Resources for unit 3

2.2. Application of cognitivism in classroom settings

• Giving activities that encourage deep thinking, such as problem-solving tasks, discussions, and concept mapping.
• Activating prior knowledge: Teachers begin lessons by asking questions or using brainstorming to connect new content to what students already know.
• Teachers can use strategies like scaffolding to support learners as they progress through tasks, gradually reducing help as they become more proficient. Example: In teaching math problem- solving, the teacher may first demonstrate how to solve a problem, then guide the student step- by-step, and eventually encourage the student to solve problems independently.
• Use of visual aids and concept maps: Encourage students to create visual representations of the relationships between concepts, which helps organize and deepen understanding. Concept maps help learners organize their thoughts, integrate new information with prior knowledge, and visualize complex ideas, making abstract concepts more concrete. Example: After learning a unit on ecosystems, students could create a concept map that connects key concepts such as food chains, biodiversity, and the water cycle.
• Fostering active learning: Encourage students to engage in activities that require them to process information, that promote critical thinking and problem- solving rather than passive reception of information such as group discussions, problem-solving tasks, and hands-on experiments. Example: Students work on group projects or participate in debates where they are required to apply theoretical knowledge to real-world scenarios.
• Promoting metacognition: helping students become aware of  how they learn, their learning strategies and reflect on their understanding of the learning materials. For example: Before a test, the teacher might ask students to review their study strategies and think about which methods helped them understand the material best.
• Use Problem-Based Learning (PBL): encourage students to work in groups to solve complex, real-world problems.
• Use cognitive apprenticeship: students learn through observation, practice, and collaboration with an expert. Learning is best achieved in authentic contexts where learners can observe and participate in real tasks. For example: In a science classroom, the teacher models how to conduct an experiment, explaining the steps and reasoning behind the process. Students then replicate the experiment, initially with guidance and eventually independently. This helps students develop both problem-solving skills and a deeper understanding of how knowledge is applied in real-life contexts.
• Paced repetition: A teacher can use this technique where information is reviewed at increasing intervals over time, aiding in long-term retention and the reinforcement of cognitive schemas. Spaced repetition helps solidify information in long-term memory and encourage deeper cognitive processing, improving retention and recall.
• Inquiry-Based Learning: involves students actively participating in their learning by posing questions, investigating answers, and engaging in exploration. This stimulates curiosity, encourages active exploration, and fosters higher order thinking skills such as analysis, synthesis, and evaluation.

Activity:

1.     Choose a topic in one of the subjects you teach or will teach in secondary schools and explain how you will apply cognitive learning theory to teach that topic.

2.  Discuss the benefits and challenges of applying cognitivism in classroom contexts.