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2024 | Buch

Emotion, Cognition and Silent Communication: Unsolved Mysteries

verfasst von: Tanusree Dutta, Anirban Bandyopadhyay

Verlag: Springer Nature Singapore

Buchreihe : Studies in Rhythm Engineering

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Über dieses Buch

This book provides an answer to the readers about scientific perspective on learning. It presents a culminating point of four different kinds of studies designed to measure and understand the nuances of brain functioning. The objective of this book is to find answers to four questions: (1) can there be a neuroscientific understanding of the concept of individual differences? (2) does rhythmic sound or noise have an impact on decision making? (3) how does transfer of learning between the hemispheres facilitate the learning process? and lastly (4) beyond the accepted ways of communicating verbally and non-verbally is silent communication possible? This book makes an attempt to address these issues through various aspects of inner-conscious engineering.

Inhaltsverzeichnis

Frontmatter
Chapter 1. Unsolved Mysteries of the Mind and the Brain: Fractal Brain Hypothesis
Abstract
The Human Mind: A Fascinating Journey: For centuries, philosophers have been fascinated by the human mind. What is it that makes us conscious? How do we experience emotions? And what is the nature of self-awareness? While the Western philosophers are struggling with the duality of mind and body, thus, signifying qualia as “hard problem of consciousness”, Vedic philosophers coupled physical world Prakriti and non-physical world “Purusha”, as singular entity, Purusha-Prakriti, thus, avoiding mountains of debates around qualia. In this chapter, we will explore the fractal brain theory, a new approach to understanding consciousness. This theory proposes that the brain is organized in a fractal pattern, with each level of organization reflecting the one above it. This pattern gives rise to a vast number of possible states of consciousness, each with its own unique flavor. We will also discuss the role of noise in consciousness. Noise is often seen as a nuisance, but it can also play a positive role. In fact, some studies have shown that noise can actually enhance creativity and problem-solving skills. Finally, we will look at the limitations of EEG and group study techniques, a ground to invent an advanced EEG, namely dodecanogram or DDG, an invention, prime focus of this book. EEG techniques are often used to study consciousness, brain disorders, but they have some important drawbacks. We will discuss these limitations and how they can be overcome with new instruments to read subconscious mind. This chapter is just the beginning of our journey into the fascinating science of the human mind. In the chapters to come, we will explore the human subject experiments on mysterious features of brain and unveil more about the sciences of the human brain.
Tanusree Dutta, Anirban Bandyopadhyay
Chapter 2. Quantized Interhemispheric Energy Transfer: Learning Motorized Tasks
Abstract
All human subjects are not equal: don’t ask them same question. In our day-to-day lives, we encounter people who learn very fast, and some learn very slowly. We think that all people learn at different times. If we take statistical data for learning time and a large population, we would find that the time increases linearly from a very fast learner to a very slow learner. However, our result shows this is not a line, but staircase-like jumps are observed. Each stair signifies an upper and a lower time limit. Human subjects who fall in this flat region learn similarly. Calibrating the parameters estimating psychological attributes is debated extensively in psychology. Subjective variations, latent attributes could assign irrelevant data significant. One such problem is the taxonomy of functional lateralization. By comparing the mirror drawing (MD) task with the meta-analysis of brain signals, we demonstrate that lateralization of two hemispheres follows allowed and restricted time gaps. Discrete time-gaps in the energy transfer led to six temporal classifications of learning efficiencies of human subjects. Correlated meta-analysis studies support the finding. Interhemispheric energy transfer in EEG conducted on twenty subjects showed that subjects whose first attempt to complete an MD task fall in a specific time domain, their learning efficiencies change similarly during procedural learning. Six-time domains were confirmed via multiple cross-verification experiments, governing a latent attribute to subjective variances. Our quantized correction to classical psychometric theory would efficiently calibrate the parameters estimating psychological attributes by classifying subjects into at least six categories.
Tanusree Dutta, Anirban Bandyopadhyay
Chapter 3. Universal Thermal Markers of Human Emotions: Geometric-Biological Invariants for Emotional Transitions
Abstract
Uncovering 23 Facial Locations Involved in Emotional Transitions: One of the most interesting findings from thermal marker research on emotion is that the thermal expression of emotions is not always consistent. For example, someone who is feeling angry may not always show a red face. This is because the amount of blood flow to the face is also affected by other factors, such as stress, fatigue, and medication. This finding has important implications for the development of emotion recognition systems. It suggests that these systems need to be able to take into account a variety of factors in order to accurately identify emotions. The research is also shedding light on the neural mechanisms of emotion. We have found that the areas of the brain that are involved in processing emotions are also involved in regulating blood flow to the face. This suggests that there is a close connection between the two processes. We are continuing to research the complexity of human expression. We believe that our findings have the potential to revolutionize the way we understand and interact with emotions. In a departure from conventional studies, we present a novel perspective on emotional states through thermal imaging, revealing distinct and individualized transitions in humans. Thermal imaging unveils a fascinating pattern: As people shift from anger, upset, and aggression to states of bliss, happiness, and relaxation, specific regions of their faces respond uniquely. These twelve key regions include the nose, eye corners, eye junctions, forehead vertical lines, forehead horizontals, lips, ears, eyebrows, cheeks, chin, mustaches, and beard, as well as vertical lines parallel to the nose. These regions exhibit temperature changes of 2–7 ℃ during emotional transitions, with each person displaying a unique combination of affected areas in their facial expressions. By applying geometric analysis to individuals’ logical responses to asymmetrical images, we discern that introverts and extroverts employ their eyes differently during emotional transitions. Similarly, individuals categorized as aggressive, subdued, or calm and composed in psychological tests use distinct facial regions to express their emotions. These findings hint at the existence of twelve facial expressions originating from two fundamental categories of human character. We present a study with 287 individuals disproves the notion that all human faces, regardless of race, ethnicity, or beliefs, share a common thermal facial expression for specific emotions. Even people from similar backgrounds show distinct thermal expressions when experiencing the same emotion. We propose using dynamic thermal images instead of static ones as they reveal the geometric patterns of emotions on a person’s face. By observing which facial parts are active during emotional transitions, human subjects can be classified into six main categories and 23 subcategories. The analysis of dynamic thermal images also uncovered time conservation rules governing the latency, duration, and transition modes of human emotions. This finding has the potential to classify individuals into at least 23 different categories and assist in quantitatively estimating and treating mental disorders.
Tanusree Dutta, Anirban Bandyopadhyay
Chapter 4. Are Errors Indicative of Learning Strategies: Use It or Minimize It?
Abstract
Noise is Better for Human Brain Than Ordered Signal: The fascinating connection between human consciousness and noise highlights the essential role of noise in shaping our thoughts, perceptions, and emotions. Here, we explore the downside of not finding a predetermined pattern of signal transmission in the brain, while also highlighting the positive aspects of noise as the brain’s true signal of conscious processes. We picked tasks that engage either the left or right side of the brain. For example, we looked at mathematical operations that typically involve the left hemisphere. While someone solved math problems, we used EEG to track how the results moved from the left to the right hemisphere when they communicated those results using sign language with their left hand, which requires the right hemisphere. Next, we reversed things. We focused on tasks related to recognizing art, something usually processed by the right hemisphere. Participants looked at a picture for about 12–15 s, and we could see their brain’s image processing region activate in the EEG. Then, we removed the picture and showed them a mix of jumbled-up picture details, including the one they'd seen. To answer, they had to access the image data stored in the right hemisphere, then use language processing in the left hemisphere to describe it and communicate the answer using sign language with their right hand. Through EEG, we observed clear transfers of information between the left and right hemispheres of the brain. Our study revealed that each person’s brain follows a unique information processing and transfer protocol between these hemispheres. We also found that ASMR can enhance this interhemispheric transfer, while periodic buzzer sounds can inhibit it. Brain plasticity, or its ability to adapt, appears to be linked to an individual’s typical cognitive processes.
Tanusree Dutta, Anirban Bandyopadhyay
Chapter 5. DDG, an Electromagnetic Version of EEG Finds Evidence of a Self-operating Mathematical Universe (SOMU) When a Human Subject Converses with an Artificial Brain
Abstract
Mapping of 289 human brains, isolated and in groups and creating an organic artificial brain, the basic claims of a model Self-Operating Mathematical Universe, SOMU, have been verified where a fractal pattern of the density of primes runs an automaton for making decisions. So, to write natural events, the 6D space–time duplet is not used; rather, the 12D space–time-topology-prime quartet rewrites natural events as observation-free invariants. SOMU simulates nature and the brain as an assembly of electromagnetic resonators grown within and above from the smallest to the largest spatial scale as a fractal tape machine that synthesizes invariants. Electromagnetic radiation maps of 207 humans revealed the use of primes as symmetries of resonance chain, as predicted in 2014. Then by self-assembling organic resonators, an artificial brain is made that, if it vibrates like the resonance chain, derives 91 cognitive invariants. Human subjects interacted with the artificial brain to reveal that nature and the brain explore the resonance chain similarly. For both, the geometric arrangement of frequencies follows the prime number’s fractal pattern F(U) over integer space, an infinite source code that alleviates the need for programming. Hence, the brain does not compute; it evolves endlessly for a greater sync with nature's resonance chain, wherein mismatches become decisions. Cognitive responses with one-to-eight human subjects validate twelve dimensions (12D) in a space–time-topology-prime metric of SOMU. Live data streams using dodecanogram (DDG), an electromagnetic advancement of electroencephalogram (EEG), show that the brain's unit of information is a network of invariants encoded as polyatomic time crystal that evolves by decomposing 12D multinions (e.g., dodecanions), so, redefining the unit of information and integration rule is essential to learn brain. Unlike EEG, the DDG’s invariant bank reads 91 human perceptions live in both bio-n-synthetic brains, confirming that retrieving human-like cognitive responses require unforeseen technologies; its is a first and primitive step.
Tanusree Dutta, Anirban Bandyopadhyay
Chapter 6. Silent Group Discussion Using Only via a Visual Contact Under a Dim Light: Testing Collective Decision-Making
Abstract
Dodecanogram, DDG is a tool to explore consciousness like never before. For over 2500 years, cultures worldwide have spoken of the significance of silence as the language of God, where the most profound messages are conveyed. Yet, this belief has remained untested. In our experiment, we gathered a group of eight individuals who refrained from speaking, making any physical signals, and instead, merely stared at one another while contemplating the messages they wished to convey. Simultaneously, a thermal imaging camera monitored their faces and upper bodies for thermal radiation changes, while eight EEG machines recorded their brain activity. The subjects engaged in discussions on a common topic, with the optimal duration for a group of eight individuals being found to be around 5 min; beyond this, it became challenging to maintain. Remarkably, we discovered that interactions involving 2–8 individuals resulted in genuine information exchange. When more than four people interacted, the collective patterns recorded by the eight EEG machines resembled the EEG pattern of a single individual. This collective brain-like feature persisted for approximately 8–10 s at a time. This observation implies that groups of humans can synchronize their brain activity externally, engaging in collective information processing, as if their eight individual brains unite into one. We further explored the impact of music on these groups and tested the functioning of DDGs (Dodecahedron Devices) in different individuals. By connecting DDGs to the brains of 2–8 people, we discovered that music fragmented into distinct parts, with different segments playing in the brains of different individuals within the 200–700 ns domains. This suggests that the information is incomplete when observing just one human subject, as the collective experience forms a cohesive unit of information. DDG is a breakthrough invention that can map the subconscious mind. In group studies, DDG revealed that the brain does not function like a Turing machine, but operates under a unique framework called Fractal Information Theory (FIT). This suggests that consciousness is not limited to a single individual, but is shared among all of us. DDG also supports the theory of Self-Operating Mathematical Universe (SOMU), which posits that consciousness has a mathematical foundation. As a result, DDG is opening up new possibilities for understanding and exploring consciousness. It is a powerful tool that can help us to better understand ourselves and our place in the universe.
Tanusree Dutta, Anirban Bandyopadhyay
Chapter 7. Quantized Thoughts as Structure of Time: Cognitive Engineering for AI: An Octave Drawing Test for Mathematical Structure of a Subconscious Mind
Abstract
Unraveling the architecture of a subconscious mind. Since the 1920s, drawing tests have been used to measure various aspects of the human mind, from intelligence and maturity to personality traits. In the later part of the twentieth century, these tests were even extended to estimate conditions like depression, schizophrenia, and the severity of Alzheimer’s disease. However, despite a wealth of research in cognitive engineering, there hasn’t been a universal set of rules to explain these drawing tests. Most conclusions are drawn based on personal experiences, intuition, and medical test results. Here, we present a set of eight tests designed to uncover the fundamental rules that the subconscious mind of a human subject follows when constructing logical solutions to problems. These tests are based on extensive studies of human subjects, and we’ve identified consistent patterns and principles that apply across different individuals. This knowledge not only helps us interpret drawing test results but also contributes to the development of cognitive technologies. Traditionally, cognitive technologies focused on understanding criminal minds, but our test protocol uncovers the general rules governing the subconscious mind. We’ve discovered that the concept of time within the brain is not linear or nonlinear; instead, it’s a complex network of interconnected clocks. To validate this unique understanding of time, we conducted experiments involving human subjects tasked with deciphering simple patterns and drawings guided by a 3D assembly of clocks. This chapter also explores a common psychological test where individuals draw images based on hints, which are essentially questions. By expanding upon these patterns, we’ve built a framework for comprehending the architecture of time that represents the subconscious mind. With insights gained from human subjects participating in DDG tests, mirror drawing experiments, and thermal camera assessments of emotional transitions, we’ve revealed the underlying structure of the subconscious mind and categorized these insights into various groups.
Tanusree Dutta, Anirban Bandyopadhyay
Chapter 8. Happiness as a Local Invariant of Pain: A Perspective on Spontaneous and Induced Emotions
Abstract
Human subject studies on the effect of two contrasting emotions: happiness and pain. Recent research has challenged the traditional view that happiness is a global phenomenon in the brain while pain is considered a localized occurrence. This perspective shift has significant implications for our understanding of emotions and how they manifest in the brain. Historically, psychologists and mind engineers have emphasized the positive effects of happiness as a means to alleviate mental states characterized by suffering and pain. However, contemporary studies have begun to unravel the intricate relationship between these two emotional states. One key aspect of this exploration involves profiling brain waves associated with distinct emotions under various conditions. Researchers have sought to identify geometric invariants within the brain wave patterns associated with pain and happiness. This pursuit has revealed that pain is not solely confined to specific regions of the brain; instead, it manifests as a global phenomenon. In contrast, happiness is shown to be a subset of the broader set of invariants governing pain. Furthermore, investigations have compared the activation pathways of spontaneously generated emotions, driven by free will, with those induced under specific emotional states. This comparative analysis has unveiled several crucial factors supporting the interplay between happiness and pain. Notably, the presence of latency or response lag in the brain’s processing of these emotions has been identified as a significant factor. Additionally, the non-responsive nature of the brain to pain and its universal connectedness to seemingly unrelated concepts such as children and flowers further underscore the complex hardware and software relationships linking happiness and pain. This body of work represents a groundbreaking effort to map the intricate pathways that lead to the discovery of happiness within the realm of pain. The findings challenge conventional beliefs about the localization of emotions in the brain and offer a fresh perspective on the interrelatedness of happiness and pain. Further research in this domain promises to deepen our understanding of the complex neural mechanisms underlying our emotional experiences.
Tanusree Dutta, Anirban Bandyopadhyay
Chapter 9. Social Awareness Against Sexual Harassment Triggering Excitatory Cognition Could Be Negated Using a Pure Awe Experience
Abstract
A universal solution for many psychological problems: In the preceding chapter, we explored the profound notion that happiness often resides within the depths of pain, shedding light on the intricate relationship between these emotional states. Now, we turn our attention to a critical issue concerning awareness campaigns aimed at addressing sexual abuse. It has become evident that conventional approaches, such as showcasing explicit abuse videos, may not yield the desired outcomes. Instead, we propose a more empathetic and effective strategy that emphasizes the power of unbiased awe experiences. Philosophically, we must recognize that solutions to complex issues like those affecting the human brain often lie outside the problem’s immediate domain. To this end, our work delves into the realm of psychological tests that extend beyond conventional techniques, as outlined here. Awareness campaigns have long been regarded as invaluable tools for advocates striving to cultivate societies rooted in peace and security. Countless research efforts have been dedicated to finding the most effective methods for instilling awareness within the human psyche. In our investigation, we meticulously chart the emotional responses elicited by awareness campaigns addressing sexual harassment in the workplace. Our findings provide compelling evidence that a profound, purely positive sense of awe has the remarkable ability to entirely counteract the arousal triggered by awareness videos. This effect is so potent that not even a negative sense of awe can diminish it. Consequently, our work reshapes the foundational understanding of designing materials for awareness campaigns. We posit that incorporating entirely unrelated, positively awe-inspiring experiences during such campaigns can effectively redirect the minds of individuals who may have become desensitized to pressing issues. Pure, positive awe possesses the potential for universal resonance, making it a potent tool for engaging even the most bewildered and resistant minds in the realm of awareness.
Tanusree Dutta, Anirban Bandyopadhyay
Chapter 10. The Genesis of Classifying Humans for Their Diversified Brain Hardware in Light of SOMU Theory of Consciousness
Abstract
This book challenges the conventional wisdom that assigns distinct roles to the left and right hemispheres of the brain. Through a series of experiments and observations, it reveals surprising insights into how these hemispheres interact during various tasks. In Chap. 2, the mirror drawing task defied expectations, showing that rapid performers do not necessarily synchronize their brains but exchange energy between hemispheres. Chapter 3 uncovers a multi-category emotional map with unexpected thermal facial asymmetry. Chapter 4’s cognitive study exposes unique brain pathways in sequential tasks. In Chap. 5, we have generalized the results into the theory of consciousness namely, Self-Operating Mathematical Universe, SOMU. Silent communication in Chap. 6 reveals synchronized brain activities, challenging the classic left–right brain concepts and individualism. This chapter argues that it is not absolute to see the mind of a person into oneself, there are people around him with whom the person shares consciousness. These findings question common beliefs and emphasize the importance of categorizing individuals based on emotional responses. Understanding individual brain differences has profound implications for cognition and emotion, highlighting the need for improved research methodologies in the future. The introduction of DDG, an advanced EEG technology, into group studies of human subjects has led to profound revelations regarding human consciousness. Notably, these insights challenge conventional notions in three key aspects: Firstly, the concept of time has transcended the binary categorization of linear or nonlinear, instead presenting itself as a complex fractal architecture governed by a 3D clock assembly; secondly, the brain exhibits the capacity to identify invariants and subsequently constructs them within the framework of space–time-topology-prime quartet, emphasizing the primacy of these invariants over spatio-temporal dynamics; thirdly, our exploration aligns with the theory of Self-Operating Mathematical Universe (SOMU), wherein consciousness is intricately linked to mathematical principles. In this final chapter, we delve into a comprehensive examination of the critical attributes inherent in SOMU, aiming to establish a holistic understanding of consciousness that encompasses its diverse facets.
Tanusree Dutta, Anirban Bandyopadhyay
Metadaten
Titel
Emotion, Cognition and Silent Communication: Unsolved Mysteries
verfasst von
Tanusree Dutta
Anirban Bandyopadhyay
Copyright-Jahr
2024
Verlag
Springer Nature Singapore
Electronic ISBN
978-981-9993-34-5
Print ISBN
978-981-9993-33-8
DOI
https://doi.org/10.1007/978-981-99-9334-5

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