Helen Wilson – författare

This practical and easy-to-use book enables teachers to challenge able children to develop their potential and to extend their thinking in primary science. It links theory to practice to develop understanding of what it means to be an able scientist; and empowers teachers to build on their existing good practice to build an inclusive science curriculum for able children.

Special features include: photocopiable resources that are linked to the National Curriculum and the QCA schemes of work; teacher guidance on the use of these resources and how they can be incorporated into normal primary science lessons; and suggestions for assessment.

This practical and easy-to-use book enables teachers to challenge able children to develop their potential and to extend their thinking in primary science. It links theory to practice to develop understanding of what it means to be an able scientist; and empowers teachers to build on their existing good practice to build an inclusive science curriculum for able children.

Special features include: photocopiable resources that are linked to the National Curriculum and the QCA schemes of work; teacher guidance on the use of these resources and how they can be incorporated into normal primary science lessons; and suggestions for assessment.

This book discusses the dynamical and rheological properties of high molecular weight entangled polymer melts, commonly known as viscoelastic subdiffusive fluids. Unlike dilute liquids, these materials exhibit molecular transport within a sublinear regime, meaning the timescale of diffusive transport is sublinear. The text emphasizes the potential of fractional calculus in modeling these fluids and introduces a novel fractional model to investigate regions of spatiotemporal instability in channel flows. At the microscale, the entanglement of polymer chains leads to localized, non-homogeneous regions with increased viscosity, which manifest as spatiotemporal macrostructures at the macroscale. To capture these macrostructures within the flow, direct numerical simulations are employed using a newly developed, physically realizable structure tensor, contributing to a deeper understanding of this complex class of fluids.