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Science communication is becoming an increasingly important part of a scientist's remit, and engaging with primary and secondary schools is one frequently chosen strategy. Here we argue that science communication in schools will be more effective if based on good understanding of the realities of school life, which can be achieved through structured participation and/or collaboration with teachers. For example, the Manchester Fly Facility advocates the use of the fruit fly Drosophila as an important research strategy for the discovery processes in the biomedical sciences. To communicate this concept also in schools, we developed the 'droso4schools' project as a refined form of scientist-teacher collaboration that embraces the expertise and interests of teachers. Within this project, we place university students as teaching assistants in university partner schools to collaborate with teachers and develop biology lessons with adjunct support materials. These lessons teach curriculum-relevant biology topics by making use of the profound conceptual understanding existing in Drosophila combined with parallel examples taken from human biology. By performing easy to implement experiments with flies, we bring living organisms into these lessons, thus endeavouring to further enhance the pupil's learning experience. In this way, we do not talk about flies but rather work with flies as powerful teaching tools to convey mainstream curriculum biology content, whilst also bringing across the relevance of Drosophila research. Through making these lessons freely available online, they have the potential to reach out to teachers and scientists worldwide. In this paper, we share our experiences and strategies to provide ideas for scientists engaging with schools, including the application of the droso4schools project as a paradigm for long-term school engagement which can be adapted also to other areas of science.

This paper reports the findings from a cross-sector research project designed to question how the development of university-school partnerships can influence university academics' pedagogic practice in Science, Technology, Engineering and Mathematics (STEM). Findings from this research are offered at time when, in parallel with countries around the world, universities and schools in England are being encouraged to review and reflect on the quality of teaching and professional development, in line with the Teaching Excellence Framework consultation (2016) and the Standards for Professional Development (Department for Education 2016b) (Bianchi 2017). This paper seeks to develop a coherent response to two major issues; the policy imperative to develop greater science expertise in schools and to improve the quality of teaching and learning of science in higher education institutions. The research seeks to advance the notion of critical reflection on the quality of cross-sector STEM teaching and learning, by moving to what the OECD (Organisation for Economic Cooperation and Development) (2015, p.15) terms a B'meso' networked level^of professional development in STEM education. This paper highlights how interpreting the imperative of constant change in education reform as a relational, outward looking endeavour offers the potential to help both universities and schools to better address the global education challenges that lie ahead.

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