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Showing posts with the label cognitive development

True Value of Time in Learning: Battling Digital Addiction with Brainpage Mastery

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In the digital age, students are increasingly drawn toward screens, entertainment and instant gratification. This behavioral trend has led to a serious imbalance in learning time, weakening their ability to read, write, and solve problems effectively. This article explores how digital addiction disrupts time utilization and how the brainpage model of learnography can restore the value of time in knowledge transfer through motor science, goal-oriented task operation (GOTO), and brainpage hours (BPH). Digital addiction has become a major challenge for modern students, consuming the valuable time meant for learning and knowledge creation. Parents and teachers face difficulties in guiding these children, as traditional education methods often fail to activate the learning mechanisms of the brain. Time Crisis in Modern Learning Time is the most precious element in education. Yet in modern society, it is often consumed by the digital world rather than the world of learning. Many students are...

Problems of Digital Addiction and Lack of Learning Time

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In today’s digital world, many students are becoming increasingly addicted to entertainment through screens. They spend long hours watching videos, scrolling on social media or playing online games. As a result, their brains become exhausted and tired, not refreshed for mathematics. They give very little time to learning, knowledge transfer, brainpage making, and problem solving. This imbalance creates serious problems not only for their education but also for their personal growth and family life. ⁉️ Gyanpeeth Questions for Understanding 1. What kinds of digital activities are causing distraction among students? 2. How does digital addiction affect a student’s learning and behavior? 3. What problems do parents face with children who spend too much time on entertainment? 4. Why is the traditional education system ineffective in changing such student behavior? 5. How does learnography propose to manage time and learning more effectively? 6. What is the importance of brainpage making and...

Cognitive Development of Learnography in Growing Children

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🔍 Discover how motor science and brainpage theory enhance cognitive development in children by strengthening the fronto-parietal networks of brain in book learnography. From Play to Learning: Cognitive Development Through Motor Science in Learnography Cognitive development in learnography is the dynamic process through which a child’s brain transforms motor actions into intelligent knowledge transfer. Unlike traditional education that emphasizes listening and memorization, learnography focuses on motor science, brainpage development and neuroplastic connectivity between the prefrontal cortex and parietal lobes of the brain. These are the core regions of cognition and reasoning. In growing children, the prefrontal cortex of the brain initially connects more strongly to the limbic system than to the parietal lobes, leading to emotion-driven behavior and a natural love for play. Through action-based learning, this balance gradually shifts as the motor-cognitive circuits mature, enabling ...

Mapping the Brain of Learning: Structure and Significance of Taxshila Taxonomy

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📕 Research Introduction: Mapping the Brain of Learnography In recent decades, the advances in neuroscience have revolutionized our understanding of how the human brain acquires, stores, and applies knowledge. Yet, traditional educational taxonomies and assessment models—such as Bloom’s taxonomy—have remained largely rooted in cognitive psychology and teacher-led pedagogy. It often overlooks the motor, spatial, and executive brain functions crucial for effective learning. The emerging field of learnography is grounded in the principles of Taxshila Neuroscience. It introduces a radical shift in educational design by focusing on the direct transfer of knowledge from source material to the learner’s brain through motor engagement and self-directed practice. Taxshila Taxonomy has been developed to align with this neuro-dynamic vision. It offers a structured framework for evaluating learning outcomes based on Taxshila Levels (0 to 5) and the Seven Dimensions of Knowledge Transfer. Unlike tr...

Reactance and Responses: Law of Experiential Learning in Learnography

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Research Introduction In the evolving landscape of educational neuroscience, the transition from passive instruction to active participation has brought to light the significance of experiential learning. At the heart of this dynamic lies a fundamental principle known as the law of reactance. This is the observable force generated, when learners interact physically and cognitively with a task or object. This concept becomes particularly critical in the framework of learnography, where knowledge is not merely transmitted, but it is constructed through the learner’s own actions and the responses they provoke from their environment. Learnography asserts that action-response mechanisms are central to brainpage development. This is a process, where knowledge is encoded through motor interaction, spatial reasoning and neuro-feedback. A potter receives tactile and visual responses from clay on the wheel, a rider adjusts based on the horse’s movements or a surfer learns from wave pressure. In ...

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...