‘As an intelligent civilization progresses, they would become part of the fabric of space-time itself’ — Andrew Gallimore

Study finds lapses of attention in sleep-deprived people coincide with wave of fluid flowing out of the brain

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This is why you need FIML

FIML not only accesses individual word maps but also the maps of all communicative signs.

Here is the brain model of semantic maps.

And here is the study: Natural speech reveals the semantic maps that tile human cerebral cortex.

Here is a brief article about the study: Scans Show ‘Brain Dictionary’ Groups Words By Meaning. From this article:

Gallant says the findings contradict two beliefs nonscientists commonly have about the brain. First, that only the left hemisphere handles language. Second, that the brain has localized regions that handle specific tasks.

Edit: When you frequently access your word maps with the help of your FIML partner, both of you will become much more conscious of how these maps are structured and how they function during acts of communication.

This allows partners to make conscious meta-decisions to change and improve these maps in any way they want.

The meaning held in semantic maps (or semiotic maps) is the very meaning of your life as you understand it.

Not only do your maps form the basis of your communication with others, they also form the basis of how you understand yourself. How you communicate with yourself.

Gaining access to these maps is extremely liberating because it allows a degree of control over your own mind that few of us ever experience.

When we say that FIML has no content, no required beliefs, this can be understood as meaning that FIML gives us access to our own maps and control over them.

What you do with this access is entirely up to you and your partner.

Memory is not reliable but changes to fit present circumstances

“Our memory is not like a video camera,” Bridge said. “Your memory reframes and edits events to create a story to fit your current world. It’s built to be current.” (Source)

Study supports FIML practice

This study—Neural Correlates of People’s Hypercorrection of Their False Beliefs—supports the contention that FIML practice can produce deep, wide-ranging, and enduring changes within the brain/mind of practitioners.

The basic finding of the study is:

Despite the intuition that strongly held beliefs are particularly difficult to change, the data on error correction indicate that general information errors that people commit with a high degree of belief are especially easy to correct. (Emphasis added.)

According to the study, this happens due to:

…enhanced attention and encoding that results from a metacognitive mismatch between the person’s confidence in their responses and the true answer.

This is exactly what happens when a FIML query shows the questioner that his/her assumptions about what their partner’s thoughts or intentions were, were wrong.

Initially, FIML partners may experience some embarrassment or disbelief at being wrong. But since FIML queries are generally based on negative impressions, after some practice being shown to be wrong will typically produce feelings of relief and even delight.

A FIML query will generally arise out of a state of “enhanced attention” and usually further increase it by being spoken about. Incidentally, this is probably the most difficult aspect of FIML practice—controlling the emotions that accompany enhanced attention, especially when that attention concerns our own emotional reactions.

With continued practice of FIML, however, even strongly held erroneous interpersonal beliefs will be fairly easily corrected whenever they are discovered during a FIML discussion. Correcting core false beliefs (mistaken interpretations) has a wide-ranging, beneficial effect on all aspects of a person’s life.

Since the hypercorrection effect discussed in the linked study only occurs during moments of enhanced attention, the FIML technique of focusing quickly on good data agreed upon by both partners can be seen as a way of inducing states of enhanced attention that will lead to deep changes in both partners. This technique (using good data) also turns the discussion from one about feelings to one about “information,” which the study finds makes errors “especially easy to correct.”

Furthermore, since FIML practice tends to deal with very small incidents, the enhanced attention FIML induces works like a laser that quickly and painlessly excises erroneous thoughts and feelings while they are still small and have not been allowed to grow into full-blown emotional reactions.

Meaning and existential networks

Ideasthesia (alternative spelling ideaesthesia) is a neuropsychological phenomenon in which activations of concepts (inducers) evoke perception-like sensory experiences (concurrents). The name comes from the Ancient Greek ἰδέα (idéa) and αἴσθησις (aísthēsis), meaning ‘sensing concepts’ or ‘sensing ideas’. The notion was introduced by neuroscientist Danko Nikolić, but can be seen in examples in the Ethics of Spinoza (especially in the third part of the Ethics[1]), as an alternative explanation for a set of phenomena traditionally covered by synesthesia.[2]

While synesthesia meaning ‘union of senses’ implies the association of two sensory elements with little connection to the cognitive level, empirical evidence indicated that most phenomena linked to synesthesia are in fact induced by semantic representations. That is, the linguistic meaning of the stimulus is what is important rather than its sensory properties. In other words, while synesthesia presumes that both the trigger (inducer) and the resulting experience (concurrent) are of sensory nature, ideasthesia presumes that only the resulting experience is of sensory nature while the trigger is semantic.[3][4][5][6][7][8]

Note this from the section above—‘the linguistic meaning of the stimulus is what is important rather than its sensory properties… ideasthesia presumes that only the resulting experience is of sensory nature while the trigger is semantic.

Chapter 4 — Cessations of consciousness in meditation: Advancing a scientific understanding of nirodha samāpatti

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Science Finally Captures Nirvana: FWT Explains Cessation States


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Autonomous Sensory Meridian Response and Functional Interpersonal Meta Linguistics

Anti-immigration protests in Japan

6:31 AM · Sep 14, 2025

Meaningfulness or emotional valence of semiotic cues

A new study on post traumatic stress disorder shows that PTSD sufferers actually perceive meaning or emotional valence within fractions of a second.

This study bolsters the FIML claim that “psychological morphemes” (the smallest psychological unit) arise at discrete moments and that they affect whatever is perceived or thought about afterward.

The study has profound implications for all people (and I am sure animals, too) because all of us to some degree have experienced many small and some large traumas. These traumas induce a wide variety idiosyncratic “meaning and emotional valence” that affects how we perceive events happening around us, how we react to them, and how we think about them.

The study in question—Soldiers with Posttraumatic Stress Disorder See a World Full of Threat: Magnetoencephalography Reveals Enhanced Tuning to Combat-Related Cues—is especially interesting because it compares combat veterans without PTSD to combat veterans with PTSD.

It is thus based on a clearly defined pool of people with “similar” extreme experiences and finds that:

…attentional biases in PTSD are [suggestively] linked to deficits in very rapid regulatory activation observed in healthy control subjects. Thus, sufferers with PTSD may literally see a world more populated by traumatic cues, contributing to a positive feedback loop that perpetuates the effects of trauma.

Of course all people are “traumatized” to some degree. And thus all people see “a world populated by traumatic cues, contributing to a positive feedback loop that perpetuates the effects of trauma.”

If we expand the word trauma to include “conditioned responses,” “learned responses,”  “idiosyncratic responses,” or simply “training” or “experience” and then consider the aggregate all of those responses in any particular individual, we will have a fairly good picture of what an idiosyncratic individual (all of us are that) looks like, and how an idiosyncratic individual actually functions and responds to the world.

FIML theory claims that idiosyncratic responses happen very quickly (less than a second) and that these responses can be observed, analyzed, and extirpated (if they are detrimental) by doing FIML practice. Observing and analyzing idiosyncratic responses whether they are detrimental or not serves to optimize communication between partners by greatly enhancing partners’ ranges of emotion and understanding.

In an article about the linked study (whose main author is Rebecca Todd), Alva Noë says:

…Todd’s work shows that soldiers with PTSD “process” cues associated with their combat experience differently even than other combat veterans. But what seems to be driving the process that Todd and team uncovered is the meaningfulness or emotional valence of the cues themselves. Whether they are presented in very rapid serial display or in some other way, what matters is that those who have been badly traumatized think and feel. And surely we can modify how we think and feel through conversation?

Indeed, what makes this work so significant is the way it shows that we can only really make sense of the neural phenomena by setting them in the context of the perceptual-cognitive situation of the animal and, vice-versa, that the full-import of what perceivers say and do depends on what is going on in their heads. (Source)

I fully agree with the general sense of Noë’s words, but want to ask what is your technique for “modifying how we think and feel through conversation?” And does your technique comport well with your claim, which I also agree with, that “we can only really make sense of the neural phenomena by setting them in the context of the perceptual-cognitive situation of the animal”?

I would contend that you cannot make very good “sense of neural phenomena” by just talking about them in general ways or analyzing them based on general formulas. Some progress can be made, but it is slow and not so reliable because general ways of talking always fail to capture the idiosyncrasy of the “neural phenomenon” as it is actually functioning in real-time during a real “perceptual-cognitive situation of the animal.”

The FIML technique can capture “neural phenomena” in real-time and it can capture them during real “perceptual-cognitive situations.” It is precisely this that allows FIML practice to quickly extirpate unwholesome responses, both small and large, if desired.

Since all of us are complex individuals with a multitude of interconnected sensibilities, perceptions, and responses, FIML practice does not seek to “just” remove a single post traumatic response but rather to extirpate all unwholesome responses.

Since our complex responses and perceptions can be observed most clearly as they manifest in semiotics, the FIML “conversational” technique focuses on the signs and symbols of communication, the semiotics that comprise psychological morphemes.

FIML practice is not suited for everyone and a good partner must be found for it to work. But I would expect that combat veterans with PTSD who are able to do FIML and who do it regularly with a good partner will experience a gradual reduction in PTSD symptoms leading to eventual extirpation.

The same can be said for the rest of us with our myriad and various traumas and experiences. FIML done with a good partner will find and extirpate what you don’t want knocking around in your head anymore.

Disruption of neurotic response in FIML practice

By analyzing minute emotional reactions in real-time during normal conversation, FIML practice disrupts the consolidation, or more often the reconsolidation, of “neurotic” responses.

In FIML, a neurotic response is defined as “an emotional response based on a misinterpretation.” The misinterpretation in question can be incipient (just starting) to long-standing (been a habit for years).

The response is disrupted by FIML practice and, thus, tends not to consolidate or reconsolidate, especially after several instances of learning that it is not valid.

A neurotic response is a response based on memory. The following study on fear memories supports the above explanation of FIML practice.

Memories become labile when recalled. In humans and rodents alike, reactivated fear memories can be attenuated by disrupting reconsolidation with extinction training. Using functional brain imaging, we found that, after a conditioned fear memory was formed, reactivation and reconsolidation left a memory trace in the basolateral amygdala that predicted subsequent fear expression and was tightly coupled to activity in the fear circuit of the brain. In contrast, reactivation followed by disrupted reconsolidation suppressed fear, abolished the memory trace, and attenuated fear-circuit connectivity. Thus, as previously demonstrated in rodents, fear memory suppression resulting from behavioral disruption of reconsolidation is amygdala-dependent also in humans, which supports an evolutionarily conserved memory-update mechanism. (Source: Disruption of Reconsolidation Erases a Fear Memory Trace in the Human Amygdala)

FIML practice works by partners consciously and cooperatively disrupting reconsolidation (and initial consolidation) of neurotic memory (and associated behaviors). FIML both extirpates habitual neurotic responses and also prevents the formation of new neurotic responses through conscious disruption of memory consolidation.

FIML probably works as well as it does because humans have “an evolutionarily conserved memory-update mechanism” that favors more truth. Obvious examples of this update mechanism can be seen in many simple mistakes. For instance, if you think the capital of New York State is New York City and someone shows that it is Albany, you will likely correct your mistake immediately with little or no fuss.

Since FIML focuses on small mistakes made between partners, corrections are rarely more difficult than the above example though they may be accompanied by a greater sense of relief. For example, if you thought that maybe your partner was mad at you but then find (through a FIML query) that they are not, your sense of relief may be considerable.

Memory-guided behaviors employ spatial ‘maps’ in the brain

A new study seems to show that the brains of rats—and by extension ours as well—use a spatial “mapping” system to encode more than just space.

This suggests that mammalian brains encode “continuous, task-relevant variables” in “common circuit mechanisms” that can “represent diverse behavioural tasks, possibly supporting cognitive processes beyond spatial navigation.” (Mapping of a non-spatial dimension by the hippocampal–entorhinal circuit)

It does seem that we do a lot of thinking, remembering, and associating in systematic or roughly systematic ways. And it does seem that these systems resemble spatial ones.

Ever notice how amazing it can feel to stumble upon a new view of a spatial system you already know well? “So that’s where the duct goes through the wall!” Or, “I never realized that Bob’s Street intersects Jones right here!”

When we explore our psychological “maps” in interpersonal settings using FIML techniques, we gain access to details that reorganize those “maps” in a similar way to the example above. Small insights can yield amazing results.

Typically, normal psychological maps are distorted impressions of the psychological space around us. FIML allows us to see in our psychological “maps” a level of detail or resolution that cannot be gained in any other way.

Understanding verbal, emotional, semiotic, and associative details is key to understanding our “psychological locations” in this world.

Networks of words, semiotics, and psychological morphemes

On this site we have claimed many times that words and semiotics are held together in networks. We have further hypothesized that “psychological morphemes” are also held together in networks.

A “psychological morpheme” is the smallest meaningful unit of a psychological response. It is the smallest unit of communication that can give rise to an emotional, psychological, or cognitive reaction.

Of course word networks, semiotic networks, and emotional, psychological, and cognitive networks all intertwine with each other.

FIML practice is designed to help partners untangle unwanted emotions from these intertwined networks. FIML practice focuses on psychological morphemes because they are small and thus rather easily understood and rather easily extirpated from real-time contexts (when partners are interacting in real life in real-time).

The hard part about FIML practice is it is done in real life in real-time. But the easy or very effective part about FIML is that once partners learn to do it, results come quickly because the practice is happening in real life in real-time. It is not just a theory when you do it in that way. It is an experience that changes how you communicate and how you understand yourself and others.

In FIML practice partners are mindful of their emotional reactions and learn that when one occurs, it is important to query their partner about it. They are mindful of psychological morphemes and as soon as one appears, but before the morpheme calls up a large network leading to a strong reaction, they query their partner about it.

This practice leads to a fairly smooth and effortless extirpation of unwanted psychological responses. This happens because the data provided by the partner that “caused” the reaction shows the partner who made the FIML query that the psychological morpheme in question arose due to a misinterpretation. Seeing this repeatedly for the same sort of neurotic reaction causes that reaction and the psychological network that comprises it to become extinguished.

A fascinating study from the University of Kansas by Michael Vitevitch shows that removing a key word from a linguistic network will cause that network to fracture and even be destroyed. An article about the study and a link to the study (pay wall) can be found here: Keywords hold vocabulary together in memory.

Vitevitch’s study involves only words and his analysis was done only with computers because, as he says, ““Fracturing the network [in real people] could actually disrupt language processing. Even though we could remove keywords from research participants’ memories through psycholinguistic tasks, we dared not because of concern that there would be long-term or even widespread effects.”

FIML is not about removing key words from linguistic networks. But it is about dismantling or removing psychological or semiotic networks that cause suffering.

Psychological or semiotic networks are networks rich in emotional meaning. When those networks harbor unwanted, inappropriate, or mistaken interpretations (and thus mistaken or unwanted emotions), they can cause serious neurotic reactions, or serious mistaken interpretations.

We believe that these mistaken interpretations and the emotions associated with them can be efficiently extirpated by revealing to their holder the “key” psychological morphemes that set them off.

The psychology of a semiotic network hinges on repeated reactions to key psychological morphemes and that this process is analogous to the key words described in Vitevitch’s study.

Vitevitch did not remove key words from actual people because it would be unethical to do so. But it is not unethical for consenting adults to help each other find and remove key psychological morphemes that are harmfully associated with the linguistic, semiotic, cognitive, and psychological networks that make up the individual.

Neural noise indicates our working memory may encode Bayesian probabilities of its contents

The uncertainty in working memory may be linked to a surprising way that the brain monitors and uses ambiguity, according to a recent paper in Neuron from neuroscience researchers at New York University. Using machine learning to analyze brain scans of people engaged in a memory task, they found that signals encoded an estimate of what people thought they saw — and the statistical distribution of the noise in the signals encoded the uncertainty of the memory. The uncertainty of your perceptions may be part of what your brain is representing in its recollections. And this sense of the uncertainties may help the brain make better decisions about how to use its memories.

…the idea that we are walking around with probability distributions in our heads all the time has a certain beauty to it. And it is probably not just vision and working memory that are structured like this, according to Pouget. “This Bayesian theory is extremely general,” he said. “There’s a general computational factor that’s at work here,” whether the brain is making a decision, assessing whether you’re hungry or navigating a route.

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