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Showing posts with the label motor science

Pottery Wheel and the Thalamus of Brain: Shaping Clay, Shaping Knowledge

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Research Introduction This article explores a unique analogy between the pottery wheel and the thalamus of human brain, highlighting their shared role as the dynamic centers of transformation. In pottery, spinning wheel allows a potter to mold shapeless clay into a functional and artistic form through deliberate motor actions and tactile feedback. Similarly, in human brain, the thalamus serves as a central relay station, processing sensory inputs and coordinating motor responses. These actions shape the brain’s internal structure of knowledge, known as brainpage modules in learnography. By comparing the potter’s craft to the process of learning, this article emphasizes the importance of motor science, task-based engagement, and sensory-motor integration in effective knowledge transfer. Obviously, learnography is a system of active knowledge transfer, where learning is constructed through action. The concept of learnography reframes academic learning as an active and brain-centered proc...

How to Study Science Book: Using Comprehension Brainpage and Motor Science in Learnography

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Research Introduction How to Study a Science Book using Comprehension Brainpage and Motor Science in Learnography presents an innovative and brain-based methodology. Learners can master science book through structured learning processes, which are rooted in the principles of learnography. Brainpage making approach emphasizes the transformation of passive reading into active knowledge construction. This process engages three core components – the sourcepage for observation, the brainpage for cognitive encoding, and the zeidpage for performance and application. Unlike traditional learning methods that rely heavily on verbal instruction and rote memorization, this model integrates motor science, where writing, drawing and task-solving engage procedural memory systems to reinforce deep learning. Comprehension brainpage method allows learners to extract, organize, and express scientific learning with clarity, task fluency, developing high retention, and independent understanding. Students a...

Comprehension Brainpage in Social Studies: A Learnography Approach

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Research Introduction The concept of Comprehension Brainpage in learnography presents a transformative approach to learning the subject of Social Studies, shifting the focus from passive teaching to active and brain-based knowledge acquisition. This brainpage method enables the learners to independently read the chapters of source book, construct brainpage modules, and internalize knowledge through visualization, repetition and motor processing. These mental modules are then utilized to write comprehension in a zeidbook (work book), allowing students to express understanding in their own words. The process culminates in task-solving, where learners apply their knowledge to complete exercises and answer questions. This structured flow – from book reading to brainpage making, comprehension writing and task execution – not only enhances retention and performance but also fosters self-directed learning and academic independence. The comprehension brainpage approach is rooted in the princip...

Comparing Learnography with Pottery Through the Lens of Motor Science

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Research Introduction This article presents a compelling analogy between pottery and learnography, emphasizing the role of motor science in knowledge construction. Just as a potter molds clay on a spinning wheel using coordinated movements, patience and sensory feedback, students in learnography shape brainpage modules through task-based learning, motor engagement, and structured practice. The process of making a clay pot involves fine motor skills, tool handling, and spatial awareness. It mirrors the cognitive and physical skills, which are required in effective learning environments. Learnography shifts the paradigm from passive listening to active doing, transforming the classroom into a hands-on workshop of self-directed learning. By comparing these two seemingly different yet fundamentally similar processes, the article illustrates how skill-based and motor-driven learning fosters deeper understanding, retention and creativity. Shaping Minds Like Clay: Pottery of Learnography Like...

Conventional Teaching is Not Successful in Schools: Rethinking How We Learn

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Research Introduction Conventional teaching system is rooted in teacher-led instruction, passive listening and rote memorization. It has long dominated classroom practices across the world. However, evidence increasingly shows that this approach fails to meet the evolving cognitive, emotional, and practical needs of modern learners. This article critically examines the limitations of traditional education, highlighting the disconnect between teaching input and actual learning outcomes. It introduces an alternative framework centered on learnography. This is a neuroscience-based model that emphasizes motor science, peer-led collaboration, and book-to-brain knowledge transfer. In this approach, classrooms are reimagined as the spaces of self-directed discovery and meaningful engagement with knowledge transfer. The article advocates for a transformative shift from teaching-centered education to a learning-driven system that nurtures mastery, autonomy, and long-term success. Failure of Con...

Risk Takers and Task Formator: Cultivating Future Leaders Through System Learnography

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Research Introduction Task formator is the mathematical dimension of knowledge transfer, which is a high-level algorithmic construct derived from visuo-spatial learnography. This article explores the transformative role of task formator in cultivating risk takers within the framework of system learnography. The task formator is positioned as the sixth dimension of learnography. This dimension leverages the visual cortex and spatial memory of the brain to build structured and action-oriented brainpage modules. Unlike conventional education that produces dependent and forced learners, system learnography empowers students to become focused and independent learners, capable of critical thinking, problem-solving, and risk assessment. Through the Taxshila Model, this system nurtures entrepreneurs, investors and leaders, who can balance the dynamic between job seekers and job creators. The study highlights the fundamental shift from passive learning to proactive knowledge transfer, offering ...

Teacher and Teaching: Understanding the Difference Through Learnography

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Research Introduction In conventional education, the roles of teacher and teaching are often misunderstood as one and the same. Many educators spend their entire careers identifying with the act of teaching, unaware of the fundamental difference between their personal role and the instructional method they employ. This article explores that distinction, emphasizing that while teachers are vital human resources in learning environments, the traditional practice of teaching often limits student engagement and real understanding. This approach is based on passive instruction and lecture-based delivery. The concept of learnography is introduced as an alternative, advocating for brain-based, motor-driven and student-centered learning. Learnography is not a criticism of teachers, but this is a critique of outdated teaching models. It repositions teachers as the facilitators of active knowledge transfer, allowing students to build brainpage and take the ownership of their learning process. Th...

Mathematics: Universal Language of Brainpage Learning, AI and the Universe

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Abstract Mathematics is not just a subject, but this is the universal language that unites the human brain, artificial intelligence, and the fundamental laws of the universe. This article explores how mathematical structures govern the behavior of neural networks, both biological and artificial. It also describes how brainpage learning harnesses these structures to optimize knowledge acquisition and problem-solving. What's the difference between intelligence and reality? By examining the roles of pattern recognition, calculation and neural modulation, we reveal how mathematics functions as the bridge between intelligence and reality. From brain circuits and motor learning to deep learning algorithms and cosmic patterns, mathematics emerges as the shared syntax of cognition, computation and creation. This integrated perspective encourages a deeper understanding of how numbers shape thought, technology, and the very fabric of the universe. Article – Universal Language Connecting Brai...