Coaching practices for George Miller Working Memory
Describe almost anything you are working through and IX Coach finds the practices whose real-world fit is closest. For George Miller Working Memory, these are the strongest matches in the current practice library.
Does this sound like the set of challenges you might be facing?
- My day is a constant flicker between unrelated things — email, then the report, then a call, then back — and every jump leaves me fumbling for a second to remember where I even was, so I end the day drained with little to show.
- Whenever I try to do the whole complex thing at once, every part of it is fighting for room in my head and it all falls apart
- Half my brain is always busy clutching the errands, the phone number, the thing I mustn’t forget, so there’s barely any left for the actual thinking in front of me
- I’m trying to hold a pile of disconnected facts in my head and they keep sliding out because there’s nothing tying them together
- I cram a huge pile of brand-new material into one long session and walk away with almost none of it
Practices that may help
- Working Memory: How Your Brain Holds Thoughts in Play
Alan Baddeley and Graham Hitch’s working memory model describes the cognitive workspace that temporarily holds and manipulates information — it is not just a buffer but an active system with limited capacity. Understanding its architecture explains why multitasking degrades performance, why certain study designs backfire, and how to structure learning to fit the brain. - Train task-switching to reduce cognitive overhead
Deliberately practice switching between related tasks to make transitions less costly.
Working Memory: How Your Brain Holds Thoughts in Play - Chunk information before asking working memory to use it
Master the parts before combining them so assembly fits within working memory.
Working Memory: How Your Brain Holds Thoughts in Play - Chunking: How to Learn More by Grouping Better
Chunking is the process of grouping individual pieces of information into meaningful units, effectively multiplying what working memory can hold. George Miller’s classic 1956 research established that working memory holds roughly 7 (plus or minus 2) items, but that a "chunk" can be any size — making chunking one of the most reliable levers for learning complex material. - Offload peripheral information to free working memory
Write things down externally so working memory is free for thinking, not storage.
Working Memory: How Your Brain Holds Thoughts in Play - Integrate across modalities with narrative or story
Bind disparate information into a coherent story or context to make it easier to hold and recall.
Working Memory: How Your Brain Holds Thoughts in Play - Limit the number of novel items per session
Introduce no more than 5–7 genuinely new concepts in a single learning session.
Chunking: How to Learn More by Grouping Better - Keep verbal and visual channels separate
Avoid presenting spoken narration and dense text at the same time.
Working Memory: How Your Brain Holds Thoughts in Play - Strip extraneous cognitive load from learning materials
Remove every element in your environment or materials that consumes attention without teaching anything.
Working Memory: How Your Brain Holds Thoughts in Play - Cognitive Load Theory: Learning Within Working Memory Limits
Cognitive Load Theory, developed by John Sweller, explains that learning is bottlenecked by working memory, which can hold roughly 4–7 items simultaneously. It distinguishes load that is intrinsic to the material, extraneous load created by poor presentation, and germane load from schema-building. Effective learning and instruction minimize extraneous load and direct the freed capacity toward genuine understanding.
Related concerns
- John Sweller Working Memory
Cognitive Load Theory, developed by John Sweller, explains that learning is bottlenecked by working memory, which can hold roughly 4–7 items simultaneously. It distinguishes load that is intrinsic to the material, extraneous load created by poor presentation, and germane load from schema-building. Effective learning and instruction minimize extraneous load and direct the freed capacity toward genuine understanding.
- Baddeley Working Memory
Alan Baddeley and Graham Hitch’s working memory model describes the cognitive workspace that temporarily holds and manipulates information — it is not just a buffer but an active system with limited capacity. Understanding its architecture explains why multitasking degrades performance, why certain study designs backfire, and how to structure learning to fit the brain.
- Central Executive Working Memory
Deliberately practice switching between related tasks to make transitions less costly.
Train task-switching to reduce cognitive overhead
- What Is Working Memory
Alan Baddeley and Graham Hitch’s working memory model describes the cognitive workspace that temporarily holds and manipulates information — it is not just a buffer but an active system with limited capacity. Understanding its architecture explains why multitasking degrades performance, why certain study designs backfire, and how to structure learning to fit the brain.
- Working Memory Capacity
Alan Baddeley and Graham Hitch’s working memory model describes the cognitive workspace that temporarily holds and manipulates information — it is not just a buffer but an active system with limited capacity. Understanding its architecture explains why multitasking degrades performance, why certain study designs backfire, and how to structure learning to fit the brain.
- Working Memory Limit
Alan Baddeley and Graham Hitch’s working memory model describes the cognitive workspace that temporarily holds and manipulates information — it is not just a buffer but an active system with limited capacity. Understanding its architecture explains why multitasking degrades performance, why certain study designs backfire, and how to structure learning to fit the brain.
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