Learning Sciences
The science of learning draws on cognitive psychology, neuroscience, and education research to develop effective teaching strategies that enhance student learning and outcomes.
![goals of the science of learning](/images/default-source/default-album/education/inspire/goals-of-sol.jpg?sfvrsn=27b039f1_1)
![active learning](/images/default-source/default-album/education/inspire/active-learning.jpg?sfvrsn=7025fa66_1)
Active Learning
engages students directly in the learning process, encouraging them to participate actively rather than passively receiving information.
- think-pair-share, where students discuss a topic with a partner before sharing with the larger group
- peer instruction, where students explaining concepts to one another
- problem-based learning, where students work collaboratively to solve real-world problems
![flashcards](/images/default-source/default-album/education/inspire/flashcards.jpg?sfvrsn=3b7cdbc3_1)
Retrieval Practice
encourages students to recall information from memory, which improves long-term retention and understanding. Various studies have shown that this is the most effective technique for learning complex subjects.
- taking practice quizzes
- using flashcards to test knowledge
- writing summaries of what has been learned without looking at the material
![spaced repetition apps](/images/default-source/default-album/education/inspire/spaced-repetition.jpg?sfvrsn=d7122aec_1)
Spaced Repetition
involves reviewing information at regular intervals to improve long-term retention.
- scheduling regular review sessions with material from previous weeks
- revisiting key concepts periodically throughout a course
- incorporating cumulative quizzes that review both recent and past topics
- using apps, such as Anki or Memrise, which prompt students to review material at optimal intervals
![interleaving](/images/default-source/default-album/education/inspire/interleaved-practice.jpg?sfvrsn=16ae0bf7_1)
Interleaving
involves mixing different topics or types of problems within a single study session, rather than focusing on one subject at a time (as in blocked practice). Interleaving helps students learn to distinguish between concepts and apply knowledge flexibly.
- alternating between different types of problems
- using contrasting techniques
- combining different practice drills
![chunking](/images/default-source/default-album/education/inspire/chunking.jpg?sfvrsn=20adc54_1)
Chunking
involves breaking down large amounts of information into smaller, manageable units or "chunks," reducing the cognitive load and making it easier to process and remember.
- grouping information into smaller microlessons
- breaking down a complex process into a series of steps
![Metacognitive cycle in learning](/images/default-source/default-album/education/inspire/metacognitive-cycle.jpg?sfvrsn=af9c31e1_1)
Metacognitive Strategies
involve thinking about one's own thinking processes to become aware of how one learns, allowing a person to plan, monitor, and evaluate one's own understanding and performance.
- self-assessment checklists
- setting specific learning goals before a study session
- using reflective journals to document their thought processes and progress
![feedback](/images/default-source/default-album/education/inspire/feedback.jpg?sfvrsn=e937f768_1)
Feedback & Assessment
supports learning and fosters a growth mindset and continuous improvement. Effective feedback is specific, timely, and actionable, helping students understand their strengths and areas for improvement.
- formative assessments like quizzes and peer reviews
- detailed rubric-based feedback on assignments
![technology integration](/images/default-source/default-album/education/inspire/technology-integrationa5e0299f-aac7-4364-ac49-a29f7ada4907.jpg?sfvrsn=e1ad687c_1)
Technology Integration
increase engagement, provide instant feedback, and offer personalised learning opportunities.
- virtual labs
- interactive simulations
- online platforms for collaborative projects
- multimedia resources like video tutorials