The striking capabilities of the savant brain depend on the focus of the powerful memory of a neural pattern recognition intelligence on a narrow knowledge domain. The term savant originated in the late nineteenth century with the discovery of amazing intellectual capabilities in a few feeble minded European patients. The brilliance displayed by savants in narrow areas, such as mathematics, calendar calculation, art, memory, musical ability, or spacial skills provide explanations for human creativity.
Darold Treffert said “By finding out how savants work, we learn how we work." According to him, almost all of them have prodigious memories which are very deep, but exceedingly narrow. Simon Baron-Cohen noted that the powerful ability of autistic savants to systematize was offset by a low score on their ability to empathize. Generally, the superior pattern recognition ability of the savant brain in one domain comes at the cost of reduced competence in another. But those brain processes reveal the massive potential of the ordinary human brain.
Could An Amazing Algorithm Have Stunning Control Over Your Mind?
This is what happens when an engineer researches the mind. Way back in 1989, the writer, an engineer, catalogued how the ELIMINATION approach of an AI Expert System could reveal a way by which the nervous system could store and retrieve astronomically large memories. That historic insight is central to the six irresistible premises presented in this website.
Behind the scenes, these premises conceal an eye-opening revelation. About the incredible speed of intuition. A physician is aware of thousands of diseases and their related symptoms. How does he note a symptom and focus on a single disease in less than half a second? How could he identify Disease X out of 8000 diseases with just a glance?
First, the total born and learned knowledge available to the doctor could not exist anywhere other than as the stored/retrieved data within the 100 billion neurons in his brain. The perceptions, sensations, feelings and physical activities of the doctor could only be enabled by the electrical impulses flowing through the axons of those neurons. The data enabling that process could be stored as digital combinations.
Second, combinatorial decisions of neurons cannot be made by any entity other than the axon hillock, which decides the axonal output of each neuron. The hillock receives hundreds of inputs from other neurons. Each hillock makes the pivotal neuronal decision about received inputs within 5 milliseconds. Axon hillocks could be storing digital combinations. It could be adding each new incoming digital combination to its memory store. The hillock could fire impulses, if it matched a stored combination. If not, it could inhibit further impulses. Using stored digital data to make decisions about incoming messages could make the axon hillocks intelligent.
Third, combinations are reported to enable a powerful coding mode for axon hillocks. Olfactory combinatorial data is known (Nobel Prize 2004) to store memories for millions of smells. Each one of 100 billion axon hillocks have around a 1000 links to other neurons. The hillocks can mathematically store more combinations than there are stars in the sky. Each new digital combination could be adding a new relationship link. In this infinite store, specific axon hillocks could be storing all the symptom = disease (S=D) links known to the doctor as digital combinations.
Fourth, instant communication is possible in the nervous system. Within five steps, information in one hillock can reach all other relevant neurons. Just 20 Ms for global awareness. Within the instant the doctor observes a symptom, feedback and feed forward links could inform every S=D link of the presence of the symptom. Only the S=D link of Disease X could be recalling the combination and recognizing the symptom.
Fifth, on not recognizing the symptom, all other S=D hillocks could be instantly inhibiting their impulses. The S=D links of Disease X could be continuing to fire. Those firing S=D link would be recalling past complaints, treatments and signs of Disease X, confirming the diagnosis. This could be enabling axon hillocks to identify Disease X out of 8000 in milliseconds. Eliminating improbable (unrecognized) prospects to arrive at a possible (recognized in the past) solution powers the powerful inductive logic of the mind!
Worldwide interest in this website acknowledges its rationale. Not metaphysical theories, but processing of digital memories in axon hillocks could be explaining innumerable mysteries of the mind. Over three decades, this website has been assembling more and more evidence of the manipulation of emotional and physical behaviors by narrowly focused digital pattern recognition. It has also received over 2 million page views from over 150 countries.
What Type Of Skills Do Savants Exhibit?
The savant syndrome is rare and, historically, there are barely one hundred reported prodigious savants, who display the skill levels of a prodigy. As an example, one had memorized The Decline and Fall of the Roman Empire after reading it a single time, while another could instantly recite the particular day of the week for May 12, 1834. One was known to be able to instantly recall the names and birth dates of the family members and cabinet members, of any president of the United States. A savant child is known to have drawn pictures of horses, comparable to those of Rembrandt. Another could listen to a classical piece played just once and play it back in its entirety.
The Savant Brain
What Is Unique About Savant Memories?
While a normal person may remember having seen the page of a phone directory (an implicit memory), the savant brain can recall each entry on that page (a declarative memory). An ordinary person recalls an entry in a phone directory by linking the text to the elaborate context of the numerous aspects of a known person. Such declarative memories are recalled using contextual hooks. Those memories are formed for normal people after substantial repetitions of the perception within their nervous systems. An organ called the hippocampus is known to spread associative learning to extensive regions of the nervous system over many sleep/wake cycles. On the other hand, a savant brain recalls an uncanny range of details after a single glance.
The Savant Brain
What Are Combinatorial Memories?
This explanation of the savant brain is based on a groundbreaking view of human memory, suggesting that neurons store memories as remembered combinatorial patterns in the arrays of their receiving dendrites. The pattern may be a single signal in the array, signals in a channel in the array, or a specific combinatorial pattern of signals in the array. Such remembered combinations in olfactory receptor arrays were discovered (Nobel Prize 2004) to enable the instant identification of odors. Different combinations of receptors were noted to fire on identification of specific molecules in the air.
This website suggests that such a memory for an odor is assembled by the olfactory system, when the related nerve cells routinely record the related firing combinations. Such memories, which subsequently cause the cell to recognize a combinatorial code and fire, could be inherited, acquired, or consolidated through LTP, neural plasticity, or neuronal reverberation.
Knowledge stored in nerve cells enables the brain to perform its myriad functions. Each function is performed by a specialized functional region, which stores the related memories. Damage to the region causes a loss of that ability. The phenomenal memories of the savant brains occur, when altered development causes specific region of the brain, or even an entire hemisphere to be taken over by a neighboring region or the corresponding region in the opposite hemisphere. One function expands in power, while many others become disabled.
The Savant Brain
How Are Combinatorial Memories Recorded?
The nervous system has the capacity to instantly store a memory. These are invariably implicit memories. Such memories of ordinary people enable them to indicate that they have seen a movie scene, after seeing it just once. Implicit memories enable them to indicate familiarity with the thousands of images of the movie. But they may not be able to recall any particular scene, unless it has emotional significance. The ability to recall a scene in the movie is achieved through neuronal reverberation, where linked nerve cells fire in rhythm, record the combinatorial patterns in all the linked network, spread over several brain regions. The hippocampus is the key organ, which is believed to play a role in the recall of emotionally powerful scenes of the movie.
Signals from the hippocampus repeatedly activate the associative space/time/sensation/emotion regional links over many sleep/wake cycles. Such memories enable the conscious recall of a memory of a scene after months and years, when the system encounters any of the related links. On the other hand, procedural memories enable a person to play a musical instrument, or to ride a bike. Such memories, which directly empower the motor system in real time, are also acquired through repetitive practice. Repetitive activity entrains the combinatorial memories in connected motor nerve cells. Procedural memories cannot be consciously recalled. They are assembled without the assistance of the hippocampus and are available as a remembered ability.
The Savant Brain
Do Functional Brain Regions Have Self-Contained Memories?
Specialized memories are stored in distinctive functional regions of the brain. In general, for all vertebrates, including fish, frogs, reptiles, birds and mammals, the left hemisphere of the brain focuses on routine functions, while the right one focuses on novelty. The left manages customary feeding, while the right remains on the alert for predators. In experiments, chicks displayed the ability to selectively pick seeds out of pebbles with one eye and one half of the brain, while using the other eye and the other half of their brains to monitor the skies for hawks. Each region stores the memories required to meet its functional responsibilities.
With increasing specialization, the left hemisphere manages systematic and logical functions like grammar, vocabulary and literal meaning. The right hemisphere became superior in the perception of visual and auditory stimuli, spatial manipulation, facial perception, and artistic ability. The functions of the right brain became the production of language, such as intonation and accentuation. In savant brains, injury, or destruction caused specific region of the brain, or even an entire hemisphere to be taken over by a neighboring region or the corresponding region in the opposite hemisphere. Alternate pathways developed to replace injured pathways. There was lopsided functional specialization.
The Savant Brain
How Do Savant Behaviors Differ?
Autism alters brain development soon after conception. Just after birth, the brains of autistic children tend to grow faster than usual, followed by normal or relatively slower growth in childhood. Early overgrowth occurs in all autistic children. There is usually left brain damage, where the right brain compensates and takes over those vast regions, which are devoted to complex habit formation functions in normal people. This leads to a weakness in the ability to form new habits and leads to an unusually narrow interests and highly repetitive behaviors, involving a resistance to change, with a need for sameness.
Children with autism are delayed in their development of a theory of mind - the ability to understand the thoughts and feelings of themselves or others leading to the empathizing–systemizing (E-S) theory, developed by psychologist Simon Baron-Cohen. The cognitive difficulties in autism appeared to lie in domains, where females outperformed males. Females show a greater ability to empathize, (E) the ability to identify a person's thoughts and feelings and to respond with appropriate emotions. A better developed language repertoire and higher empathy skills appear to protect them more against autism.
The mirror neuron system (MNS) theory of autism hypothesizes that distortion in MNS development interferes with imitation, leading to social impairment and communication difficulties. Males show a greater ability to systematize (S) the ability to analyze or construct a system, including mechanical systems, natural systems, abstract systems, and collectible systems, which follows repeating, lawful patterns. Cognitive strengths in autism appeared to lie in domains, where males outperform females.
The Savant Brain
What Is The Basis For Exceptional Savant Memories?
The key to the storage of memory is attention. When attention is paid to a task, neural activity increases in all contextual regions of the nervous system, which are involved in execution of the task. If the mind is engaged elsewhere, the task is less well remembered. The hippocampus assists in the consolidation and storage of the declarative memories of such experiences. After a novel experience for an animal in a cage, the correlation of neuronal reverberation between groups of cells increases dramatically. This process repeats for several hours after the learning experience. Conscious recall becomes possible, when attention is paid to a new and novel experience.
Baron-Cohen noted the extreme repetitive behavior in autism. They spend hours bouncing on a trampoline, keep repeating phrases with exact intonation, or intensely observe the spinning wheels on a toy car. They also exhibit distress if anyone disrupts these activities. Such repetitive cycles of focused attention and neuronal reverberation may occur in a narrow domain in a savant's brain. Functional neuroimaging studies on autistic individuals indicate local overconnectivity in the cortex and weak functional connections between the frontal lobe and the rest of the cortex.
In savant brains, repetitive application of the massive memory capacities of the overconnected neurons in the invaded brain regions may trigger virtually instantaneous assembly of the vast rules of music, art or mathematics. Once in place, intense concentration, repetition, compensatory drives and social reinforcement develop and polish these super normal skills.
The Savant Brain
How Does The Brain Choose Its Focus Of Interest?
With just the access to a pencil or a brush, most savant artists burst into their fields, with full fledged skills. A narrow focus of attention and a repetitive reward oriented behavior provide the pivotal support for the uncanny creativity of the savant brain. Necessity may be the mother of invention, but the choice of a need itself is prewired into the nervous system. Professor Wolfram Schultz discovered the principles behind reward oriented behavior.
Reward oriented behavior is promoted by the release of a group of neurotransmitters by neurons in the early reptilian (approach or withdraw) part of the human brain. When these neurons detect signals of the possibility of a reward, they release dopamine in the forebrain, increasing its activity, bringing clarity to the focus of interest. The brilliance of creativity flourishes on such intense brain activity. People inherit aptitudes for art, music, mathematics, literature, or science.
Bruce Miller noted that a form of dementia also created new aptitudes in patients. One patient began composing classical music soon after the onset of dementia. Miller suggested that this process may not be the development of a new skill, but a release of a skill, because dementia stopped the inhibition of its expression. The primitive reptilian part of the brain decides whether an answer to a problem facing a particular skill set constitutes a reward.
The Savant Brain –
How Does The Creative Process Function?
The mind requires a goal for it to search for answers. Just as anger, fear, or hunger triggers dynamic neural drives, the curiosity emotion sets off an enquiry from a functional region, which elicits one individual's enthusiasm. The combinatorial demands of that functional enquiry subconsciously eliminate irrelevant links to arrive at a combinatorial pattern, which meets that demand. The whole mind participates. When the pattern is matched, the answer to a problem enters the conscious mind.
For each enquiry from a
functional region, numerous intelligences interact to eliminate
irrelevancies and arrive at a recognized pattern, which globally
meets all parameters of that enquiry. Being an interactive system,
the answer to one enquiry produces fresh enquiries and the cycle of
pattern recognition carries on beneath conscious awareness. An
animal seeks safety, an acceptable location which is not accessible
to the predator, or out sight of the predator. Answers appear in
The Savant Brain –In the movie Rain Man, Raymond Babbit could memorize a phone book and count 236 toothpicks at a glance. While the skill appears uncanny, normal minds can also absorb a massive amount of knowledge at a glance. Many people carry photographic memories of their surroundings, when they first heard the news of the fall of the New York towers on 9/11. For a physician with specialized knowledge, a single glance isolates a barely perceptible symptom, which identifies a rare disease. The narrow focus of savant brains magnifies the noticeable details in their narrow area of focus. A savant child confided to his mother “My brain is made of math problems.” Another said “Music is my way of thinking.” Babbitt's attention was obsessively focused on numerical relationships.
Focused attention to an area expands the potential of the mind. The human brain has the capacity to evaluate a vast amount of knowledge in milliseconds. Baron-Cohen suggests that the left hemisphere, particularly in males, is hard wired to extract the underlying rules that govern a system. Savant brains remain continually active, deepening their understanding of mathematical, or musical systems. Oliver Sacks reported that prime numbers just appeared in the mind of the “calculating twins.” That capability is is also empowered in ordinary people, when they pay attention to their fields of interest. Creativity is a process, where focused attention to a subject on an ongoing basis enables the brain to have ever deeper understanding of the subtleties of art, music, or the sciences. The savant brain is merely an indication of the potential of the human mind, when it pays intense attention.