There are an enormous number of theories about how people learn, assimilate and understand new information. Two of the main theories that underpin Scottish Education and the Broad General Education are Cognitive and Social Constructivism. Both theories emphasise the importance of group or co-operative learning and a progression beyond that of the archetypal classroom whereby the teacher stands at the front of the class and lectures the students. Whereas Cognitive Constructivism allows for learning to take place between the learner and the environment, Social Constructivism also argues that learning is framed through culture, social interaction and the Zone of Proximal Development whereby learning occurs through interaction with a more knowledgeable …show more content…
“Teaching science is effective when students existing ideas, values and beliefs, which they bring to a lesson, are elicited, addressed and linked to their classroom experiences at the beginning of a teaching programme” (Hipkins et al 2002). It is clear that students do not arrive in class as ‘empty vessels’, and Hipkins et al argue that meaningful learning and understanding occur as a conscious process whereby new knowledge is linked to an existing foundation. If the foundation is incorrect or confused, then true understanding cannot occur; at best facts or figures are memorised in order to pass tests without any assimilation of these facts into the learners existing understanding of the subject matter. Furthermore, children with misconceptions can convince others in a group to take their perspective (Snyder and Sullivan, 1995), rendering co-operative learning a destructive rather than constructive method of teaching. Therefore, a diagnosis of the learners pre-existing knowledge is key. This will also help teachers to confront misconceptions and incorrect ideas at an early age (Littledyke …show more content…
This diversity can be a challenge; covering the breadth of knowledge necessary within the given time constraints (Stephen P Day, Scottish Education). This can lead to a propensity for lecture like lesson plans which emphasise content rather than process. This fails to convey the kind of hypothesis based enquiry which is so key to every aspect of science as a whole, and ultimately diminishes learning outcomes (Armbruster et al 2009). “By placing students at the centre of instruction, this approach shifts the focus from teaching to learning and promotes a learning environment more amenable to the metacognitive development necessary for the students to become independent and cr Therefore in order to help children develop their ideas and conceptual understandings it is essential to provide opportunities to make links between their own ideas and other alternatives (Russell & Watt, 1992). Making predictions, gathering evidence through observations and suggesting explanations based on their own interpretations of information could be opportunities to help children link their knowledge. In this way children will be assisted in developing scientific ideas which will make sense and will be connected to their everyday lives (Russell & Watt,
In school, knowledge is gained from experience. At first, students usually are a blank slate as they do not understand the material being covered but from the experience of learning education and knowledge are
Case study The case study entitled, “The Classroom”, is about a teacher, Frank Oakley, and his struggle to find the proper way to teach his physical science class. Since teaching requires preparation, we look at several different topics. It is important to note what lesson Frank wants the students to learn, however, it is also important to know the time allotted, materials at hand, previous experiences, and an objective. While the lesson is all taught at once, the teacher will focus on these main parts.
Understanding and engaging in critical discussion in science needs three domain-specific competencies (PISA). These three competencies require three forms of scientific knowledge: namely content, procedural and epistemic knowledge; whereas epistemic knowledge prevails in equipping the necessary tool to understand science. In this section, I will discuss about epistemic knowledge – what it is (what I considered to be epistemic knowledge in this dissertation), why it is worth to know, how instructions in science classroom informs epistemic knowledge, and whether epistemic knowledge evolve through
This allows the student to think for himself. The alternative, “teaching by theory” focuses more on teaching through written instructions that the reader should follow. Teaching by theory is able to give the student long-lasting instructions to read, but the value of the instructions is not as great as the advice the teacher provided while the student worked. Since the student thought for himself at first, the advice will only make him better, and not something else. The instructions form a plaster for the student’s thoughts, while the advice caters to the student’s own unique thoughts.
Today the emphasis is greater than ever, because new research is being reported that helps teachers better understand the mental or cognitive processes that are at work in the child. Updated by (Hearron, 2010). Some authors have classified the cognitive domain starting from simplest to the most complex one into six learning objectives which are also part of the development for this domain, recalling of past events/information, understanding of how things happen, applying of the use of knowledge, analyzing as taking apart of a piece of knowledge, evaluating which is based on decision making/judgment and creating to make new ideas out something else. According to Bloom (1956), while Bloom's original cognitive taxonomy did mention three levels of knowledge or products that
Instead of forcing students to memorize facts it allows them to be involved in inquiry based learning science experiences. Therefore, students will be learning with a purpose rather than to rigorously memorize facts. Table 2. Summary of the BSCS 5E Instructional Model Phase
I had always believed that teaching and learning are not simply the process of imparting and acquiring knowledge. I view teaching as the process of equipping the individuals with knowledge, moral values and skills for their own welfare. This process encourages thinking skills, creativity, moral values, ethics and autonomy. However during that lesson, I went against my own beliefs about teaching and learning. The students were passively absorbing the information as I did not provide any opportunity for creativity and critical thinking.
Assignment- A written account of the main implications of children’s misconceptions in Primary Science. A science misconception is where children have an incorrect idea of a science topic that causes a barrier in understanding and to learning in all levels of education (Allen 2014), children’s idea’s come from their life experiences and the interaction which they display to other children and adults that shapes their ideas and understanding (Sewell, 2014). It can be influenced by many things such as the media or even from family or friends for example the Cars (2006) movie which shows children that cars are alive and have human facial features this leads to the children obtaining a misconception that cars are alive. However, children already have a bit of knowledge about science before entering school which is why they have their own understanding of how the world works during their time in the classroom.
In retrospect, it seems that it is indeed possible to help future elementary school teachers develop a positive feeling for science teaching. This can be
An interesting discovery from this view of learning is that the mind is not just a sponge able to soak up every bit of information it is presented with. The generative learning theory allows one to realize the importance of creating meaningful learning opportunities in the classroom. If a teacher can allow students to be hands-on in the class a large amount of the time and the ability to create their own meaningful solutions to concepts presented in class, they will experience success in the classroom. A student needs to be able to make a unique personal link to the information they are present and themselves for adequate learning to occur in their mind. As a result, the teacher plays a key role in presenting students with different methods and opportunities for generation and improved comprehension of topics they may struggle with throughout their educational career or in any learning environment they may be presented with in
At each center, students can develop critical thinking skill via inquiry- based explorations. Teachers need to use the STEM lesson to involve students
Teaching science as inquiry has the potential to be more relevant to students than other forms of science instruction because it engages students in negotiating their own understandings with science and approximates how science is practiced (Dewey,1938). Dewey’s perspective on science education focused on solving real world problems based in children’s experiences. He argued for an inquiry-based, student-centred education where the role of the teacher was to guide and support students in an active quest for knowledge (Dewey 1938). Inquiry-based instruction has potential to improve both student understanding of science and engagement in science (NRC, 1996). Further, inquiry-based science teaching has possibilities of engaging all students, including those from underrepresented populations in science, in understanding and becoming motivated to learn science (Capps D. K., Crawford B.A. and Constas M.A.,
Enhancing the scientific literacy of students has been a goal of science educator for more than a century. Discussion of the aims of science education often begin with ‘scientific literacy’. Scientific literacy is a term that has been used since the late 1950s to describe a desired familiarity with science on the part of the general public (Deboer, G.E., 2000). Scientific literacy plays an important role in human daily life. Many definition have been put forward for scientific literacy.
Based on Millar, the main ideas of science education are to ensure the students to gain an understanding of scientific knowledge as it is appropriate to their needs, interests and capacities and also to develop knowledge about science by understanding the methods and skills. In order to achieve this aim, the practical work that was conducted in school must emphasize the theory that has been taught through practical activities. Moreover, the needs of practical work in curriculum will be connected to the main purpose of practical work which is to possess student’s scientific knowledge to be best seen, judged and enables communication rather than enquiry. This is because practical work involves action and reflection where most of the practical tasks requires students to develop their thinking skills and science process skills (Millar, 2004). As we see the pattern of student’s interest in school, they prefer to be more active in class and able to centralized their ideas and opinion.
The view of learning as restructuring and replacing old beliefs implies that transition involves unlearning as much as it does learning. A further hypothesis suggests that instruction may need to recapitulate transitions in the history of science to help learners transit from their own naive theories. Conceptual recapitulation refers to a means of remediating learning problems by retracing instructionally what should have been naturally occurring developmental stages for an individual (Case, Sandieson, & Dennis, 1986). But it might fit the historical recapitulation hypothesis as well. There also seem to be qualitative shifts in the mental models needed by learners to understand more complex systems, for example, in such domains as electricity (Frederiksen & White, in press).