
Neuroscience and Education Course
Understand how the brain learns and use that knowledge to transform your teaching. This course bridges cutting-edge neuroscience research and real classroom practice, covering memory, attention, emotion, executive function, and neurodiversity. Walk away with evidence-based strategies you can apply immediately to improve outcomes for every learner.
What you will learn:
In this course, you will explore the neural mechanisms behind memory, attention, learning, and emotion, and discover how each one directly shapes what happens in your classroom. You will examine neuroplasticity, executive function, and the neuroscience of literacy and mathematics to build a complete picture of how learners learn. You will also learn to recognise and correct widespread neuromyths that undermine effective teaching. The course covers stress, trauma, sleep, and social neuroscience, giving you tools to create emotionally safe, cognitively optimised learning environments. By the end, you will be equipped to design brain-aligned curriculum, support neurodiverse learners, and sustain your own professional well-being.
How you study in practice Neuroscience and Education Course
How you practise Neuroscience and Education Course
For companies looking to train their team
With Dedika for businesses, the course includes exercises and examples tailored to your own business and the specific needs of your company.
Course content
8 Chapters • 38 LessonsDuration between 4 and 360 hours (you decide)
Chapter 1HideHide detailsSee detailsFoundations of Neuroscience for Educators
Foundations of Neuroscience for Educators
Lesson 1 • Brain Development Across the Lifespan
Traces structural and functional brain changes from infancy through adulthood. Grounds age-appropriate instructional decisions in developmental neuroscience.
Lesson 2 • Basic Brain Anatomy and Organisation
Maps key brain regions and their roles in cognition and behaviour. Provides the structural framework all subsequent neuroscience concepts depend on.
Lesson 3 • Neurons and Neural Communication
Explains how neurons transmit signals and form networks. Connects cellular biology to observable learning behaviours in classrooms.
Lesson 4 • Neuroimaging Methods in Education Research
Introduces fMRI, EEG, and related tools used to study learning. Enables educators to critically evaluate brain-based research claims.
Chapter 2HideHide detailsSee detailsHow the Brain Learns
How the Brain Learns
Lesson 1 • Attention and Its Neural Basis
Explains selective, sustained, and executive attention networks in the brain. Connects attentional neuroscience to classroom engagement and focus strategies.
Lesson 2 • Memory Systems and Learning
Distinguishes working, episodic, semantic, and procedural memory systems. Links each system to specific classroom activities and retention strategies.
Lesson 3 • Synaptic Plasticity and Learning
Covers long-term potentiation and depression as cellular bases of learning. Shows how repetition and spacing strengthen synaptic connections.
Lesson 4 • Implicit vs. Explicit Learning Pathways
Contrasts conscious declarative learning with unconscious procedural acquisition. Informs when direct instruction versus experiential practice is most effective.
Lesson 5 • Encoding, Storage, and Retrieval
Analyses the three-stage memory process and factors that enhance each stage. Guides instructional design to optimise information retention and recall.
Chapter 3HideHide detailsSee detailsNeuroplasticity and Growth Mindset
Neuroplasticity and Growth Mindset
Lesson 1 • Classroom Practices That Promote Plasticity
Identifies instructional strategies that stimulate synaptic growth and cognitive flexibility. Translates plasticity science into daily teaching routines.
Lesson 2 • Growth Mindset: Research and Theory
Reviews the psychological research linking mindset beliefs to academic outcomes. Connects mindset theory directly to neuroplasticity evidence.
Lesson 3 • Communicating Brain Science to Learners
Equips educators to teach learners about their own brain plasticity accurately. Builds learner agency by demystifying how effort changes the brain.
Lesson 4 • Principles of Neuroplasticity
Defines structural and functional plasticity and the conditions that drive them. Establishes the biological basis for believing intelligence is malleable.
Chapter 4HideHide detailsSee detailsEmotion, Stress, and Learning
Emotion, Stress, and Learning
Lesson 1 • Trauma-Informed Teaching Practices
Applies adverse childhood experience research to classroom design and relationships. Reduces re-traumatisation while maintaining high academic expectations.
Lesson 2 • The Emotional Brain and Learning
Examines the amygdala, prefrontal cortex, and limbic system interactions during learning. Shows how emotional salience enhances or disrupts memory encoding.
Lesson 3 • Stress Neuroscience in Educational Contexts
Explains cortisol, the HPA axis, and their effects on hippocampal function. Connects chronic stress research to achievement gaps and learning barriers.
Lesson 4 • Motivation, Reward, and Dopamine
Covers the dopaminergic reward system and its role in intrinsic motivation. Guides educators in designing tasks that activate reward pathways sustainably.
Lesson 5 • Creating Emotionally Safe Learning Environments
Synthesises emotional neuroscience into concrete classroom climate strategies. Reduces threat responses and increases cognitive engagement across all learners.
Chapter 5HideHide detailsSee detailsExecutive Function and Self-Regulated Learning
Executive Function and Self-Regulated Learning
Lesson 1 • Executive Function Development in Learners
Traces EF maturation from early childhood through late adolescence. Aligns instructional scaffolding with learners' current EF developmental stage.
Lesson 2 • Self-Regulated Learning Frameworks
Connects Zimmerman's SRL model and metacognitive theory to EF neuroscience. Provides a unified framework for designing self-directed learning experiences.
Lesson 3 • Assessing and Monitoring Executive Function
Reviews behavioural rating scales, performance tasks, and observational tools for EF. Enables data-driven decisions about when and how to intervene.
Lesson 4 • Core Executive Functions Defined
Identifies inhibitory control, working memory, and cognitive flexibility as the three core EFs. Establishes their neural substrates and developmental trajectories.
Lesson 5 • Instructional Strategies for Building EF
Presents evidence-based classroom activities that strengthen each core EF. Sequences scaffolding to gradually release responsibility to learners.
Chapter 6HideHide detailsSee detailsNeuroscience of Language and Literacy
Neuroscience of Language and Literacy
Lesson 1 • Dyslexia: Neural Profiles and Interventions
Examines the neurological underpinnings of dyslexia and related reading difficulties. Translates brain-based profiles into targeted, evidence-based reading interventions.
Lesson 2 • Language Networks in the Brain
Identifies Broca's and Wernicke's areas and the broader language network. Connects neural architecture to spoken and written language processing demands.
Lesson 3 • Multilingualism and Brain-Based Literacy
Reviews how multilingual experience shapes language networks and cognitive advantages. Guides educators in using learners' home languages as literacy assets.
Lesson 4 • Reading Acquisition and the Brain
Traces the neural changes that occur as children learn to decode print. Grounds phonics and fluency instruction in reading neuroscience evidence.
Lesson 5 • Writing and the Brain
Analyses the motor, linguistic, and executive networks engaged during writing. Informs writing instruction that addresses both mechanical and compositional demands.
Chapter 7HideHide detailsSee detailsNeuroscience of Mathematics and STEM Learning
Neuroscience of Mathematics and STEM Learning
Lesson 1 • Problem-Solving and Insight in the Brain
Analyses prefrontal and default mode network activity during problem-solving and insight. Designs instructional conditions that promote productive struggle and discovery.
Lesson 2 • Dyscalculia: Identification and Support
Describes the neural profile of dyscalculia and its distinction from maths anxiety. Equips educators with screening tools and targeted instructional accommodations.
Lesson 3 • Spatial Reasoning and STEM Achievement
Links spatial cognition to mathematics and science performance through neural evidence. Presents trainable spatial skills that predict STEM success.
Lesson 4 • Maths Anxiety: Neural Mechanisms and Remedies
Identifies how maths anxiety activates threat networks and impairs working memory. Provides evidence-based strategies to reduce anxiety and restore performance.
Lesson 5 • Number Sense and the Brain
Examines the intraparietal sulcus and approximate number system underlying maths intuition. Connects innate numerical sense to formal mathematics instruction.
Chapter 8HideHide detailsSee detailsApplying Neuroscience to Instructional Design
Applying Neuroscience to Instructional Design
Lesson 1 • Formative Assessment and Brain Feedback Loops
Connects retrieval practice and feedback neuroscience to formative assessment design. Shows how frequent low-stakes assessment strengthens long-term memory consolidation.
Lesson 2 • Technology, Digital Learning, and the Brain
Evaluates how digital tools affect attention, memory, and cognitive load in learners. Guides educators in selecting and deploying technology that supports brain-based learning.
Lesson 3 • Differentiated Instruction Through a Neuroscience Lens
Applies individual differences in brain function to differentiation frameworks. Moves beyond learning styles myths toward evidence-based personalisation strategies.
Lesson 4 • Brain-Aligned Curriculum Design Principles
Translates memory, attention, and emotion neuroscience into curriculum design rules. Provides a checklist for evaluating existing materials against brain-based criteria.
Lesson 5 • Evaluating and Iterating Brain-Based Practices
Establishes a reflective cycle for testing, measuring, and refining neuroscience-informed instruction. Builds educator capacity for evidence-based professional practice.
Your valid completion certificate
This course is for you:
K–12 teachers: wanting science-backed reasons behind student behavior.
School counselors: seeking brain-based tools to support struggling learners.
Curriculum developers: ready to ground instructional materials in cognitive research.
Special education specialists: looking to understand diverse neural profiles deeply.
School administrators: aiming to lead evidence-informed professional development initiatives.
Career changers entering education: bringing curiosity about how human cognition works.
What our students say
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