The Science Curriculum in Primary and Lower Secondary Grades
Science, together with history and geography, is part of Social, Environmental, and Scientific Education (SESE) in the Primary School Curriculum in Ireland.9 The current curriculum was officially implemented in schools in 2003–2004, following appropriate professional development for teachers in the previous school year. The science curriculum aims to help children develop basic scientific ideas and understanding about the biological and physical aspects of the world, and the processes through which they develop this knowledge and understanding. The curriculum also aims to foster positive attitudes toward science, and to encourage children to examine and appreciate how science and technology affect their lives and the environment.
The Primary School Science Curriculum is presented as four levels, each of which covers two years of primary school. Level 3, comprising third and fourth grade science, is the relevant level for fourth grade TIMSS participants. The curriculum has a skills section and a content section.
The curriculum is designed to provide students with two key types of skill—working scientifically, and designing and making—and reflects a constructivist and collaborative approach. The curriculum emphasizes the importance of starting with children’s own ideas and learning through interactions with objects and materials, and their classmates. Children “create” new knowledge and learn about scientific concepts. Working scientifically involves:
- Observing and constructing hypotheses
- Predicting
- Planning and carrying out investigations, with an emphasis on fair testing
- Recording and analyzing results
- Sharing and discussing findings
- Extending thinking to accommodate new findings
Designing and making involves looking for practical solutions to problems by exploring and assessing everyday objects in terms of their functionality, their component materials, and their design, and then using this information to plan, design, make, and evaluate artifacts or models. These activities are intended to harness and nurture children’s creative and imaginative capacities.
The curriculum content is composed of four strands: Living Things, Materials, Energy and Forces, and Environmental Awareness and Care. These strands, which are subdivided into strand units, outline the concepts and ideas to be explored by children as they work scientifically, and are involved in designing and making. Children are expected to experience all Level 3 strand units over the course of the third and fourth grades. Exhibit 2 shows the strands and strand units for Level 3, and provides some examples of what children are expected to learn within each strand unit.
Exhibit 2: Summary of Science Curriculum for Level 3 (Grades 3–4), and Sample Skills
Strand | Strand Unit | Scientific Learning Objectives | |
Living Things | Human life |
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Plant and animal life |
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Energy and Forces | Light |
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Sound |
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Heat |
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Magnetism and electricity |
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Forces |
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Materials | Properties and characteristics |
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Materials and change |
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Environmental Awareness and Care | Environmental awareness |
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Science and the environment |
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Caring for the environment |
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A revised syllabus for Junior Certificate Science10 (lower secondary level) was introduced in September 2003. The course is a practical, investigative one emphasizing hands-on student involvement in learning. Students are expected to develop not only knowledge and understanding of content areas, but also core scientific skills as well as an awareness and appreciation of science. Teachers are encouraged to use a variety of teaching methodologies that enable students to work scientifically and apply their scientific knowledge. The lower secondary science curriculum contains three main syllabus sections, each of which is further divided into three more detailed topic areas, as shown in Exhibit 3. Although not compulsory, approximately 90 percent of lower secondary students take science as a subject. The curriculum provides suitable preparation, but is not a requirement for the study of one or more science subjects at the upper secondary level. Topics are accompanied by learning outcomes that reflect an investigative and practical approach. All students must study the three syllabus sections at either the higher or ordinary level.
Exhibit 3: Main Topic Areas for Lower Secondary Science Syllabus
Science Subject | Topic Area |
Biology |
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Chemistry |
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Physics |
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In lower secondary science, students learn to do the following:
- Use scientific knowledge to turn ideas into an investigable form and to plan accordingly
- Decide the extent and range of data to be collected and the techniques, equipment, and materials to be used
- Consider factors that need to be taken into account when collecting evidence
- Make observations and measurements, logging data where appropriate
- Critically consider, evaluate, and interpret data
- Organize and present information clearly and logically, using appropriate scientific terms and conventions, and using Information and Communications Technology (ICT) where appropriate
Many of the objectives of the syllabus are achieved by methodologies that support discovery through investigation. Students are allowed ample time to engage actively in learning in order to develop scientific processing skills, a better understanding of underlying science concepts, and higher order skills associated with problem solving and the application of knowledge in new contexts. The science syllabus provides opportunities for learners to develop thinking and decision making skills that can be used in problem solving. Such skills can be developed through the systematic approach to investigation, which is a feature of science, and can be transferred easily to other nonscientific situations and contexts.
Teachers are encouraged to use a Science-Technology-Society (STS) approach in their science instruction to facilitate student understanding of science and to link learning to everyday contexts and issues. While there is no explicitly prescribed STS content in the syllabus, many of the subtopics and associated learning outcomes require appropriate links to everyday experiences (in areas such as health, diet, human development, and ecology) and to everyday examples of applications of science, as in biotechnology, industry, medicine, energy conservation, and electronics. Appropriate references to the work of prominent scientists and to modern scientific developments provide points of transference from school-based learning to general experience, making scientific phenomena more meaningful for students.
Note: As part of the ongoing reform of junior cycle (lower secondary) education, a new science curriculum and assessment specification is being developed for implementation in schools in September 2016. The proposed specification for junior cycle science focuses on the development of students’ knowledge of and about science through a unifying strand, the Nature of Science, and four contextual strands: the Physical World, the Chemical World, the Biological World, and Earth and Space.