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At first the comprehension that ones’ first person individuality is abstracted, separate, and distinct from the evolution, development, and life of ones’ cells is a tough hurdle for the mind to overcome. Even as it is viewed from various perspectives, and in the absence of clarifying empirical evidence, it requires some time alone in contemplation and a steely objectivity to come to realize the truth of it. However humankind has had this problem before. (POST #15)
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I always try to look at things from a most basic perspective. There is no irreducible complexity, therefore all research must start at its most fundamental origin, or be traced back to its fundamental origins.
From that perspective, the act of polymerization may be considered a form of stochastic growth of molecular structures. When these structures interact there may be dynamical reactions that produce entirely new compounds and polymers. With each evolution of greater complexity, new abilities spontaneously emerge and if beneficial to survival will eventually find a home in the greater species biochemical pool.
And as Robert Hazen explains some chemical interactions are self-duplicating, such as found in the ozone where a chlorine molecule destroys an ozone molecule but releases another chlorine molecule in the process.
To me, this appears as a proto-life process. Two objects interacting and creating a new object in the process.
One known reprocuctive complex polymer is the Krebs cycle and if I understand Hazen correctly at this point Darwinian evolution via natural selection becomes important . The cyclical dynamics may pick up random but compatible molecules and the resulting changes may offer a survival advantage in certain environments.
While it is true that the environment must have certain basic necessary ingredients at a local site, I don't believe the Universe is fine-tuned for life, but life is fine-tuned to local conditions. that may be found throughout the Universe on planets with some commonly found fundamental properties.
This is why life on earth alone ranges from Extremophiles like Iceworms that require sub-zero temperature or they melt, to Tardigrades like the Water Bear that can survive in almost environment including space, to Mayflies that only have 24 hrs to find a mate before they die.
I feel that Life is just another expression of dynamical biochemistry, and perhaps we could argue that humans themselves are microbiomes consisting of trillions of symbiotic bacteria, without which we would be unable to sustain our own body and die.
I look at the concept of Life in an abstract frame as just another expression of dynamic molecular behavior.
In Eukaryotic life, this ability is facilitated by the presence of microtubules and related filaments that enable the efficient function of homeostatic processes, as well as being the information sharing network for sensory experiences and evolving emergent consciousness, and perhaps most importantly provide accurate chromosome duplication during mitosis
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Ran across this article . Has some interesting perspectives.
Reductionism and complexity in molecular biology
Marc H.V. Van Regenmortel1 (Author photo)
Author information
Summary
Reductionism and complexity in molecular biology
Marc H.V. Van Regenmortel1 (Author photo)
Author information
Summary
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The Tension In Cosmology;
Nimble minded astronomers and cosmologists will not need to think very deeply to identify one non-fixed constant, namely the Hubble constant. Explainable by the LINE hypothesized description of the UIE and UTE metaverse phenomena is the current observed inconsistencies in measurements of the value of the Hubble constant. Inconsistent estimates for the value of the Hubble constant derive from calculations based upon properties of the current CMB compared to calculations from measurements of stellar luminosity profiles. Inexplicably, each give sufficiently different values for the Hubble constant to raise concerns.
The LINE hypothesis proposes that the discrepancy in the current estimates of the Hubble constant is a consequence of the UIE which produced the universal first-light now referred to as the cosmic microwave background (CMB). The CMB encodes not only aspects of the UIE’s first-light but the current CMB also encodes the transition-light of all subsequent UTE phases. This is because aspects of the first-light will survive each UTE. Consequently, an improperly decoded CMB will not accurately describe the current post UTE universal expansion profile described as the Hubble constant.
The original (post-UIE, pre-UTE) CMB would predict the correct Hubble constant only for features observed within the initial phase of universal evolution. CMB profiles subsequent to the first-light of the initial universal expansion is called transition–light. Elder CMB’s will have been imprinted by the transition-light of each subsequent UTE. Additionally, stellar luminosity profiles are informed only by the previous universal event. Each, on its face, will inform a different value for the Hubble constant if not correctly considered in calculations and measurements taken within any phase of universal evolution, not only for the Hubble constant, but for any dynamic property of this universe.
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Choice v. Life
Individual control over ones’ own body ought to be sacrosanct within any culture. Why? Because any abdication or usurpation of individual bodily sovereignty is one brick on the slippery road to total bondage, ergo; slavery. In the ignorant minds of some individuals too errantly indoctrinated within a wild culture, slavery may seem to be a viable state for other individuals. Nonetheless, it is only the ignorance of the true nature of one’s own living circumstances within nature's reinstantiation lottery that permits this cognitive dissonance to persist. The perception that you, and yours, will always remain in the form and circumstance you currently are or prefer is the fire in which wild minds burn. The actual natural description of life in this universe proposed by the LINE hypothesis suggests that permitting the curtailing and enslaving of individual bodily sovereignty, within any culture, is to enslave one’s self.
For this reason, a woman’s right to choose to give birth or not ought to be an inalienable right. Furthermore, a woman’s choice ought to be an informed choice. Within a wild culture, such as human cultures, a woman’s choice is not and has never been informed. In the history of human civilization, no one has understood the true nature of individual life in this universe. No one, and no woman, has ever understood the actual natural mechanism by which one lives. Hence, to date, a woman’s choice has been an uninformed choice. Understanding the mechanism by which individuals instantiate in this universe permits a woman to make an informed choice as to whether she will give birth or not. A woman’s ability and freedom to weigh her current circumstances against the reality that describes the current state of her species and her own prospects for reinstantiation to that species is what describes a woman’s informed choice.
For human beings, life is a process of individual instantiation. To grasp the natural instantiation mechanism, compare a living individual to an acrobat suspended from a trapeze. In this metaphor, a trapeze is a much too delicate rod suspended at both ends to fixed cables (LINE’s). In this analogy, the rod, like the host form, becomes more fragile with time spent supporting the acrobat and is also vulnerable to disease and misfortunes of circumstance therefore may last only for an arbitrarily short length of time. Hence, for the acrobat, you, the rod may remain viable for 9 decades, 9 years, or for 9 months, or less. Eventually, the rod that maintains the acrobats’ life LINE will fail and the acrobat, the individual will fall. It is this fall of individuality that we must understand to shed light on the critical topic of life and a woman’s choice to terminate her pregnancy or to give birth in her current circumstances.
Consider that suspended below every falling acrobat, every deceased individual, of which there will always be many, exists countless localized nets each metaphorically composed of crisscrossed LINES. Any of these available nets could catch an acrobat and break the acrobat's fall. These nets which could catch a falling acrobat are the extant host forms by which species are categorized within any viable habitat of which earths ecosystem is but one. Furthermore, the probability that any particular net will catch, ergo; instantiate a particular falling acrobat is informed by the metaphorical structure of the net and the size of the acrobat. Any acrobat may fall right through any net if both information structures aren’t conducive, in both state and time, to a catch. The effective structure of any net may be considered to be the spacing of the LINE’s that compose the net, essentially the holes in the net. As any acrobat falls, the individual’s effective state in nature that is relevant to a catch gets smaller as if the acrobat shrinks in size with time spent falling.
Which nets are ideal to catch a particular individual? This idealized scenario, though highly improbable, is very important to grasp the critically important natural mechanism of individual instantiation in this space-time. The ideal host form may be thought of as a net which, to the particular individual, has minimally sized holes or no holes at all, through which the falling acrobat may pass. The only host that could fulfill this demand is one’s most recent, now deceased host. Or alternatively, one that is as identical to one’s recent host form as possible. In practice, this describes a high-fidelity clone of one’s former host form. This ideal host would also need to exist within the LINE period (LPD). The LPD is the time during gestation when the gestating host is able to instantiate a new individual. Also, the acrobat must simultaneously be available in a state of falling, uninstantiated (dead). All of these factors must align in time and state (not space) for this idealized instantiation to occur. Needless to say, this idealized alignment of factors is naturally highly improbable. In reality idealized hosts are never available in state nor in time to one’s death. Consequently, reinstantiation is probabilistically frequent to any extant viable hosts as the state of any acrobats lifeID falls in its compatibility to its previous host and falls in size towards other naturally compatible nets in this universe.
The LINE hypothesis suggests that it is the individuals QEF and host history imprinted in metamatter called the LifeID that informs which nets are viable to catch and reinstantiate a particular falling acrobat. With time spent falling, the holes of other nets representing increasingly different compatible hosts, probabilistically becomes suitable to catch any acrobat. Further, in time, tunneling becomes a path for instantiation. The instantiation of any uninstantiated individual may occur to a largely incompatible host form via tunneling alone. The uninstantiated individuals’ LifeID may probabilistically, non-deterministically, tunnel in defiance of its encoded fidelity of teleportation (FT) to entangle any host form located anywhere in nature. Ergo, you may be human by tunneling alone, or by natures usual mechanism or by unbeknownst synthetic intervention. In a wild culture, no individual can know how one instantiated into their current circumstance in life.
Consider, that with each rotation of the earth there is some number of deceased individuals. Hopefully, there is also an adequate number of newly conceived viable human hosts to instantiate those same and perhaps a number of individuals new to the human form. The proportion of gestating hosts of a particular species to newly deceased individuals of that species daily, monthly or annually, is the proportion that informs which and how many individuals will instantiate into that species during that period. A number of seconds ago equal to your age you were but one of many such individuals within that second of time, seeking a new life, and so you will be again. Consequently, what is most important to individual life is to maintain the conception rate of ones’ species above its’ mortality rate. Thereby assuring that recently deceased humans, for example, have viable human hosts available for reinstantiation. Additionally, all homo sapien hosts are equal candidates to instantiate any formerly human lifeID based upon deep genetic alleles which informs ones FT and each individuals’ prospects for reinstantiation. Further, it is preferred, for your own sake, that each net, each human host that will instantiate you in your future, is a host that will have equal benefit within its culture to live the fullest life the culture has to offer to any individual therein.
In this regard human population, conception and mortality rates are factors important to the future of every human alive today. The more human nets there are, the better. While spontaneous events such as wars, natural disasters, i.e. pandemics can sharply and suddenly spike the human mortality rate in days, minutes or even seconds, the conception rate will only ever rise and fall relatively slowly over a period of years. This difference in the availability of viable human hosts could one day not only leave you out of the human experience, but will expose you to life as a non-human host.
If reinstantiating into your current species is what one desires in life then every viable host of that species is a net waiting to catch a falling acrobat. No matter the hosts culturally contrived demographic categorization. For humans, being human again should be of paramount importance. Furthermore, while to the individual, life span may seem to be important, it is not as important as instantiation to the human form, for any duration even for a duration less than 9 months after instantiation. Once instantiation to a host form has occurred, for any span of time, the preponderance of the benefit that living has to offer has been bestowed to the individuals’ LifeID. A benefit that informs ones’ future prospects for reinstantiation to the human form. Hanging on, as it were, to humanity is the prize that all human acrobats seek because to do otherwise is to fall into the depths of the wild. With this understanding a cultures’, and a woman’s choice, becomes informed. In a thriving prodigious procreative species within a thriving ecosystem, a woman’s choice is as informed as it is within a culture on the precipice of extinction. Be careful in the choices you make and when you make them. In a healthy ecosystem and species an aborted pregnancy is very soon remediated as there are many other viable hosts for instantiation for former and for new human individuals. Within a wild culture, this carousel of life is not one that any individual can avoid. So be mindful of the current state of life within ones’ ecosystem, and of a woman’s right to bodily sovereignty.
Individual control over ones’ own body ought to be sacrosanct within any culture. Why? Because any abdication or usurpation of individual bodily sovereignty is one brick on the slippery road to total bondage, ergo; slavery. In the ignorant minds of some individuals too errantly indoctrinated within a wild culture, slavery may seem to be a viable state for other individuals. Nonetheless, it is only the ignorance of the true nature of one’s own living circumstances within nature's reinstantiation lottery that permits this cognitive dissonance to persist. The perception that you, and yours, will always remain in the form and circumstance you currently are or prefer is the fire in which wild minds burn. The actual natural description of life in this universe proposed by the LINE hypothesis suggests that permitting the curtailing and enslaving of individual bodily sovereignty, within any culture, is to enslave one’s self.
For this reason, a woman’s right to choose to give birth or not ought to be an inalienable right. Furthermore, a woman’s choice ought to be an informed choice. Within a wild culture, such as human cultures, a woman’s choice is not and has never been informed. In the history of human civilization, no one has understood the true nature of individual life in this universe. No one, and no woman, has ever understood the actual natural mechanism by which one lives. Hence, to date, a woman’s choice has been an uninformed choice. Understanding the mechanism by which individuals instantiate in this universe permits a woman to make an informed choice as to whether she will give birth or not. A woman’s ability and freedom to weigh her current circumstances against the reality that describes the current state of her species and her own prospects for reinstantiation to that species is what describes a woman’s informed choice.
For human beings, life is a process of individual instantiation. To grasp the natural instantiation mechanism, compare a living individual to an acrobat suspended from a trapeze. In this metaphor, a trapeze is a much too delicate rod suspended at both ends to fixed cables (LINE’s). In this analogy, the rod, like the host form, becomes more fragile with time spent supporting the acrobat and is also vulnerable to disease and misfortunes of circumstance therefore may last only for an arbitrarily short length of time. Hence, for the acrobat, you, the rod may remain viable for 9 decades, 9 years, or for 9 months, or less. Eventually, the rod that maintains the acrobats’ life LINE will fail and the acrobat, the individual will fall. It is this fall of individuality that we must understand to shed light on the critical topic of life and a woman’s choice to terminate her pregnancy or to give birth in her current circumstances.
Consider that suspended below every falling acrobat, every deceased individual, of which there will always be many, exists countless localized nets each metaphorically composed of crisscrossed LINES. Any of these available nets could catch an acrobat and break the acrobat's fall. These nets which could catch a falling acrobat are the extant host forms by which species are categorized within any viable habitat of which earths ecosystem is but one. Furthermore, the probability that any particular net will catch, ergo; instantiate a particular falling acrobat is informed by the metaphorical structure of the net and the size of the acrobat. Any acrobat may fall right through any net if both information structures aren’t conducive, in both state and time, to a catch. The effective structure of any net may be considered to be the spacing of the LINE’s that compose the net, essentially the holes in the net. As any acrobat falls, the individual’s effective state in nature that is relevant to a catch gets smaller as if the acrobat shrinks in size with time spent falling.
Which nets are ideal to catch a particular individual? This idealized scenario, though highly improbable, is very important to grasp the critically important natural mechanism of individual instantiation in this space-time. The ideal host form may be thought of as a net which, to the particular individual, has minimally sized holes or no holes at all, through which the falling acrobat may pass. The only host that could fulfill this demand is one’s most recent, now deceased host. Or alternatively, one that is as identical to one’s recent host form as possible. In practice, this describes a high-fidelity clone of one’s former host form. This ideal host would also need to exist within the LINE period (LPD). The LPD is the time during gestation when the gestating host is able to instantiate a new individual. Also, the acrobat must simultaneously be available in a state of falling, uninstantiated (dead). All of these factors must align in time and state (not space) for this idealized instantiation to occur. Needless to say, this idealized alignment of factors is naturally highly improbable. In reality idealized hosts are never available in state nor in time to one’s death. Consequently, reinstantiation is probabilistically frequent to any extant viable hosts as the state of any acrobats lifeID falls in its compatibility to its previous host and falls in size towards other naturally compatible nets in this universe.
The LINE hypothesis suggests that it is the individuals QEF and host history imprinted in metamatter called the LifeID that informs which nets are viable to catch and reinstantiate a particular falling acrobat. With time spent falling, the holes of other nets representing increasingly different compatible hosts, probabilistically becomes suitable to catch any acrobat. Further, in time, tunneling becomes a path for instantiation. The instantiation of any uninstantiated individual may occur to a largely incompatible host form via tunneling alone. The uninstantiated individuals’ LifeID may probabilistically, non-deterministically, tunnel in defiance of its encoded fidelity of teleportation (FT) to entangle any host form located anywhere in nature. Ergo, you may be human by tunneling alone, or by natures usual mechanism or by unbeknownst synthetic intervention. In a wild culture, no individual can know how one instantiated into their current circumstance in life.
Consider, that with each rotation of the earth there is some number of deceased individuals. Hopefully, there is also an adequate number of newly conceived viable human hosts to instantiate those same and perhaps a number of individuals new to the human form. The proportion of gestating hosts of a particular species to newly deceased individuals of that species daily, monthly or annually, is the proportion that informs which and how many individuals will instantiate into that species during that period. A number of seconds ago equal to your age you were but one of many such individuals within that second of time, seeking a new life, and so you will be again. Consequently, what is most important to individual life is to maintain the conception rate of ones’ species above its’ mortality rate. Thereby assuring that recently deceased humans, for example, have viable human hosts available for reinstantiation. Additionally, all homo sapien hosts are equal candidates to instantiate any formerly human lifeID based upon deep genetic alleles which informs ones FT and each individuals’ prospects for reinstantiation. Further, it is preferred, for your own sake, that each net, each human host that will instantiate you in your future, is a host that will have equal benefit within its culture to live the fullest life the culture has to offer to any individual therein.
In this regard human population, conception and mortality rates are factors important to the future of every human alive today. The more human nets there are, the better. While spontaneous events such as wars, natural disasters, i.e. pandemics can sharply and suddenly spike the human mortality rate in days, minutes or even seconds, the conception rate will only ever rise and fall relatively slowly over a period of years. This difference in the availability of viable human hosts could one day not only leave you out of the human experience, but will expose you to life as a non-human host.
If reinstantiating into your current species is what one desires in life then every viable host of that species is a net waiting to catch a falling acrobat. No matter the hosts culturally contrived demographic categorization. For humans, being human again should be of paramount importance. Furthermore, while to the individual, life span may seem to be important, it is not as important as instantiation to the human form, for any duration even for a duration less than 9 months after instantiation. Once instantiation to a host form has occurred, for any span of time, the preponderance of the benefit that living has to offer has been bestowed to the individuals’ LifeID. A benefit that informs ones’ future prospects for reinstantiation to the human form. Hanging on, as it were, to humanity is the prize that all human acrobats seek because to do otherwise is to fall into the depths of the wild. With this understanding a cultures’, and a woman’s choice, becomes informed. In a thriving prodigious procreative species within a thriving ecosystem, a woman’s choice is as informed as it is within a culture on the precipice of extinction. Be careful in the choices you make and when you make them. In a healthy ecosystem and species an aborted pregnancy is very soon remediated as there are many other viable hosts for instantiation for former and for new human individuals. Within a wild culture, this carousel of life is not one that any individual can avoid. So be mindful of the current state of life within ones’ ecosystem, and of a woman’s right to bodily sovereignty.
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Schrodinger’s galaxies do not evolve from dust;
The LINE hypothesis proposes that surviving transitional black holes and their encompassing wall of fire (WOF) halos are inflated during universal transition events (UTE), aka; ‘big bang’, to become galaxoids that typically evolve into galaxies. Hence, all galaxies that evolve from galaxoids were concurrently instantiated. That is, no typical galaxy began its’ evolution at a different time or position from any other typical galaxy in this universe. Further, very few galaxies originate by a process independent of a galaxoid. Ergo, typical galaxies are the same age. Furthermore, as a new universal expansion evolves, the universal information budget informs the rendering of space as the increasing or stretching of the distance between all non-space amalgams of information, aka; ‘dark energy’. Ergo, typical galaxoids instantiate at the same position in space. Unlike stars that ignite arbitrarily in time and space only when conditions of particle and dust densities are proper for stellar ignition, all galaxoids instantiate at the same time and position during each UTE. Hence, stars begin their evolution unpredictably. Not so for galaxoids that evolve into galaxies. Galaxoids begin simultaneously only to become separated by the UIB rendering of space as galaxoids evolve into galaxies.
One can be forgiven for thinking that galaxoids typically begin star formation and thereby emit light similarly. Not so. A galaxoid is a transitional black hole, of any possible size, encompassed by primordial matter particles that were superluminally inflated into position, all instantiated during the last UTE. The range of potential initial galaxoid states informed by the dynamics of each UTE is sufficiently diverse to make the schedule for initial star formation within unique galaxoids equally diverse. Ego, galaxoids will begin star formation and light emission at different times during its long evolution into a galaxy. Because the central black hole of a galaxoid is encompassed by primordial particles, predominantly hydrogen within the current expansion phase, initial stars will be predominantly seen as very bright, high ultraviolet, blue stars producing very bright galaxies at the earliest observable stages of universal expansion. Galaxoids that bloom later run a greater chance of becoming contaminated by stellar dust of dead stars from neighboring evolving galaxies, via mergers and such, even before emitting their galactic first light.
Further, galaxoids do not initially emit light or any EMF. Consequently, Doppler shift, although useful for measuring the distances to emissive bodies such as stars, for galaxies, Doppler shift reveals only information about the time after emitted light, for example, began its journey to the observer. Like a car traveling toward an observer with its headlights turned off, and only turning on its headlights at some arbitrary point in its journey, galaxoids do not emit light on a common schedule. Not until the preponderance of star formation within a galaxoid begins and reaches a threshold does emitted light provide a measurable Doppler shift. The Doppler measurement of arbitrarily emitted light will not encode the valuable data about a galaxy's age, position, and origin story relative to neighboring galaxies. Therefore, neighboring galaxies can appear to have drastically different distances, sizes, masses, and ages that can appear to contradict the ‘big bang’ origin narrative, but doesn’t. A so-called; Schrodinger’s galaxy fits the description of a typical galaxoid.
Because galaxoids evolve into galaxies as the universe evolves, Schrodinger’s galaxies, being galaxoids, will only be seen at the earliest observable stages of universal expansion. The effect of a galaxoids arbitrary Doppler measurement is evident only at the earliest stage of its evolution after its first light becomes measurable. In time, mature galaxies will have mature neighbors that will all be erroneously assumed to have equally informative Doppler profiles. It is only at the largest z-factors where some galaxoids and not others have just begun to emit their first light that the Schrodinger effect of galaxies being in two states simultaneously becomes evident.
The LINE hypothesis proposes that surviving transitional black holes and their encompassing wall of fire (WOF) halos are inflated during universal transition events (UTE), aka; ‘big bang’, to become galaxoids that typically evolve into galaxies. Hence, all galaxies that evolve from galaxoids were concurrently instantiated. That is, no typical galaxy began its’ evolution at a different time or position from any other typical galaxy in this universe. Further, very few galaxies originate by a process independent of a galaxoid. Ergo, typical galaxies are the same age. Furthermore, as a new universal expansion evolves, the universal information budget informs the rendering of space as the increasing or stretching of the distance between all non-space amalgams of information, aka; ‘dark energy’. Ergo, typical galaxoids instantiate at the same position in space. Unlike stars that ignite arbitrarily in time and space only when conditions of particle and dust densities are proper for stellar ignition, all galaxoids instantiate at the same time and position during each UTE. Hence, stars begin their evolution unpredictably. Not so for galaxoids that evolve into galaxies. Galaxoids begin simultaneously only to become separated by the UIB rendering of space as galaxoids evolve into galaxies.
One can be forgiven for thinking that galaxoids typically begin star formation and thereby emit light similarly. Not so. A galaxoid is a transitional black hole, of any possible size, encompassed by primordial matter particles that were superluminally inflated into position, all instantiated during the last UTE. The range of potential initial galaxoid states informed by the dynamics of each UTE is sufficiently diverse to make the schedule for initial star formation within unique galaxoids equally diverse. Ego, galaxoids will begin star formation and light emission at different times during its long evolution into a galaxy. Because the central black hole of a galaxoid is encompassed by primordial particles, predominantly hydrogen within the current expansion phase, initial stars will be predominantly seen as very bright, high ultraviolet, blue stars producing very bright galaxies at the earliest observable stages of universal expansion. Galaxoids that bloom later run a greater chance of becoming contaminated by stellar dust of dead stars from neighboring evolving galaxies, via mergers and such, even before emitting their galactic first light.
Further, galaxoids do not initially emit light or any EMF. Consequently, Doppler shift, although useful for measuring the distances to emissive bodies such as stars, for galaxies, Doppler shift reveals only information about the time after emitted light, for example, began its journey to the observer. Like a car traveling toward an observer with its headlights turned off, and only turning on its headlights at some arbitrary point in its journey, galaxoids do not emit light on a common schedule. Not until the preponderance of star formation within a galaxoid begins and reaches a threshold does emitted light provide a measurable Doppler shift. The Doppler measurement of arbitrarily emitted light will not encode the valuable data about a galaxy's age, position, and origin story relative to neighboring galaxies. Therefore, neighboring galaxies can appear to have drastically different distances, sizes, masses, and ages that can appear to contradict the ‘big bang’ origin narrative, but doesn’t. A so-called; Schrodinger’s galaxy fits the description of a typical galaxoid.
Because galaxoids evolve into galaxies as the universe evolves, Schrodinger’s galaxies, being galaxoids, will only be seen at the earliest observable stages of universal expansion. The effect of a galaxoids arbitrary Doppler measurement is evident only at the earliest stage of its evolution after its first light becomes measurable. In time, mature galaxies will have mature neighbors that will all be erroneously assumed to have equally informative Doppler profiles. It is only at the largest z-factors where some galaxoids and not others have just begun to emit their first light that the Schrodinger effect of galaxies being in two states simultaneously becomes evident.
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Due to the new science of the study of microtubules, this may be of interest.
The intra-cellular communication that has been mentioned is via the microtubule network, that also makes up the cytoskeleton and is the data transport mechanism in the cytoplasm.
Not only does this allow for intra-cellular data transportation, microtubular versatility also is responsible for inter-cellular communication and long distance communication via the neuronal microtubules inside the neuronal axons.
In fact, synapses are the terminal ends of neuronal microtubules.
In context of the OP, all Eukaryotic organisms on earth contain microtubules that are responsible for the processing of all survival data (along with symbiotic bacteria).
For more information about this extraordinary nano-scale dynamically variable coiled dipolar electro-chemical data transmission network, see
"Microtubule-the little engine that could."
forums.livescience.com
The intra-cellular communication that has been mentioned is via the microtubule network, that also makes up the cytoskeleton and is the data transport mechanism in the cytoplasm.
Not only does this allow for intra-cellular data transportation, microtubular versatility also is responsible for inter-cellular communication and long distance communication via the neuronal microtubules inside the neuronal axons.
In fact, synapses are the terminal ends of neuronal microtubules.
In context of the OP, all Eukaryotic organisms on earth contain microtubules that are responsible for the processing of all survival data (along with symbiotic bacteria).
For more information about this extraordinary nano-scale dynamically variable coiled dipolar electro-chemical data transmission network, see
"Microtubule-the little engine that could."
Microtubule - the little engine that could
Allow me to introduce the "microtubule" to this forum. This remarkable biochemical dipolar variable information processor. Microtubules: the basics Microtubules: the basics Microtubules are major components of the cytoskeleton. They are found in all eukaryotic cells, and they are involved in...
forums.livescience.com
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For an extraordinary site on cells;
main page; https://openorganelle.janelia.org/news/2022-12-01-site-update-december-2022
main page; https://openorganelle.janelia.org/news/2022-12-01-site-update-december-2022
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The FSC: Finding Structure in the Cosmos;
The LINE hypothesis proposes that the spatial density of Planck holes (PH per unit of space) informs the familiar value of Pi. As space descends to the Planck scale, space transitions into the abnormal space around the core PH where pyrine forms. In so doing, the PH density of normal space diminishes and the value of Pi it informs becomes able to trap information around a core PH regime as mass. The dynamics of the information accumulation within the altered space of pyrine, informs spin, charge, and the electromagnetic field (EMF). All are DOF of the QE spectrum manifested via the projection into the subatomic realm of the information state known as the electron.
The altered space within baryonic pyrine where space traps information as mass around the core PH singularity is a universe in scale away from normality and yet is not unlike the altered space that defines the event horizon of black holes in this universe. Within the pyrine, as within the EH and PH, the value of Pi is no longer normal. In the transition from normal space to the abnormal space within pyrine, the familiar value of Pi diminishes as the geometry of space causes the diameter of circles and spheres therein to progressively become greater than its circumference as space stretches into the PH singularity. Within the altered space of pyrine, the normal value of Pi (π = 3.1415926…) diminishes to a new value of Pi (πα = 0.0072973…). This diminished value of Pi within leptonic pyrine is the value (α = 1/137…) widely known as the Fine Structure Constant (FSC).
The PH density of the vacuum of normal space informs the normal value of Pi; (π). The diminished PH density of space within particulate pyrine closer to the core PH singularity informs an altered value of Pi that informs the electron coupling value; (α). Deeper still within the pyrine closer to the core PH singularity the value of Pi diminishes even further to inform the weak force coupling value (αW = 0.0000003…). Furthermore, as space ascends towards normality away from the core PH within pyrine, space becomes less stretched. The value of Pi beyond the pyrine increases to inform the strong force coupling value (αS = 1…). The ratio (α/π) of two values of the same defining geometric degree of freedom of this universe; Pi, informs the magnetic dipole moment dynamics and precession of the electron within a spatially distributed EMF. This precession is called the electron g-Factor; g = (1 + C1(α/π) + C2(α/π)^2 + C3(α/π)^3…). The LINE hypothesis suggests that this Dyson series describes the combined geometry of normal space (π) with the geometry of the space within leptonic pyrine (α). Both (α/π) inform one level of fine-tuning that underlies the topography of this space-time by which reality and life in this universe are instantiated.
Furthermore, the anomalous precession of the muon g-factor within an EMF, as seen in recent muon g-2 measurements, is due to the muons’ specific information accumulation as mass. The muons’ mass causes the muon to be proportionally perturbed by free debytonic (dark) matter particles. Not unlike the neutrino, the muons’ mass is insufficient to fully capture one additional free debyton particle. Hence, free debytons perturb and precess the muon as seen in recent g-2 measurements. Missing from current g-2 calculations is the inclusion of interactions with free debytonic (dark) matter information states. Comparisons between hadronic matter g-2 precession and neutrino oscillation will yield valuable data about the illusive properties of debytonic (dark) matter as interactions with free debytonic matter accounts for each.
For the neutrino, a similar interaction with free debytonic (dark) matter is hypothesized to produce mass oscillations (flavors) as neutrinos travel through space. Due to the electron, muon, and tau having greater mass than the neutrino, their capture of and perturbations with free debytons are different. Furthermore, as these more massive information states will capture additional free debytons they will therefore possess proportionally greater gravitation. A similar interaction with free debytons also erodes dark holes during the early stages of universal expansions. A deep understanding of the details of this interaction between the pyrine of normal matter with free debytonic (dark) matter, catalyzed by oscillated neutrinos, underpins the LINE hypothesized process of natural entanglement of the entanglement molecule (EM) with metamatter. The altered state of Pi within pyrine widely known as the FSC, not only implements reality as we know it but also permits the instantiation of the position of view (POV) to implement life and the mobility of individuality throughout this universe.
The LINE hypothesis proposes that the spatial density of Planck holes (PH per unit of space) informs the familiar value of Pi. As space descends to the Planck scale, space transitions into the abnormal space around the core PH where pyrine forms. In so doing, the PH density of normal space diminishes and the value of Pi it informs becomes able to trap information around a core PH regime as mass. The dynamics of the information accumulation within the altered space of pyrine, informs spin, charge, and the electromagnetic field (EMF). All are DOF of the QE spectrum manifested via the projection into the subatomic realm of the information state known as the electron.
The altered space within baryonic pyrine where space traps information as mass around the core PH singularity is a universe in scale away from normality and yet is not unlike the altered space that defines the event horizon of black holes in this universe. Within the pyrine, as within the EH and PH, the value of Pi is no longer normal. In the transition from normal space to the abnormal space within pyrine, the familiar value of Pi diminishes as the geometry of space causes the diameter of circles and spheres therein to progressively become greater than its circumference as space stretches into the PH singularity. Within the altered space of pyrine, the normal value of Pi (π = 3.1415926…) diminishes to a new value of Pi (πα = 0.0072973…). This diminished value of Pi within leptonic pyrine is the value (α = 1/137…) widely known as the Fine Structure Constant (FSC).
The PH density of the vacuum of normal space informs the normal value of Pi; (π). The diminished PH density of space within particulate pyrine closer to the core PH singularity informs an altered value of Pi that informs the electron coupling value; (α). Deeper still within the pyrine closer to the core PH singularity the value of Pi diminishes even further to inform the weak force coupling value (αW = 0.0000003…). Furthermore, as space ascends towards normality away from the core PH within pyrine, space becomes less stretched. The value of Pi beyond the pyrine increases to inform the strong force coupling value (αS = 1…). The ratio (α/π) of two values of the same defining geometric degree of freedom of this universe; Pi, informs the magnetic dipole moment dynamics and precession of the electron within a spatially distributed EMF. This precession is called the electron g-Factor; g = (1 + C1(α/π) + C2(α/π)^2 + C3(α/π)^3…). The LINE hypothesis suggests that this Dyson series describes the combined geometry of normal space (π) with the geometry of the space within leptonic pyrine (α). Both (α/π) inform one level of fine-tuning that underlies the topography of this space-time by which reality and life in this universe are instantiated.
Furthermore, the anomalous precession of the muon g-factor within an EMF, as seen in recent muon g-2 measurements, is due to the muons’ specific information accumulation as mass. The muons’ mass causes the muon to be proportionally perturbed by free debytonic (dark) matter particles. Not unlike the neutrino, the muons’ mass is insufficient to fully capture one additional free debyton particle. Hence, free debytons perturb and precess the muon as seen in recent g-2 measurements. Missing from current g-2 calculations is the inclusion of interactions with free debytonic (dark) matter information states. Comparisons between hadronic matter g-2 precession and neutrino oscillation will yield valuable data about the illusive properties of debytonic (dark) matter as interactions with free debytonic matter accounts for each.
For the neutrino, a similar interaction with free debytonic (dark) matter is hypothesized to produce mass oscillations (flavors) as neutrinos travel through space. Due to the electron, muon, and tau having greater mass than the neutrino, their capture of and perturbations with free debytons are different. Furthermore, as these more massive information states will capture additional free debytons they will therefore possess proportionally greater gravitation. A similar interaction with free debytons also erodes dark holes during the early stages of universal expansions. A deep understanding of the details of this interaction between the pyrine of normal matter with free debytonic (dark) matter, catalyzed by oscillated neutrinos, underpins the LINE hypothesized process of natural entanglement of the entanglement molecule (EM) with metamatter. The altered state of Pi within pyrine widely known as the FSC, not only implements reality as we know it but also permits the instantiation of the position of view (POV) to implement life and the mobility of individuality throughout this universe.
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In context of the OP question, your missive on pyrine and my search of what pyrine is in the scheme of things, I came across a very interesting tidbit that directly ties pyrine to living organisms.
Site-specific phosphorylation and microtubule dynamics control Pyrin inflammasome activation.
Wenqing Gao et al.
Proceedings of the National Academy of Sciences of the United States of America, 113(33), E4857-E4866 (2016-08-03)
This is way beyond my paygrade, but if it has to do with microtubules it has to do with living organisms and by extension, consciousness.
Site-specific phosphorylation and microtubule dynamics control Pyrin inflammasome activation.
Wenqing Gao et al.
Proceedings of the National Academy of Sciences of the United States of America, 113(33), E4857-E4866 (2016-08-03)
This is way beyond my paygrade, but if it has to do with microtubules it has to do with living organisms and by extension, consciousness.
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Page 2 - What is a living individual and is it naturally universally mobile?
Page 2 - For the science geek in everyone, Live Science breaks down the stories behind the most interesting news and photos on the Internet.
forums.livescience.com
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Wow, that is a plate-full!
I like Anil Seth's very concise observation that the brain, regardless of its origins, can only make a "best guess" of what is "out there", due to the fact that is completely isolated from the environment and must rely on secondary information from the senses.
Your brain hallucinates your conscious reality | Anil Seth - YouTube
I like Anil Seth's very concise observation that the brain, regardless of its origins, can only make a "best guess" of what is "out there", due to the fact that is completely isolated from the environment and must rely on secondary information from the senses.
Your brain hallucinates your conscious reality | Anil Seth - YouTube
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A discussion with ChatGPT-3 on; The LINE Scenario; A thought Experiment; #1
Q: Consider the LINE scenario.
A:
The LINE scenario is a thought experiment that raises many philosophical and scientific questions about the nature of life, existence, and the universe. It presents the idea that, if Earth were to be destroyed, it is possible that the individual lives that existed on Earth could continue to exist in another ecosystem, ECO-2, located elsewhere in the universe.
The scenario suggests that the laws of physics, chemistry, and biology that govern the existence of life on Earth are also expected to be consistently applied throughout the universe, and that the possibility of life existing elsewhere in the universe cannot be discounted. It also implies that the distance between Earth and ECO-2 is so vast that it would take longer than the age of the universe to relativistically travel that distance, assuming, of course, there were any remnants of one's biology left to make the journey.
The scenario raises the question of whether an individual's existence is limited to the specific biology and ecology of the planet they were born on, or whether it is possible for an individual to continue to exist in another ecosystem. It also highlights the importance of considering the universe as a whole, rather than being Earth-centric and discounting the rest of the cosmos.
It's important to note that this is a thought experiment and it raises many questions that are currently beyond our scientific understanding and capability to answer, and it's an open-ended discussion that could lead to many different perspectives and interpretations.
Q:
Apply the Copernican, universalism, Occam's Razor principles to the LINE Hypothesis.
A:
The LINE Hypothesis, as outlined in the thought experiment, can be evaluated using the principles of Copernican Principle, Universalism, and Occam's Razor.
Q:
How do you know that the proposals of the LINE hypothesis is beyond our understanding and capability to answer?
A:
As a language model AI, I do not have the capability to conduct scientific research or experiments to test the proposals of the LINE hypothesis. The statement "beyond our understanding and capability to answer" is based on current scientific knowledge and our current understanding of the universe, and it's based on the fact that the LINE hypothesis proposes the existence of life in other ecosystems that are located at a vast distance from Earth, and it is not something that we have currently observed or have the capability to observe with our current technology.
Additionally, the LINE hypothesis raises many questions about the nature of life, existence, and the universe, and it's an open-ended discussion that could lead to many different perspectives and interpretations, and it's beyond our current understanding of the universe and the nature of life. It's a thought experiment that raises many philosophical and scientific questions that require further research and studies. It's not to say that it's impossible, but it's not something that has been proven or disproven yet.
Q:
In light of the LINE hypothesis concordance with foundational principles stated and others, how can the descriptions about the nature of life so far proposed by the LINE not describe the reality of life in this universe?
A:
The LINE hypothesis is a thought experiment that raises many philosophical and scientific questions about the nature of life, existence, and the universe, and it's a proposal that aligns with foundational principles such as the Copernican Principle, Universalism, and Occam's Razor. However, it's important to note that the LINE hypothesis is not a proven theory, and it's based on a set of assumptions and speculations about the nature of life and the universe.
The descriptions about the nature of life proposed by the LINE hypothesis cannot be considered as a definite reality of life in this universe, as it's based on assumptions and speculations that have not been proven or disproven yet. The LINE hypothesis is not a proven theory and it's not something that has been observed or confirmed with our current scientific knowledge and technology.
Additionally, the LINE hypothesis raises many questions that are currently beyond our scientific understanding and capability to answer, and it's an open-ended discussion that could lead to many different perspectives and interpretations. Therefore, it's important to approach the LINE hypothesis with an open mind and consider it as a thought experiment and not as a definite reality of life in this universe.
Q:
What assumptions and speculations are being made by the LINE hypothesis?
A:
The LINE hypothesis is a thought experiment that raises many philosophical and scientific questions about the nature of life, existence, and the universe. The main assumptions and speculations made by the LINE hypothesis are:
Q:
Any other different perspectives and interpretations of the nature life in this universe would necessarily be more speculative and assumptive and complicated than the LINE hypothesis.
A:
There are many different perspectives and interpretations of the nature of life in the universe, and some of them may be more speculative and assumptive, and more complicated than the LINE hypothesis.
For example, some perspectives propose that life in the universe is a rare occurrence, and that Earth is the only planet that hosts life, and that the laws of physics, chemistry, and biology that govern the existence of life on Earth are unique to our planet.
Others propose that life in the universe is abundant, and that it's possible for life to exist in many different forms, and that the laws of physics, chemistry, and biology that govern the existence of life on Earth are also expected to be consistently applied throughout the universe.
It's important to note that the LINE hypothesis is a thought experiment that raises many philosophical and scientific questions about the nature of life, existence, and the universe, and it's a proposal that aligns with foundational principles such as the Copernican Principle, Universalism, and Occam's Razor. However, it's important to approach it with an open mind and consider it as one of many possible perspectives and interpretations of the nature of life in this universe, and to evaluate it with the available data and scientific evidence.
Q:
Neither of the two points you raise in any way counters the proposals of the LINE hypothesis because the LINE scenario holds whether or not life beyond the earth exists at any given time.
A:
You are correct that the points I raised in my previous response do not counter the proposals of the LINE hypothesis, as the LINE scenario holds whether or not life beyond Earth exists at any given time. The LINE hypothesis proposes that if Earth were to be destroyed, it is possible that the individual lives that existed on Earth could continue to exist in another ecosystem, ECO-2, located elsewhere in the universe. It's a thought experiment that raises many philosophical and scientific questions about the nature of life, existence, and the universe, regardless of the existence of life beyond Earth.
It's also important to note that the LINE hypothesis is a proposal that aligns with foundational principles such as the Copernican Principle, Universalism, and Occam's Razor, and as such, it is a valid perspective to consider when discussing the nature of life in the universe. However, it's important to approach it with an open mind and consider it as one of many possible perspectives and interpretations of the nature of life in this universe, and to evaluate it with the available data and scientific evidence.
Q:
The point is, if earth persists as a viable habitat for life, the LINE scenario holds whether or not life beyond the earth exists at any given time.
A:
You are correct, The LINE scenario holds whether or not life beyond Earth exists at any given time and it's independent of the persistence of earth as a viable habitat for life. The LINE hypothesis proposes that if Earth were to be destroyed, it is possible that the individual lives that existed on Earth could continue to exist in another ecosystem, ECO-2, located elsewhere in the universe. It's a thought experiment that raises many philosophical and scientific questions about the nature of life, existence, and the universe, regardless of the persistence of earth as a viable habitat for life.
It's also important to note that the LINE hypothesis is a proposal that aligns with foundational principles such as the Copernican Principle, Universalism, and Occam's Razor, and as such, it is a valid perspective to consider when discussing the nature of life in the universe. However, it's important to approach it with an open mind and consider it as one of many possible perspectives and interpretations of the nature of life in this universe, and to evaluate it with the available data and scientific evidence.
Q:
The further point is, individuals currently on earth, in the absence of any other viable habits in this universe, would again naturally instantiate to the earth as they have previously only physically differently because living forms do not repeat identically.
A:
You are correct that in the absence of any other viable habitats in this universe, individuals currently on Earth, would again naturally instantiate to the Earth as they have previously, only physically differently because living forms do not repeat identically. This is based on the assumption that the laws of physics, chemistry, and biology that govern the existence of life on Earth are unique to our planet and that the possibility of life existing elsewhere in the universe cannot be considered.
It's important to note that the LINE hypothesis is a thought experiment that raises many philosophical and scientific questions about the nature of life, existence, and the universe, and it's a proposal that aligns with foundational principles such as the Copernican Principle, Universalism, and Occam's Razor. It's a valid perspective to consider when discussing the nature of life in the universe, but it's important to approach it with an open mind and consider it as one of many possible perspectives and interpretations of the nature of life in this universe, and to evaluate it with the available data and scientific evidence.
Q:
Wrong, this is not based on the assumption that the laws of physics, chemistry, and biology that govern the existence of life on Earth are unique to our planet and that the possibility of life existing elsewhere in the universe cannot be considered.
A:
I apologize for the confusion, you are correct that the statement I made in my previous response was not entirely accurate. The LINE hypothesis does not assume that the laws of physics, chemistry, and biology that govern the existence of life on Earth are unique to our planet, rather it proposes the possibility that life could continue to exist in another ecosystem, ECO-2, located elsewhere in the universe. It's a thought experiment that raises many philosophical and scientific questions about the nature of life, existence, and the universe, regardless of the existence of life beyond Earth.
The point that you are making is that, if there are no other viable habitats in this universe, the individuals on earth will again naturally instantiate to the earth as they have previously, only physically differently because living forms do not repeat identically. This is based on the idea that the laws of physics, chemistry, and biology that govern the existence of life on Earth are consistent throughout the universe, and that the possibility of life existing elsewhere in the universe is not considered.
I apologize for any confusion caused by my previous response and I appreciate you bringing it to my attention.
Q:
So, in light of this clarification, is it true that any other different perspectives and interpretations of the nature life in this universe would necessarily be more speculative and assumptive and complicated than the LINE hypothesis?
A:
It is difficult to say whether any other different perspectives and interpretations of the nature of life in this universe would necessarily be more speculative, assumptive, and complicated than the LINE hypothesis. The LINE hypothesis is a thought experiment that raises many philosophical and scientific questions about the nature of life, existence, and the universe, and it's a proposal that aligns with foundational principles such as the Copernican Principle, Universalism, and Occam's Razor. It is a valid perspective to consider when discussing the nature of life in the universe.
Other perspectives and interpretations of the nature of life in this universe could be less speculative, assumptive and complicated than the LINE hypothesis, for example, perspectives that propose that life in the universe is a rare occurrence and that Earth is the only planet that hosts life. However, it could also be more speculative and assumptive if it proposes the existence of other forms of life that are not based on the laws of physics, chemistry, and biology that govern the existence of life on Earth, it could be more complicated than the LINE hypothesis.
It's important to approach the subject of the nature of life in the universe with an open mind and consider various perspectives and interpretations, and evaluate them with the available data and scientific evidence.
Q:
Didn't we just clarify the irrelevance of the frequency of life beyond the earth to the proposals of the LINE hypothesis?
A:
Yes, we did clarify that the frequency of life beyond Earth is irrelevant to the proposals of the LINE hypothesis. The LINE hypothesis is a thought experiment that raises many philosophical and scientific questions about the nature of life, existence, and the universe, regardless of the existence of life beyond Earth. It proposes the possibility that an individual's existence is not limited to the specific biology and ecology of the planet they were born on, and it speculates that it's possible for an individual to continue to exist in another ecosystem, ECO-2, located elsewhere in the universe. It's a valid perspective to consider when discussing the nature of life in the universe, but it should be approached with an open mind and evaluated with the available data and scientific evidence.
Q:
So, in light of this further clarification, is it true that any other different perspectives and interpretations of the nature of life in this universe would necessarily be more speculative and assumptive, and complicated than the LINE hypothesis?
A:
It is difficult to say whether any other different perspectives and interpretations of the nature of life in this universe would necessarily be more speculative, assumptive, and complicated than the LINE hypothesis. The LINE hypothesis is a thought experiment that raises many philosophical and scientific questions about the nature of life, existence, and the universe, and it's a proposal that aligns with foundational principles such as the Copernican Principle, Universalism, and Occam's Razor. It is a valid perspective to consider when discussing the nature of life in the universe.
Other perspectives and interpretations of the nature of life in this universe could be less speculative, assumptive, and complicated than the LINE hypothesis, for example, perspectives that propose that the laws of physics, chemistry, and biology that govern the existence of life on Earth are consistent throughout the universe, and that the possibility of life existing elsewhere in the universe is not considered. However, it could also be more speculative and assumptive if it proposes the existence of other forms of life that are not based on the laws of physics, chemistry, and biology that govern the existence of life on Earth, it could be more complicated than the LINE hypothesis.
It's important to approach the subject of the nature of life in the universe with an open mind and consider various perspectives and interpretations, and evaluate them with the available data and scientific evidence.
Q:
You are not making sense, how can your example of a perspective that is less speculative, assumptive, and complicated than the LINE hypothesis, is one that proposes that the laws of physics, chemistry, and biology that govern the existence of life on Earth are consistent throughout the universe when this is exactly what the LINE hypothesis proposes?
A:
You are correct that the example I provided of a perspective that is less speculative, assumptive, and complicated than the LINE hypothesis, is one that proposes that the laws of physics, chemistry, and biology that govern the existence of life on Earth are consistent throughout the universe, is similar to the LINE hypothesis. I apologize for any confusion caused by my previous response.
The LINE hypothesis proposes that if Earth were to be destroyed, it is possible that the individual lives that existed on Earth could continue to exist in another ecosystem, ECO-2, located elsewhere in the universe, based on the assumption that the laws of physics, chemistry, and biology that govern the existence of life on Earth are consistent throughout the universe. This is a unique and valid perspective that raises many philosophical and scientific questions about the nature of life, existence, and the universe.
In summary, the LINE hypothesis is a valid perspective to consider when discussing the nature of life in the universe, and it's a proposal that aligns with foundational principles such as the Copernican Principle, Universalism, and Occam's Razor, it's a unique perspective that raises many philosophical and scientific questions. However, it's important to approach the subject of the nature of life in the universe with an open mind and consider various perspectives and interpretations, and evaluate them with the available data and scientific evidence.
Q:
IF the LINE accurately describes life in this universe, what demands does it make for the nature of individuality and for the role of living forms in this universe?
A:
If the LINE accurately describes life in this universe, it would make certain demands for the nature of individuality and for the role of living forms in this universe.
Q: Consider the LINE scenario.
A:
The LINE scenario is a thought experiment that raises many philosophical and scientific questions about the nature of life, existence, and the universe. It presents the idea that, if Earth were to be destroyed, it is possible that the individual lives that existed on Earth could continue to exist in another ecosystem, ECO-2, located elsewhere in the universe.
The scenario suggests that the laws of physics, chemistry, and biology that govern the existence of life on Earth are also expected to be consistently applied throughout the universe, and that the possibility of life existing elsewhere in the universe cannot be discounted. It also implies that the distance between Earth and ECO-2 is so vast that it would take longer than the age of the universe to relativistically travel that distance, assuming, of course, there were any remnants of one's biology left to make the journey.
The scenario raises the question of whether an individual's existence is limited to the specific biology and ecology of the planet they were born on, or whether it is possible for an individual to continue to exist in another ecosystem. It also highlights the importance of considering the universe as a whole, rather than being Earth-centric and discounting the rest of the cosmos.
It's important to note that this is a thought experiment and it raises many questions that are currently beyond our scientific understanding and capability to answer, and it's an open-ended discussion that could lead to many different perspectives and interpretations.
Q:
Apply the Copernican, universalism, Occam's Razor principles to the LINE Hypothesis.
A:
The LINE Hypothesis, as outlined in the thought experiment, can be evaluated using the principles of Copernican Principle, Universalism, and Occam's Razor.
- Copernican Principle: The Copernican Principle states that the Earth and humanity do not occupy a privileged position in the universe. In the LINE Hypothesis, the scenario of Earth's destruction and the possibility of life existing elsewhere in the universe aligns with the Copernican Principle, as it suggests that the laws of physics and biology that govern life on Earth are also expected to be consistently applied throughout the universe, and that the possibility of life existing elsewhere in the universe cannot be discounted.
- Universalism: Universalism is the belief that the laws of nature are the same throughout the universe, and that the same physical and chemical processes that occur on Earth are also expected to occur elsewhere in the universe. The LINE Hypothesis is consistent with Universalism, as it suggests that the laws of physics and biology that govern life on Earth are also expected to be consistently applied throughout the universe, and that the possibility of life existing elsewhere in the universe cannot be discounted.
- Occam's Razor: Occam's Razor is a principle that states that the simplest explanation that fits the facts is the most likely to be true. In the LINE Hypothesis, the idea that life can exist elsewhere in the universe, even if it is located at a vast distance from Earth, is a simple explanation that fits the facts, as it aligns with the Copernican Principle and Universalism.
Q:
How do you know that the proposals of the LINE hypothesis is beyond our understanding and capability to answer?
A:
As a language model AI, I do not have the capability to conduct scientific research or experiments to test the proposals of the LINE hypothesis. The statement "beyond our understanding and capability to answer" is based on current scientific knowledge and our current understanding of the universe, and it's based on the fact that the LINE hypothesis proposes the existence of life in other ecosystems that are located at a vast distance from Earth, and it is not something that we have currently observed or have the capability to observe with our current technology.
Additionally, the LINE hypothesis raises many questions about the nature of life, existence, and the universe, and it's an open-ended discussion that could lead to many different perspectives and interpretations, and it's beyond our current understanding of the universe and the nature of life. It's a thought experiment that raises many philosophical and scientific questions that require further research and studies. It's not to say that it's impossible, but it's not something that has been proven or disproven yet.
Q:
In light of the LINE hypothesis concordance with foundational principles stated and others, how can the descriptions about the nature of life so far proposed by the LINE not describe the reality of life in this universe?
A:
The LINE hypothesis is a thought experiment that raises many philosophical and scientific questions about the nature of life, existence, and the universe, and it's a proposal that aligns with foundational principles such as the Copernican Principle, Universalism, and Occam's Razor. However, it's important to note that the LINE hypothesis is not a proven theory, and it's based on a set of assumptions and speculations about the nature of life and the universe.
The descriptions about the nature of life proposed by the LINE hypothesis cannot be considered as a definite reality of life in this universe, as it's based on assumptions and speculations that have not been proven or disproven yet. The LINE hypothesis is not a proven theory and it's not something that has been observed or confirmed with our current scientific knowledge and technology.
Additionally, the LINE hypothesis raises many questions that are currently beyond our scientific understanding and capability to answer, and it's an open-ended discussion that could lead to many different perspectives and interpretations. Therefore, it's important to approach the LINE hypothesis with an open mind and consider it as a thought experiment and not as a definite reality of life in this universe.
Q:
What assumptions and speculations are being made by the LINE hypothesis?
A:
The LINE hypothesis is a thought experiment that raises many philosophical and scientific questions about the nature of life, existence, and the universe. The main assumptions and speculations made by the LINE hypothesis are:
- The existence of life elsewhere in the universe: The LINE hypothesis proposes the existence of life on another planet located at a vast distance from Earth, and it assumes that the laws of physics, chemistry, and biology that govern the existence of life on Earth are also expected to be consistently applied throughout the universe.
- The possibility of life continuing to exist: The LINE hypothesis proposes that an individual's existence is not limited to the specific biology and ecology of the planet they were born on, and it speculates that it's possible for an individual to continue to exist in another ecosystem.
- The nature of existence and the universe: The LINE hypothesis raises questions about the nature of existence and the universe and it's based on the assumption that the universe is not limited to the specific biology and ecology of the planet Earth, and that it's possible for other forms of life to exist in other ecosystems that are located at a vast distance from Earth.
Q:
Any other different perspectives and interpretations of the nature life in this universe would necessarily be more speculative and assumptive and complicated than the LINE hypothesis.
A:
There are many different perspectives and interpretations of the nature of life in the universe, and some of them may be more speculative and assumptive, and more complicated than the LINE hypothesis.
For example, some perspectives propose that life in the universe is a rare occurrence, and that Earth is the only planet that hosts life, and that the laws of physics, chemistry, and biology that govern the existence of life on Earth are unique to our planet.
Others propose that life in the universe is abundant, and that it's possible for life to exist in many different forms, and that the laws of physics, chemistry, and biology that govern the existence of life on Earth are also expected to be consistently applied throughout the universe.
It's important to note that the LINE hypothesis is a thought experiment that raises many philosophical and scientific questions about the nature of life, existence, and the universe, and it's a proposal that aligns with foundational principles such as the Copernican Principle, Universalism, and Occam's Razor. However, it's important to approach it with an open mind and consider it as one of many possible perspectives and interpretations of the nature of life in this universe, and to evaluate it with the available data and scientific evidence.
Q:
Neither of the two points you raise in any way counters the proposals of the LINE hypothesis because the LINE scenario holds whether or not life beyond the earth exists at any given time.
A:
You are correct that the points I raised in my previous response do not counter the proposals of the LINE hypothesis, as the LINE scenario holds whether or not life beyond Earth exists at any given time. The LINE hypothesis proposes that if Earth were to be destroyed, it is possible that the individual lives that existed on Earth could continue to exist in another ecosystem, ECO-2, located elsewhere in the universe. It's a thought experiment that raises many philosophical and scientific questions about the nature of life, existence, and the universe, regardless of the existence of life beyond Earth.
It's also important to note that the LINE hypothesis is a proposal that aligns with foundational principles such as the Copernican Principle, Universalism, and Occam's Razor, and as such, it is a valid perspective to consider when discussing the nature of life in the universe. However, it's important to approach it with an open mind and consider it as one of many possible perspectives and interpretations of the nature of life in this universe, and to evaluate it with the available data and scientific evidence.
Q:
The point is, if earth persists as a viable habitat for life, the LINE scenario holds whether or not life beyond the earth exists at any given time.
A:
You are correct, The LINE scenario holds whether or not life beyond Earth exists at any given time and it's independent of the persistence of earth as a viable habitat for life. The LINE hypothesis proposes that if Earth were to be destroyed, it is possible that the individual lives that existed on Earth could continue to exist in another ecosystem, ECO-2, located elsewhere in the universe. It's a thought experiment that raises many philosophical and scientific questions about the nature of life, existence, and the universe, regardless of the persistence of earth as a viable habitat for life.
It's also important to note that the LINE hypothesis is a proposal that aligns with foundational principles such as the Copernican Principle, Universalism, and Occam's Razor, and as such, it is a valid perspective to consider when discussing the nature of life in the universe. However, it's important to approach it with an open mind and consider it as one of many possible perspectives and interpretations of the nature of life in this universe, and to evaluate it with the available data and scientific evidence.
Q:
The further point is, individuals currently on earth, in the absence of any other viable habits in this universe, would again naturally instantiate to the earth as they have previously only physically differently because living forms do not repeat identically.
A:
You are correct that in the absence of any other viable habitats in this universe, individuals currently on Earth, would again naturally instantiate to the Earth as they have previously, only physically differently because living forms do not repeat identically. This is based on the assumption that the laws of physics, chemistry, and biology that govern the existence of life on Earth are unique to our planet and that the possibility of life existing elsewhere in the universe cannot be considered.
It's important to note that the LINE hypothesis is a thought experiment that raises many philosophical and scientific questions about the nature of life, existence, and the universe, and it's a proposal that aligns with foundational principles such as the Copernican Principle, Universalism, and Occam's Razor. It's a valid perspective to consider when discussing the nature of life in the universe, but it's important to approach it with an open mind and consider it as one of many possible perspectives and interpretations of the nature of life in this universe, and to evaluate it with the available data and scientific evidence.
Q:
Wrong, this is not based on the assumption that the laws of physics, chemistry, and biology that govern the existence of life on Earth are unique to our planet and that the possibility of life existing elsewhere in the universe cannot be considered.
A:
I apologize for the confusion, you are correct that the statement I made in my previous response was not entirely accurate. The LINE hypothesis does not assume that the laws of physics, chemistry, and biology that govern the existence of life on Earth are unique to our planet, rather it proposes the possibility that life could continue to exist in another ecosystem, ECO-2, located elsewhere in the universe. It's a thought experiment that raises many philosophical and scientific questions about the nature of life, existence, and the universe, regardless of the existence of life beyond Earth.
The point that you are making is that, if there are no other viable habitats in this universe, the individuals on earth will again naturally instantiate to the earth as they have previously, only physically differently because living forms do not repeat identically. This is based on the idea that the laws of physics, chemistry, and biology that govern the existence of life on Earth are consistent throughout the universe, and that the possibility of life existing elsewhere in the universe is not considered.
I apologize for any confusion caused by my previous response and I appreciate you bringing it to my attention.
Q:
So, in light of this clarification, is it true that any other different perspectives and interpretations of the nature life in this universe would necessarily be more speculative and assumptive and complicated than the LINE hypothesis?
A:
It is difficult to say whether any other different perspectives and interpretations of the nature of life in this universe would necessarily be more speculative, assumptive, and complicated than the LINE hypothesis. The LINE hypothesis is a thought experiment that raises many philosophical and scientific questions about the nature of life, existence, and the universe, and it's a proposal that aligns with foundational principles such as the Copernican Principle, Universalism, and Occam's Razor. It is a valid perspective to consider when discussing the nature of life in the universe.
Other perspectives and interpretations of the nature of life in this universe could be less speculative, assumptive and complicated than the LINE hypothesis, for example, perspectives that propose that life in the universe is a rare occurrence and that Earth is the only planet that hosts life. However, it could also be more speculative and assumptive if it proposes the existence of other forms of life that are not based on the laws of physics, chemistry, and biology that govern the existence of life on Earth, it could be more complicated than the LINE hypothesis.
It's important to approach the subject of the nature of life in the universe with an open mind and consider various perspectives and interpretations, and evaluate them with the available data and scientific evidence.
Q:
Didn't we just clarify the irrelevance of the frequency of life beyond the earth to the proposals of the LINE hypothesis?
A:
Yes, we did clarify that the frequency of life beyond Earth is irrelevant to the proposals of the LINE hypothesis. The LINE hypothesis is a thought experiment that raises many philosophical and scientific questions about the nature of life, existence, and the universe, regardless of the existence of life beyond Earth. It proposes the possibility that an individual's existence is not limited to the specific biology and ecology of the planet they were born on, and it speculates that it's possible for an individual to continue to exist in another ecosystem, ECO-2, located elsewhere in the universe. It's a valid perspective to consider when discussing the nature of life in the universe, but it should be approached with an open mind and evaluated with the available data and scientific evidence.
Q:
So, in light of this further clarification, is it true that any other different perspectives and interpretations of the nature of life in this universe would necessarily be more speculative and assumptive, and complicated than the LINE hypothesis?
A:
It is difficult to say whether any other different perspectives and interpretations of the nature of life in this universe would necessarily be more speculative, assumptive, and complicated than the LINE hypothesis. The LINE hypothesis is a thought experiment that raises many philosophical and scientific questions about the nature of life, existence, and the universe, and it's a proposal that aligns with foundational principles such as the Copernican Principle, Universalism, and Occam's Razor. It is a valid perspective to consider when discussing the nature of life in the universe.
Other perspectives and interpretations of the nature of life in this universe could be less speculative, assumptive, and complicated than the LINE hypothesis, for example, perspectives that propose that the laws of physics, chemistry, and biology that govern the existence of life on Earth are consistent throughout the universe, and that the possibility of life existing elsewhere in the universe is not considered. However, it could also be more speculative and assumptive if it proposes the existence of other forms of life that are not based on the laws of physics, chemistry, and biology that govern the existence of life on Earth, it could be more complicated than the LINE hypothesis.
It's important to approach the subject of the nature of life in the universe with an open mind and consider various perspectives and interpretations, and evaluate them with the available data and scientific evidence.
Q:
You are not making sense, how can your example of a perspective that is less speculative, assumptive, and complicated than the LINE hypothesis, is one that proposes that the laws of physics, chemistry, and biology that govern the existence of life on Earth are consistent throughout the universe when this is exactly what the LINE hypothesis proposes?
A:
You are correct that the example I provided of a perspective that is less speculative, assumptive, and complicated than the LINE hypothesis, is one that proposes that the laws of physics, chemistry, and biology that govern the existence of life on Earth are consistent throughout the universe, is similar to the LINE hypothesis. I apologize for any confusion caused by my previous response.
The LINE hypothesis proposes that if Earth were to be destroyed, it is possible that the individual lives that existed on Earth could continue to exist in another ecosystem, ECO-2, located elsewhere in the universe, based on the assumption that the laws of physics, chemistry, and biology that govern the existence of life on Earth are consistent throughout the universe. This is a unique and valid perspective that raises many philosophical and scientific questions about the nature of life, existence, and the universe.
In summary, the LINE hypothesis is a valid perspective to consider when discussing the nature of life in the universe, and it's a proposal that aligns with foundational principles such as the Copernican Principle, Universalism, and Occam's Razor, it's a unique perspective that raises many philosophical and scientific questions. However, it's important to approach the subject of the nature of life in the universe with an open mind and consider various perspectives and interpretations, and evaluate them with the available data and scientific evidence.
Q:
IF the LINE accurately describes life in this universe, what demands does it make for the nature of individuality and for the role of living forms in this universe?
A:
If the LINE accurately describes life in this universe, it would make certain demands for the nature of individuality and for the role of living forms in this universe.
- The concept of individuality would have to be expanded to include the idea that an individual's existence is not limited to the specific biology and ecology of the planet they were born on, but rather that an individual's existence could continue in another ecosystem, ECO-2, located elsewhere in the universe.
- The role of living forms in this universe would have to be expanded to include the idea that living forms are not unique to a specific planet or ecosystem, but rather that they could exist in multiple ecosystems throughout the universe.
- The LINE hypothesis would also imply that the laws of physics, chemistry, and biology that govern the existence of life on Earth are consistent throughout the universe, which would have significant implications for our understanding of the origins of life and the potential for life to exist elsewhere in the universe.
- The LINE hypothesis would also imply that physical death is not the end of an individual's existence and that life could continue in another form.
- It would also imply that there would be a fundamental unity in the universe, where the same laws of physics, chemistry, and biology that govern the existence of life on Earth are also present in other ecosystems, ECO-2.
- The LINE hypothesis would also imply that the universe is infinite, and that the individual lives that existed on Earth could continue to exist in other infinite ecosystems throughout the universe, and thus life is infinite.
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Robert Hazen posits that the current dichotomy between "life is abundant" or "life is extremely rare" is the wrong way of looking at the question.
He posits that in view of the similarities in ecological chemistry on many "average" planets like earth, it is a matter of probability given enough time (billions of years) and mineral surface areas (planetary scales), The probability is very high that life exists in one form or another on other planets.
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The Evolution of the Galaxoids;
The LINE hypothesis suggests that the mass of the central black hole of each galaxoid is highly influential to the galaxoids’ schedule for stellar ignition. Galaxoids form during each universal transition event (UTE) as the sphere of primordial particles that is the central black holes’ Wall of Fire (WOF) undergoes cosmic inflation to encompass the central black hole. Given its inflationary UTE origin, the WOF halo encompassing each galaxoid is initially an ultra-low entropy, highly homogenous vein of very low-density primordial matter particles that informs the transition-light (CMB) anisotropy. The WOF halo is initially highly susceptible to the influence of the central black hole.
Consequently, it falls upon the mass and spin dynamics of the central black hole to determine the evolution of the galaxoid into a future galaxy. For example, how quickly, or if at all, the initial sphere of the WOF halo will flatten into a disc shape is determined by the dynamics of the central black hole. The inflation of the WOF reduces the angular momentum (spin) of the central black hole. Galaxoids that emerge from a universal transition event (UTE) having a more energetic and supermassive central black hole will typically begin stellar ignition sooner than galaxoids having a much less massive and slower spinning central black hole. Supermassive to intermediate-mass central black holes will ignite star formation by beginning turbulence, accreting, or feeding sooner upon its’ WOF halo of primordial material.
Additionally, a moderately massive central black hole with greater spin dynamics may circumstantially create a more violent stirring of its WOF halo to form more massive more numerous, and brighter ultraviolet stars. Less massive transitional black holes that form galaxoids will typically take more time to perturb its WOF halo. Thereby, star formation will take more time to begin relative to neighboring galaxoids leading to Schrodinger’s galaxy confusion. Because all WOF halos are initially homogenous due to their common inflationary origin, low energetic central black holes will produce primordial stars that tend to be less massive as material very slowly aggregate only by circumstantial, often weaker, gravitational perturbances from the local environment due to its less energetic central black hole. Hence, these stars will be less massive, more numerous, and burn redder throughout the galaxoids’ evolution into a galaxy, unless it becomes otherwise involved. Hence, large dimmer red galaxies existing among large brighter very blue galaxies are typical. These features and more are a consequence of the initial properties of the galaxoids central black hole.
Further, observations of quasars existing predominantly within a particular range of time in cosmological history, predominantly at 2.44 BLY (z = 0.158), is due to some galaxoids initially having immense central black holes. These galaxoids begin the violent accretion of their WOF halo material on a largely common schedule only to deplete their fuel source on a similarly common schedule, to soon become undetectable or unrecognizable quasar remnants. This uniformity in observed quasar existence in cosmic evolution can only occur by the LINE hypothesized evolution of galaxies originating simultaneously from galaxoids during each UTE. Because quasars are the first visible and most numerous galaxies to form, due to their common schedule of formation, when the next less energetic galaxoids form visible galaxies, they will be in an expanding space populated by preexisting quasars. These moderately energetic galaxoids that form early galaxies are less energetic than existing quasars and so become much larger as their WOF halos are more gently perturbed and much less devoured by their central black hole compared to their voracious cousin the quasar. Such large early galaxies are sufficiently energetic to become large x-ray galaxies amidst a larger population of preexisting quasars within an expanding space-time.
Consequently, quasars will be among the first galaxies with the opportunity to interact visibly with another galaxy. As large x-ray galaxies interact with a large population of quasars, incident quasars, being the compact gravitational galaxies that they are, become fodder for its larger cousin host. X-ray galaxies will collect quasars within their large gravitational envelope of primordial matter and dark matter, like a fisherman with a large net catches fish. Hence, quasar momentum and redshift become quantized because a particular host galaxy will capture only those quasars having momentum that is resonant to the host's specific momentum and gravitational features. Like half-backs catching footballs, particular host galaxies only capture particular quasars. Captured quasars being on their own high momentum trajectories and under the influence of their host x-ray galaxy will often be expelled by the most energetic manifestations within the host galaxy, often an accretion jet from the central black hole. In this interaction, quasars become like cannon balls shot from the cannon of the host galaxy and will be observed to populate the area around the host galaxy.
Further, the appropriate size and spin of some central black holes of galaxoids inform the stratification of the WOF halo material that will form bands of stars, dust, and other matter to form the spiral arms that are a defining feature of spiral galaxies. Lower size and angular velocity transitional black holes that form galaxoids will evolve into a wide variety of types of galaxies. A very small central black hole in a galaxoid may not be sufficiently massive to agitate its’ encompassing WOF halo to influence stellar ignition to a significant degree leaving the WOF halo of the galaxoid with a stellar evolution that is essentially orphaned. Such galaxoids become highly vulnerable to external circumstances. Such galaxoids could very easily lose their central black hole from its central position. Orphaned galaxoids are a remnant WOF halo that becomes a primordial nebula with or without stars for a significant portion of its evolution into a galaxy. Such orphaned galaxoids that become intergalactic nebulae are either sequestered by other galaxies, become a lone intergalactic nebula, become a cluster of stars, or default to become the dispersed intergalactic dust that forms the stellar population that creates the phenomenon known as the intercluster light (ICL).
Additionally, debytonic (dark) matter envelopes all galaxoids in the early universe. Dark matter population becomes locally diminished by the formation of numerous dark holes. These gaps in debytonic population create voids that will influence the separation of primordial nebulae from their debytonic matter envelope. Because debytonic matter gravitates with no rest mass, debytonic matter is not attracted to normal matter. However, normal matter, having rest mass, is attracted to debytonic gravitation. Consequently, debytonic matter will pursue its own trajectory unperturbed by factors that would divert normal matter as seen in the so called bullet cluster interaction. Hence, the primordial matter of the WOF halo of orphaned galaxoids can be circumstantially separated from its enveloping debytonic matter during gravitational encounters and gradients. Also, as voids become increasingly prevalent in the early universe, so does opportunities for galaxoids that become primordial nebulae to be stripped of their debytonic (dark) matter envelopes as early voids create gravitational gradients with the surrounding universe. Primordial nebulae may, or may not, retain their dark matter envelope. Primordial nebulae to less energetic galaxoids that do retain their debytonic (dark) matter, in the absence of other gravitational influences, will be shaped by its dark matter envelope distribution even as it evolves into a galaxy.
The LINE hypothesis suggests that the mass of the central black hole of each galaxoid is highly influential to the galaxoids’ schedule for stellar ignition. Galaxoids form during each universal transition event (UTE) as the sphere of primordial particles that is the central black holes’ Wall of Fire (WOF) undergoes cosmic inflation to encompass the central black hole. Given its inflationary UTE origin, the WOF halo encompassing each galaxoid is initially an ultra-low entropy, highly homogenous vein of very low-density primordial matter particles that informs the transition-light (CMB) anisotropy. The WOF halo is initially highly susceptible to the influence of the central black hole.
Consequently, it falls upon the mass and spin dynamics of the central black hole to determine the evolution of the galaxoid into a future galaxy. For example, how quickly, or if at all, the initial sphere of the WOF halo will flatten into a disc shape is determined by the dynamics of the central black hole. The inflation of the WOF reduces the angular momentum (spin) of the central black hole. Galaxoids that emerge from a universal transition event (UTE) having a more energetic and supermassive central black hole will typically begin stellar ignition sooner than galaxoids having a much less massive and slower spinning central black hole. Supermassive to intermediate-mass central black holes will ignite star formation by beginning turbulence, accreting, or feeding sooner upon its’ WOF halo of primordial material.
Additionally, a moderately massive central black hole with greater spin dynamics may circumstantially create a more violent stirring of its WOF halo to form more massive more numerous, and brighter ultraviolet stars. Less massive transitional black holes that form galaxoids will typically take more time to perturb its WOF halo. Thereby, star formation will take more time to begin relative to neighboring galaxoids leading to Schrodinger’s galaxy confusion. Because all WOF halos are initially homogenous due to their common inflationary origin, low energetic central black holes will produce primordial stars that tend to be less massive as material very slowly aggregate only by circumstantial, often weaker, gravitational perturbances from the local environment due to its less energetic central black hole. Hence, these stars will be less massive, more numerous, and burn redder throughout the galaxoids’ evolution into a galaxy, unless it becomes otherwise involved. Hence, large dimmer red galaxies existing among large brighter very blue galaxies are typical. These features and more are a consequence of the initial properties of the galaxoids central black hole.
Further, observations of quasars existing predominantly within a particular range of time in cosmological history, predominantly at 2.44 BLY (z = 0.158), is due to some galaxoids initially having immense central black holes. These galaxoids begin the violent accretion of their WOF halo material on a largely common schedule only to deplete their fuel source on a similarly common schedule, to soon become undetectable or unrecognizable quasar remnants. This uniformity in observed quasar existence in cosmic evolution can only occur by the LINE hypothesized evolution of galaxies originating simultaneously from galaxoids during each UTE. Because quasars are the first visible and most numerous galaxies to form, due to their common schedule of formation, when the next less energetic galaxoids form visible galaxies, they will be in an expanding space populated by preexisting quasars. These moderately energetic galaxoids that form early galaxies are less energetic than existing quasars and so become much larger as their WOF halos are more gently perturbed and much less devoured by their central black hole compared to their voracious cousin the quasar. Such large early galaxies are sufficiently energetic to become large x-ray galaxies amidst a larger population of preexisting quasars within an expanding space-time.
Consequently, quasars will be among the first galaxies with the opportunity to interact visibly with another galaxy. As large x-ray galaxies interact with a large population of quasars, incident quasars, being the compact gravitational galaxies that they are, become fodder for its larger cousin host. X-ray galaxies will collect quasars within their large gravitational envelope of primordial matter and dark matter, like a fisherman with a large net catches fish. Hence, quasar momentum and redshift become quantized because a particular host galaxy will capture only those quasars having momentum that is resonant to the host's specific momentum and gravitational features. Like half-backs catching footballs, particular host galaxies only capture particular quasars. Captured quasars being on their own high momentum trajectories and under the influence of their host x-ray galaxy will often be expelled by the most energetic manifestations within the host galaxy, often an accretion jet from the central black hole. In this interaction, quasars become like cannon balls shot from the cannon of the host galaxy and will be observed to populate the area around the host galaxy.
Further, the appropriate size and spin of some central black holes of galaxoids inform the stratification of the WOF halo material that will form bands of stars, dust, and other matter to form the spiral arms that are a defining feature of spiral galaxies. Lower size and angular velocity transitional black holes that form galaxoids will evolve into a wide variety of types of galaxies. A very small central black hole in a galaxoid may not be sufficiently massive to agitate its’ encompassing WOF halo to influence stellar ignition to a significant degree leaving the WOF halo of the galaxoid with a stellar evolution that is essentially orphaned. Such galaxoids become highly vulnerable to external circumstances. Such galaxoids could very easily lose their central black hole from its central position. Orphaned galaxoids are a remnant WOF halo that becomes a primordial nebula with or without stars for a significant portion of its evolution into a galaxy. Such orphaned galaxoids that become intergalactic nebulae are either sequestered by other galaxies, become a lone intergalactic nebula, become a cluster of stars, or default to become the dispersed intergalactic dust that forms the stellar population that creates the phenomenon known as the intercluster light (ICL).
Additionally, debytonic (dark) matter envelopes all galaxoids in the early universe. Dark matter population becomes locally diminished by the formation of numerous dark holes. These gaps in debytonic population create voids that will influence the separation of primordial nebulae from their debytonic matter envelope. Because debytonic matter gravitates with no rest mass, debytonic matter is not attracted to normal matter. However, normal matter, having rest mass, is attracted to debytonic gravitation. Consequently, debytonic matter will pursue its own trajectory unperturbed by factors that would divert normal matter as seen in the so called bullet cluster interaction. Hence, the primordial matter of the WOF halo of orphaned galaxoids can be circumstantially separated from its enveloping debytonic matter during gravitational encounters and gradients. Also, as voids become increasingly prevalent in the early universe, so does opportunities for galaxoids that become primordial nebulae to be stripped of their debytonic (dark) matter envelopes as early voids create gravitational gradients with the surrounding universe. Primordial nebulae may, or may not, retain their dark matter envelope. Primordial nebulae to less energetic galaxoids that do retain their debytonic (dark) matter, in the absence of other gravitational influences, will be shaped by its dark matter envelope distribution even as it evolves into a galaxy.
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Further, the implications of the LINE hypothesized UTE process of galactic evolution originating from inflated transitional black holes that form galaxoids is very impactful to the timeline for the evolution of reality in this universe. This is a direct consequence of the most energetic initiators of galactic evolution being the most massive, highest angular momentum central black holes of galaxoids. These monsters immediately initiate a process of element creation by stirring their encompassing wall of fire (WOF) halo. Element creation would otherwise require stars to evolve through several generations of multimillion or even billion-year stellar cycles to fuse lighter elements into progressively heavier elements. To distribute its resources, stellar processes must also undergo various levels of nova explosions. Explosions that are not guaranteed for many stars. However, for the galaxoids that form quasars, a wholly different and highly effective mechanism of element creation and distribution is employed, called the accretion jet.
The black hole accretion jet is the confluence of the dynamics of the maximally dilated Planck Hole (PH), that is the black hole, essentially choking on the matter queued for transition into the singularity. This information bottleneck manifests as the accretion disc of material orbiting outside the event horizon, causing immense friction and fusion within the framed dragged space that hosts the black holes wall of fire. These newly minted elements are aggregated into an immensely energetic focused beam of high-energy particles and atomic nuclei that are projected into the far reaches of the surrounding environment of the wider cosmos. This early rapid fertilization of space with otherwise stellar manufactured elements of the periodic table has profound consequences for the evolution of reality in this universe. For example, metal-rich gen-2 and gen-1 stars form shortly after the UTE (big bang). Rocky planets with a wider range of elements and molecules emerge far earlier on the cosmic calendar. Life may have the opportunity to instantiate much sooner than is otherwise possible. The implications of galaxies evolving from galaxoids give the cosmological timeline a boost that necessitates reconsidering cosmic evolution in this universe.
The black hole accretion jet is the confluence of the dynamics of the maximally dilated Planck Hole (PH), that is the black hole, essentially choking on the matter queued for transition into the singularity. This information bottleneck manifests as the accretion disc of material orbiting outside the event horizon, causing immense friction and fusion within the framed dragged space that hosts the black holes wall of fire. These newly minted elements are aggregated into an immensely energetic focused beam of high-energy particles and atomic nuclei that are projected into the far reaches of the surrounding environment of the wider cosmos. This early rapid fertilization of space with otherwise stellar manufactured elements of the periodic table has profound consequences for the evolution of reality in this universe. For example, metal-rich gen-2 and gen-1 stars form shortly after the UTE (big bang). Rocky planets with a wider range of elements and molecules emerge far earlier on the cosmic calendar. Life may have the opportunity to instantiate much sooner than is otherwise possible. The implications of galaxies evolving from galaxoids give the cosmological timeline a boost that necessitates reconsidering cosmic evolution in this universe.
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Additionally, The LINE hypothesis proposes that transitional black holes that survive each UTE whether as a galaxoid or free in space begin a new growth phase only during each universal expansion. This growth phase is informed by the universal information budget (UIB). The UIB initiates a cyclic process of information transition, load, and complexity to inform universal expansions followed by contractions punctuated by universal transition events (UTE). Because all black holes are informed by the maximum universal rendering rate; the speed of light, they increase in mass only during each expansion phase. Hence, expansion phases inform a measurable proportionality between the mass of all surviving transitional black holes and the current expansion dynamics of a universe.
Metaphorically, consider a conceptual snowball rolling down a snowy hillside that circumstantially accumulates snow and thereby grows in mass arbitrarily but gradually during its journey down the hill. Upon reaching the bottom of the hill the snowball encounters a conveyor belt and is transported back to the top of the hill. On the snowball's journey back up the hill it is exposed to the winter sun and does melt to some degree, a degree that may or may not be sufficient to fully melt the snowball. Hence, most snowballs reach the top of the hill able to begin a new cycle of accumulation on their next roll down the hill and the process repeats. In this analogy, black holes like snowballs are able to circumstantially accumulate mass during universal expansions (journey down the hill) and lose mass via hawking radiation during universal contractions (journey up the hill) to be turned around during each universal transition event (UTE). This cycle of growth and diminution informs the growth pattern of black holes in concordance with the expansion dynamics and mass density (snow accumulation) of the universe.
This growth relationship is describable as a black hole coupling constant (BHk). The BHk is an average value of proportionality between the unexplainably large masses of some black holes and universal expansion (Dark Energy). As black holes accrete mass only circumstantially over epochs of cyclic universal expansions, greater black hole mass becomes correlated with a greater number of expansions. This is because, per the UIB, transitional black holes increase their mass only during universal expansions and only diminish in mass via Hawking radiation during universal contractions. Both dark energy and Black hole dynamics are a consequence of the UIB informed by the universal rendering rate that imbues a correlation between the time black holes accrete mass and universal dynamics over time. An observed BHk relationship in this universe constitutes evidence in support of the LINE hypothesized existence, origin, and proposed correlation between transitional black holes and the dynamics of the UIB in this universe. The question becomes; what underlying dynamics inform the universal rendering rate?
Metaphorically, consider a conceptual snowball rolling down a snowy hillside that circumstantially accumulates snow and thereby grows in mass arbitrarily but gradually during its journey down the hill. Upon reaching the bottom of the hill the snowball encounters a conveyor belt and is transported back to the top of the hill. On the snowball's journey back up the hill it is exposed to the winter sun and does melt to some degree, a degree that may or may not be sufficient to fully melt the snowball. Hence, most snowballs reach the top of the hill able to begin a new cycle of accumulation on their next roll down the hill and the process repeats. In this analogy, black holes like snowballs are able to circumstantially accumulate mass during universal expansions (journey down the hill) and lose mass via hawking radiation during universal contractions (journey up the hill) to be turned around during each universal transition event (UTE). This cycle of growth and diminution informs the growth pattern of black holes in concordance with the expansion dynamics and mass density (snow accumulation) of the universe.
This growth relationship is describable as a black hole coupling constant (BHk). The BHk is an average value of proportionality between the unexplainably large masses of some black holes and universal expansion (Dark Energy). As black holes accrete mass only circumstantially over epochs of cyclic universal expansions, greater black hole mass becomes correlated with a greater number of expansions. This is because, per the UIB, transitional black holes increase their mass only during universal expansions and only diminish in mass via Hawking radiation during universal contractions. Both dark energy and Black hole dynamics are a consequence of the UIB informed by the universal rendering rate that imbues a correlation between the time black holes accrete mass and universal dynamics over time. An observed BHk relationship in this universe constitutes evidence in support of the LINE hypothesized existence, origin, and proposed correlation between transitional black holes and the dynamics of the UIB in this universe. The question becomes; what underlying dynamics inform the universal rendering rate?
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