Socio-scientific inquiry-based learning (SSIBL) engages learners with local and global issues in which science and technology are interwoven, aiming to empower them to become active agents of change for their local communities. Within the PARRISE project, we worked with pre-service teachers on prioritising an "it matters" approach to…

Nutrition labelling, which helps consumers to make informed choices, can be used as both a context and a vehicle for students to consolidate and apply their knowledge of food and nutrition to improve health. It also facilitates students' ability to negotiate socio-scientific issues from scientific and other perspectives. This article reports a…

Socio-scientific issues, which are often controversial, involve the use of science and are of interest to society, raising ethical and moral dilemmas. Examples of these issues could include genetic technology or air pollution. Following a curriculum reform in England in 2006, socioscientific issues now have a heightened presence in the 14-16…

People use many different products made from plastics every day. But conventional plastics such as polyvinyl chloride (PVC) do not always have a good reputation in society at large. Bioplastics such as thermoplastic starch (TPS) promise to be better alternatives but are they really better than conventional plastics? This article presents a new…

Described is a science program being developed at a high school in Great Britain to cater to the particular needs of females. Curriculum was modified in third, fourth, and fifth examination years to emphasize social nature of science and relevance of science to pupils' lives. Some of the problems encountered with program and selected parts of…

Described is the teaching of technology in British secondary schools. Some of the types of technology courses are described and issues and trends related to the teaching of technology are considered. (RH)

This article presents the teaching materials developed by the Science and Technology in Society Project (SATIS). Discusses how to demonstrate and assess the relevance of science. (CW)

In this second part of this series, the applications of science are discussed including the need for Christian input. The wider issues of the place and treatment of beliefs and values across the curriculum are discussed. (CW)

Discusses the concept of "science for all" as it has applied to curriculum reform movements in Great Britain. Enumerates areas in science education that are in need of improvement and outlines important aspects of a coherent science curriculum. Suggested are several implications for the learning and teaching of science. (CW)

Reviews the history of alchemy including personalities and methods. Discusses the philosophy associated with various early chemists and alchemists. Attempts to show that it was not unreasonable for ancient alchemists to believe in the possibility of transmutation. (CW)

Described is the use of the Bible as a source of information on the availability and use of metals in ancient societies. The use of the Bible in cross-curricular work between science, technology, and religious studies is discussed. (Author/CW)

Information technology will be an important influence in education in the future. This article discusses the use of instructional technology for science teaching and considers the impact of technology on what is taught and how science is taught. (Author/CW)

Examines current philosophies and approaches to science instruction. Offers parameters for consideration in making science courses more relevant to industry, technology, and society. Contrasts two approaches to science education. (ML)

Exposes concerns related to physics in the period of mandatory education levels. Discussed are primary science, the transition from primary to secondary, content and process, double award GSCE science, science and technology, and reform of GCE advanced level. Argues toward a reappraisal of the mechanism for curricular reform. (CW)

Presents a hierarchical list of principles that can be used as a guide in the construction of more successful science programs that have scientific literacy for all as a goal. Lists affective goals for science education. Discusses the role of teachers' attitudes and expectations in teaching this type of curriculum. (CW)