson Source: UCL. Research based on surveys with 1,871 students. Evaluation found an increase in students wanting to study at least one science A level; a boost in the science capital of students with previous scores considerably below the national average; improved attitudes to science; a reduction in non-participation in science outside of school, and changes in teaching practice in line with the ethos of the approach (see box, left). Young people who experienced the approach benefited from an enhanced understanding of science content and greater personal relevance; they are more likely to