Learn Like a Human, Not a Computer

Designing learning that works with biology, not against it.

The Problem

Traditional models of learning, in schools and workplaces, treat brains as information processors. Deliver clear content, manage cognitive load, test retention.

But this computational model misunderstands how learning actually happens.

The brain isn't a computer. It's a biological prediction machine optimising for survival and wellbeing. What we learn and remember is what we care about—not what we're told to learn.

The Three Tiers of Learning

Most learning systems optimise for one of three levels:

Compliance (important, but rarely leads to learning)

Forced engagement with prescribed content.
Complete the module. Pass the test. Check the box.
Result: Brittle learning that fades quickly.

Performance Support (learning happens slowly if at all)

Just-in-time guidance that solves immediate problems.
Job aids. Quick reference. AI assistants.
Result: Efficient task completion with limited memory consolidation.

Development

Affectively engaged transformation that integrates into identity.
Building adaptive capacity. Transferable understanding.
Result: Lasting growth that enables novel applications.

Compliance meets a need for safety, standards, regulation. Performance support meets a need for efficiency. Development creates adaptiveness and resilience needed for thriving organisations and society.

The Biological Reality

Brains Are Prediction Machines

The brain does not archive information like a computer hard drive. It is a biological organ with a prime directive: survival via homeostasis.

What does this mean?

Learning is not information transfer. Learning is the process by which the brain updates its predictions about what matters for wellbeing.We remember what we care about.We care about what predicts our survival, social belonging, and identity.

The Affective Architecture of Cognition

PhysiologyHeart rate, hormones, gut
EmotionUnconscious bodily response
FeelingConscious perception
ThinkingReasoning & planning
ActionBehaviour & Decisions
Returns to Physiology
"There is no thought without feeling. Cognition depends on affective processes at every level."
PILLAR 1

Memory is Reconstructive, Not Reproductive

Conventional models view memory as a "recording device." Biological reality is that we don't retrieve files; we reconstruct experiences based on what mattered to us when they happened.

What gets remembered?

The brain is incredibly selective. It filters out most of daily life to save energy, consolidating only what the salience network tags as relevant to our wellbeing—what predicts survival, social belonging, and identity.

This "unreliability" is actually a feature, not a bug. The brain doesn't waste resources archiving irrelevant information. Instead, it builds an ever-evolving predictive model of what matters. We decide what matters based on two axes: arousal (low - high) and valence (negative - positive).

The Circumplex Model of Affect

OPTIMAL LEARNING = ENGAGED (High arousal + positive valence)

Optimal Learning Zone
NEGATIVE
(Unpleasant)
POSITIVE
(Pleasant)
HIGH
AROUSAL
LOW
AROUSAL
THREATSurvival Mode
Eustress
ENGAGEDCuriosity / Flow
DISENGAGEDBoredom
CONSOLIDATIONReflection / Safety
Arousal"This matters." (Energy)
Valence"I can cope with this." (Safety)
PILLAR 2

Attention Is Not Enough

Attention for true learning operates like a seesaw across three brain networks. The pivot is Salience (what matters), which leads the toggling between Executive Control (focused work) and Default Mode (reflection, meaning-making). The key is balance.

Executive Control
Default Mode
Salience Network
Is this relevant? Detecting what matters to enable switching.

The Network Dynamics

Salience Network (SN)

The pivot. Detects what matters emotionally and biologically. Triggers the switch between networks.

Low salience leads to weak learning, quickly forgotten.

Executive Control (ECN)

The "Task Positive" mode. Focused attention, problem solving, and analytical processing.

Excessive focus can lead to anxiety, burnout, inhibits meaning-making, sense of purpose and identity.

Default Mode (DMN)

The "Reflective" mode. Meaning making, identity formation, and connecting new info to the self.

Excessive reflection can lead to rumination, inaction, even depression.

"What you have emotion about is what you're thinking about, and what you're thinking about you might be able to learn about."
— Mary Helen Immordino-Yang
PILLAR 3

Narrative & Identity

Human beings are narrative creatures. We don't experience life as disconnected data; we organise it into stories.

Narratives enable the Default Mode Network to simulate possibilities and consolidate learning during rest. This is how information becomes part of our identity.

  • Stories provide structural coherence for memory.
  • Social narratives shape who we believe we can become.Without narrative, learning feels like disconnected facts. With narrative, learning becomes part of who we are.
IMPLICATIONS

Universal Design Principles

How do we translate biology into practice? These six principles apply across classrooms, organisations, and leadership development.

Start With What People Care About

We only learn what matters to us. Connect content to existing cares.

In Practice

Begin learning design by exploring why anyone might care about this content.

Positive Interoception

Stress blocks consolidation. Safety enables learning.

In Practice

Reduce unnecessary threat. Foster belonging and physiological regulation.

Moderate Arousal

Too boring = ignored. Too scary = survival mode.

In Practice

Create resources which meet existing cares or experiences which trigger genuine curiosity or create eustress: meaningful challenge with support.

Toggle The Seesaw

Alternate between focus and reflection.

In Practice

Build explicit reflection periods into every learning sequence.

Embed in Narrative

Stories provide the structure for memory and identity.

In Practice

Ask: What story provides context for this learning? Who are the characters?

Foster Autonomy

Agency deepens engagement. Compliance is brittle.

In Practice

Provide meaningful choices and respect learners' own goals.

The biological mechanism

We learn to regulate our body's energy budget (allostasis). When new information helps us predict what's coming and how to respond, the brain invests in consolidating it. When information doesn't help us predict or regulate, the brain efficiently discards it.

In other words: We only learn what's worth the metabolic investment.

Want to go deeper?

Access the foundational white paper for a deep dive into the 3 pillars, the learning seesaw mechanics, and detailed applications of the universal design principles.

White Paper

Applications Across Contexts

Education

Nurture environments of safety. Develop curriculum and teaching which supports tipping the seesaw back and forth - connecting daily experiences to emerging values and identity. Create assessment which honours agency, purpose and capability.

Workplace L&D

Embed learning in realistic scenarios. Address authentic performance challenges rather than abstract compliance. Leverage social learning communities.

Leadership

Leaders must make sense of complexity and strategy through affective architecture - how emotions shape actions, how proposed change activates engagement or threat, how to use the seesaw to make better decisions, how narratives create cohesion, how purpose shapes identity.

AI-Human Collaboration

AI lacks affect and cannot "care." Understanding this biological distinction helps us allocate tasks appropriately: use AI for information processing while preserving human judgement, meaning-making, and ethical decision-making across education, workplace, and family contexts.

For Families

Parents face unprecedented challenges navigating AI during their children's most critical years of brain development. Like all technology, AI can be harmful or helpful. When we understand human development, especially during adolescence, we can use AI safely and effectively while embracing the benefits.

For Workplaces

Organisations implementing AI in workplace learning face a critical distinction: performance optimisation versus developmental learning. I focus on biological realities - what remains distinctively human, what AI cannot do, and how to implement AI in ways that enhance rather than undermine genuine capability building and adaptive capacity.

Building Learning Systems That Work With Biology

Connecting affective neuroscience to classroom practice, workplace strategy, and leadership development.

MG
Who I Am

Mike Goves

After 20 years in teaching and school leadership, I kept witnessing the gap between how we're told learning works and what actually happens, regardless of attainment and performance. It turns out the same problems persist in business. That gap led me to better understand human development.

With a Master's in Cognitive Science, as a graduate of the Oxford AI Programme, and 5Di accreditation, I bridge research and practice, informed by pioneering researchers such as USC's CANDLE lab in the US, to reveal how learning in schools and workplaces can align with human development.

I'm driven by a core belief: people deserve genuine, meaningful opportunities to develop and flourish. Adolescence is a particularly sensitive period where experiences literally build the brain networks that shape lifelong wellbeing and learning capacity.

I serve as a national judge for the Teaching Awards, sit on steering groups centred on equitable and holistic education, and was awarded Top Overseas Teacher by Singapore's Ministry of Education.

5Di accredited
Master's Degree in Cognitive Science
Oxford AI Graduate
Top Overseas Teacher: Singapore MOE
Teaching Awards Judge

My Mission

To champion learning environments which are based in human development and flourishing, challenging computational models of learning that treat the brain as a data processor and learning as information transfer. To establish affective Foundations framework as the foundational science for learning and development.

The Affective Foundations framework is built upon the converging evidence from affective neuroscience, developmental psychology, and biological systems theory.

IMPLEMENTATION

Translating Biology to Practice

Four domains drive application of theory through research, workshops and resources.

FRAMEWORKS AND WORKSHOPS IN DEVELOPMENT

Affective Education

From information transmission to developmental identity

Move beyond transmitting content to students by prioritising development as the purpose of education.

Design Features

  • Environments of safety and non-violent communication
  • Planning and teaching using the seesaw model
  • Strategies for building salience and relevance
  • Assessment approaches that honour agency and identity
FRAMEWORKS AND WORKSHOPS IN DEVELOPMENT

Affective Workplace L&D

From Content Delivery to Performance

Move beyond completion metrics to performance change. Design workplace learning that respects the brain's homeostatic drive while enabling deep skill acquisition.

Design Features

  • Performance-based design
  • Social learning systems
  • Just-in-time support
  • Culture of psychological safety
FRAMEWORKS AND WORKSHOPS IN DEVELOPMENT

Affective Leadership

Creating Conditions for Collective Learning

Leaders navigate complexity through affective foundations - understanding how emotions shape action, how change is personal, and how to make better decisions under uncertainty.

Design Features

  • Using the seesaw model for strategic decision-making
  • Emotional intelligence in systems change
  • Managing resistance through affective understanding
  • Using narrative to create organisational cohesion
FRAMEWORKS AND WORKSHOPS IN DEVELOPMENT

Affective AI-Human Collaboration

Understanding the Human Advantage

AI lacks affect and cannot 'care.' Learn to leverage AI for information processing while preserving human judgement, meaning-making, and ethical decision-making across education, family, and workplace contexts.

Design Features

  • Clear comparison between human and AI cognition
  • Framework for task allocation (what AI should and shouldn't do)
  • Safe and ethical AI integration strategies
  • Developmentally appropriate AI use in education
  • Practical tools for immediate implementation

Research Partnerships

Help Shape These Workshops

I'm seeking education partners to co-develop and pilot affective learning frameworks and workshops. If your school is interested in exploring developmental thinking and collaborative implementation research, let's work together.

  • Diagnostic assessment of current developmental practices
  • Co-design of affective-first interventions
  • Implementation support and iteration
  • Shared learning and documentation of impact

Ideal partners: Schools committed to transformative education, willing to experiment thoughtfully.

Work With Me

Ready to support schools and businesses implementing affective approaches to learning and development.

Consultation & Advisory

I work with schools and organisations on:

  • Affective-first pedagogy and classroom practice
  • Leadership coaching using triple network frameworks
  • AI implementation that honours human development
  • Assessment and curriculum design

Get in touch to explore what we can do together. It depends on your culture and aims—or maybe you just want to discuss opportunities.

Speaking Engagements

Keynotes and workshops for conferences, schools, and organisations on:

  • Affective neuroscience in practice and the seesaw model
  • Why computational models fail adolescent development
  • Triple network leadership and decision-making under uncertainty
  • AI-human collaboration: What remains distinctively biological

Start with the Foundation

Let's Work Together

Partner to build biologically grounded learning systems.

Speaking Engagements

Keynotes and workshops on:

  • Affective neuroscience in practice and the seesaw model [education focused]
  • How to improve performance but why sustaining development is better [business focused]
  • Affective leadership and leading change [all organisations]
  • AI-human collaboration [all organisations]

Education Research Partnerships

Collaborative research on:

  • Education during adolescent development (10-24 yrs)
  • Curriculum design connecting to student concerns
  • Authentic assessment
  • Affective-first pedagogy implementation
  • Learning environment design for network coordination

Consulting

Schools:
  • Development-focused teaching and learning
  • Assessment innovation
Workplaces:
  • Human-centred learning design
AI-Human Interaction:
  • Human vs AI cognition and capabilities
  • Task allocation frameworks
  • Developmentally appropriate AI use
  • Safe and ethical use
michael@affectivelearninglab.com