Some data about the EARTH and our Earth going from type ZERo to type 1,2,3 (see Kardavesh scale of civilizations).
by Henryk Szubinski
SIRIUS DISCLOSURE
Some early missconceptions of Earth as "the Vechicle " or the prime mover as well as "humans are only along for the ride on this planet"
The positive alternative of>; "Earth has stopped to rest itself " The >Earth is regaining it's strength" These positive definitions are found
to be there, because humans have also began to rest "on Earth" and "with Earth knowledge" So that "In stillness we can study ourselves"
and the new science of "Earth thinking " as "Earth medicine" and the new language of the CE5 Initiative.The SIRIUS DISCLOSURE.
That Earth has not stopped to die. It has stopped becoming the object of over usage . And that we humans are the cause of the "Healthy Earth".
So how do we define this to other humans, and how do we comprehend that we are not the "overconsummers of the past millions of years?".
But are on this planet as Earth was billions of years ago.
Basically "There exists no activity" when everything becomes science of "Nature the way it means itself to be"
Without any activity, the Earth data defines itself ,like an enlightened being.
From Wikipedia
date ,31,07,2016
Etymology[edit]
From Middle English stilnesse, from Old English stilnes (“stillness, quiet; absence of noise or disturbance, release, relaxation; silence, abstention from speech; absence of disturbance or molestation, tranquility, peace, security; that which appeases”), equivalent to still + -ness.
Noun[edit]
stillness (countable and uncountable, plural stillnesses)
The quality or state of being still; quietness; silence; calmness; inactivity.
Habitual silence or quiet; taciturnity. [quotations ▼]
Translations[edit]
zero motion
zero displacement
non motion
innability to displace
immovability
ZERO POINT ENERGY
Zero-point energy, also called quantum vacuum zero-point energy, is the lowest possible energy that a quantum mechanical physical system may have; it is the energy of its ground state.
All quantum mechanical systems undergo fluctuations even in their ground state and have an associated zero-point energy, a consequence of their wave-like nature. The uncertainty principle requires every physical system to have a zero-point energy greater than the minimum of its classical potential well. This results in motion even at absolute zero. For example, liquid helium does not freeze under atmospheric pressure at any temperature because of its zero-point energy.
The concept of zero-point energy was developed by Max Planck in Germany in 1911 as a corrective term added to a zero-grounded formula developed in his original quantum theory in 1900.[1] The term zero-point energy is a translation from the German Nullpunktsenergie.[2]:275ff
VACUUM ENERGY
Vacuum energy is the zero-point energy of all the fields in space, which in the Standard Model includes the electromagnetic field, other gauge fields, fermionic fields, and the Higgs field. It is the energy of the vacuum, which in quantum field theory is defined not as empty space but as the ground state of the fields. In cosmology, the vacuum energy is one possible explanation for the cosmological constant.[3] A related term is zero-point field, which is the lowest energy state of a particular field.[4]
Scientists are not in agreement about how much energy is contained in the vacuum. Quantum mechanics requires the energy to be large as Paul Dirac claimed it is, like a sea of energy. Other scientists specializing in General Relativity require the energy to be small enough for curvature of space to agree with observed astronomy. The Heisenberg uncertainty principle allows the energy to be as large as needed to promote quantum actions for a brief moment of time, even if the average energy is small enough to satisfy relativity and flat space. To cope with disagreements, the vacuum energy is described as a virtual energy potential of positive and negative energy.[5]
REST
Rest, in physics, refers to an object being stationary relative to a particular frame of reference or another object. When the position of a body with respect to its surroundings does not change with time it is said to be "at rest". According to the theory of relativity, it is said that an object is "at rest relative to" another. For example, a train decelerates approaching a station and eventually comes to rest alongside the platform. The train can be said to be "at rest with respect to the station", or, as the correct frame of reference is usually implicit and/or provided by context, simply "at rest".
Given an inertial frame of reference, Newton's first law of motion states that an object at rest will remain at rest, while the motion of a moving object will remain unchanged until acted upon by an external force.[1][2] An object at rest, therefore, can be described as without velocity and acceleration – although, according to relativity, an object is either at rest or in motion relative to other moving objects. The concept of "relative rest" is closely linked to that of inertial observers and the statement that nothing is at absolute rest is loosely equivalent to stating that there are no frames of reference which are truly inertial. So-called non-inertial observers are addressed by the theory of general relativity.
In reality, there is nothing at absolute rest. For example, Earth's gravitation constantly pulls objects toward its surface, while Earth is one of the objects the Sun constantly pulls towards itself, causing it to orbit the Sun; the Sun, in turn, orbits the center of the Milky Way; and so on.Two or more than two objects are said to be at rest,if its position with respect to each other is not changing or moving with uniform velocity with respect to each other.
STATIC MEMBRANE POTENTIAL
The relatively static membrane potential of quiescent cells is called the resting membrane potential (or resting voltage), as opposed to the specific dynamic electrochemical phenomena called action potential and graded membrane potential.
Apart from the latter two, which occur in excitable cells (neurons, muscles, and some secretory cells in glands), membrane voltage in the majority of non-excitable cells can also undergo changes in response to environmental or intracellular stimuli[citation needed]. In principle, there is no difference between resting membrane potential and dynamic voltage changes like action potential from a biophysical point of view: all these phenomena are caused by specific changes in membrane permeabilities for potassium, sodium, calcium, and chloride ions, which in turn result from concerted changes in functional activity of various ion channels, ion transporters, and exchangers. Conventionally, resting membrane potential can be defined as a relatively stable, ground value of transmembrane voltage in animal and plant cells.
STEADY STATE
In systems theory, a system or a process is in a steady state if the variables (called state variables) which define the behavior of the system or the process are unchanging in time. In continuous time, this means that for those properties p of the system, the partial derivative with respect to time is zero and remains so:
HOMEOSTASIS
Homeostasis (from Greek ὅμοιος, hómoios, "similar" and στάσις, stásis, "standing still") is the property of a system that regulates its internal environment and tends to maintain a stable, constant condition. Typically used to refer to a living organism, the concept came from that of milieu interieur that was created by Claude Bernard and published in 1865. Multiple dynamic equilibrium adjustment and regulation mechanisms make homeostasis possible.
THE HUMAN SIDE as EQUILLIBRIUM= the new science of Earth"and what we have been prior to Earth overusage and after its survival as the functions that have been inside us that have survived over this period together with the Earth.
Sense of balance or equilibrioception is one of the physiological senses related to balance. It helps prevent humans and animals from falling over when standing or moving. Balance is the result of a number of body systems working together: the eyes (visual system), ears (vestibular system) and the body's sense of where it is in space (proprioception) ideally need to be intact. The vestibular system, the region of the inner ear where three semicircular canals converge, works with the visual system to keep objects in focus when the head is moving. This is called the vestibulo-ocular reflex (VOR). The balance system works with the visual and skeletal systems (the muscles and joints and their sensors) to maintain orientation or balance. Visual signals sent to the brain about the body's position in relation to its surroundings are processed by the brain and compared to information from the vestibular, visual and skeletal systems.
In biochemistry, equilibrium unfolding is the process of unfolding a protein or RNA molecule by gradually changing its environment, such as by changing the temperature or pressure, adding chemical denaturants, or applying force as with an atomic force microscope tip. Since equilibrium is maintained at all steps, the process is reversible (equilibrium folding). Equilibrium unfolding is used to determine the conformational stability of the molecule.
Genetic equilibrium describes the condition of an allele or genotype in a gene pool (such as a population) where the frequency does not change from generation to generation.[1] Genetic equilibrium describes a theoretical state that is the basis for determining whether and in what ways populations may deviate from it. Hardy-Weinberg equilibrium is one theoretical framework for studying genetic equilibrium. It is commonly studied using models that take as their assumptions those of Hardy-Weinberg, meaning: • No gene mutations occurring at that locus or the loci associated with the trait • A large population size • Limited-to-no immigration, emigration, or migration (genetic flow) • Nonatural selection on that locus or trait • Random mating (panmixis) It can describe other types of equilibrium as well, especially in modeling contexts. In particular, many models use a variation of the Hardy-Weinberg principle as their basis. Instead of all of the Hardy-Weinberg characters being present, these instead assume a balance between the diversifying effects of genetic drift and the homogenizing effects of migration between populations.[2] A population not at equilibrium suggests that one of the assumptions of the model in question has been violated.
Insular biogeography[1] is a field within biogeography that examines the factors that affect the species richness of isolated natural communities. The theory was originally developed as island biogeography, to explain species richness of actual islands, principally oceanic. Under either name it is now used in reference to any ecosystem (present or past[2]) that is isolated due to being surrounded by unlike ecosystems, and has been extended to mountain peaks, oases, fragmented forest, and even natural habitats isolated by human land development. The field was started in the 1960s by the ecologists Robert H. MacArthur and E. O. Wilson,[3] who coined the term island biogeography in their theory, which attempted to predict the number of species that would exist on a newly created island.
In classical mechanics, a particle is in mechanical equilibrium if the net force on that particle is zero.[1]:39 By extension, a physical systemmade up of many parts is in mechanical equilibrium if the net force on each of its individual parts is zero.[1]:45–46[2]
In addition to defining mechanical equilibrium in terms of force, there are many alternative definitions for mechanical equilibrium which are all mathematically equivalent. In terms of momentum, a system is in equilibrium if the momentum of its parts is all constant. In terms of velocity, the system is in equilibrium if velocity is constant. In a rotational mechanical equilibrium the angular momentum of the object is conserved and the net torque is zero.[2] More generally in conservative systems, equilibrium is established at a point in configuration space where the gradient with respect to the generalized coordinates of the potential energy is zero.
If a particle in equilibrium has zero velocity, that particle is in static equilibrium.[3][4] Since all particles in equilibrium have constant velocity, it is always possible to find an inertial reference frame in which the particle is stationary with respect to the frame.
The principle of least action – or, more accurately, the principle of stationary action – is a variational principle that, when applied to the action of a mechanical system, can be used to obtain the equations of motion for that system. In relativity, a different action must be minimized or maximized. The principle can be used to derive Newtonian, Lagrangian, Hamiltonian equations of motion, and even general relativity (see Einstein–Hilbert action). It was historically called "least" because its solution requires finding the path that has the least change from nearby paths.[1] Its classical mechanics and electromagnetic expressions are a consequence of quantum mechanics, but the stationary action method helped in the development of quantum mechanics.[2]
The principle remains central in modern physics and mathematics, being applied in thermodynamics,[3] fluid mechanics,[4] theory of relativity, quantum mechanics,[5] particle physics, and string theory[6] and a focus of modern mathematical investigation in Morse theory. Maupertuis' principle and Hamilton's principle exemplify the principle of stationary action.
The common interval :
As related to our relations to ourselves and the interval that may function as the harmonic of Earth and humans together within the value of the common interval being=1 so that the Earth has an equal and similar common thought about how to express it.
For example
Human 1 + Earth 2 = interval 1
in which the human 1/2 Earth = 0,5 shared interval as the harmonic.
and also as Interval 1+ Earth 2= Human 1
Of course this may be the shared common interval when we are together with alien beings as;
for example
Alien 1 + human 1 + Earth 2 = interval 1
where the alien 1 and the Earth 2 = 1/2 =0,5 shared interval as the harmonic.and also as Interval 1 + Earth 2 = human and alien 1.
In mathematics, a (real) interval is a set of real numbers with the property that any number that lies between two numbers in the set is also included in the set. For example, the set of all numbers x satisfying 0 ≤ x ≤ 1 is an interval which contains 0 and 1, as well as all numbers between them. Other examples of intervals are the set of all real numbers {\displaystyle \mathbb {R} }, the set of all negative real numbers, and the empty set.
Real intervals play an important role in the theory of integration, because they are the simplest sets whose "size" or "measure" or "length" is easy to define. The concept of measure can then be extended to more complicated sets of real numbers, leading to the Borel measure and eventually to the Lebesgue measure.
The non motion may make the conclusion that when we accept that we are in stillness with the Earth, then objects ,shapes and concepts appear equal to one another and that this equality defines the language of the Earth and also our language of thought when we use it to define relationships with Earth.
Two geometrical objects are called similar if they both have the same shape, or one has the same shape as the mirror image of the other. More precisely, one can be obtained from the other by uniformly scaling (enlarging or shrinking), possibly with additional translation, rotation and reflection. This means that either object can be rescaled, repositioned, and reflected, so as to coincide precisely with the other object. If two objects are similar, each is congruent to the result of a particular uniform scaling of the other. A modern and novel perspective of similarity is to consider geometrical objects similar if one appears congruent to the other when zoomed in or out at some level.
For example, all circles are similar to each other, all squares are similar to each other, and all equilateral triangles are similar to each other. On the other hand, ellipses are not all similar to each other, rectangles are not all similar to each other, andisosceles triangles are not all similar to each other.
As such many Alien beings and alien spaceships use the basic geometry of shape equality to make the "NON MOTION STATEMENT" of contact and peaceful existance.
The color of the lights in the triangular shape define the level of advanced "STILLNESS of the Earth and it's humans".
From white to blue to green to orange to yellow to red as the stage where we are or were only some years ago (the scale = the star types O,B,A,F,G,K,M where our sun = G type).
by Henryk Szubinski
SIRIUS DISCLOSURE
Some early missconceptions of Earth as "the Vechicle " or the prime mover as well as "humans are only along for the ride on this planet"
The positive alternative of>; "Earth has stopped to rest itself " The >Earth is regaining it's strength" These positive definitions are found
to be there, because humans have also began to rest "on Earth" and "with Earth knowledge" So that "In stillness we can study ourselves"
and the new science of "Earth thinking " as "Earth medicine" and the new language of the CE5 Initiative.The SIRIUS DISCLOSURE.
That Earth has not stopped to die. It has stopped becoming the object of over usage . And that we humans are the cause of the "Healthy Earth".
So how do we define this to other humans, and how do we comprehend that we are not the "overconsummers of the past millions of years?".
But are on this planet as Earth was billions of years ago.
Basically "There exists no activity" when everything becomes science of "Nature the way it means itself to be"
Without any activity, the Earth data defines itself ,like an enlightened being.
From Wikipedia
date ,31,07,2016
Etymology[edit]
From Middle English stilnesse, from Old English stilnes (“stillness, quiet; absence of noise or disturbance, release, relaxation; silence, abstention from speech; absence of disturbance or molestation, tranquility, peace, security; that which appeases”), equivalent to still + -ness.
Noun[edit]
stillness (countable and uncountable, plural stillnesses)
The quality or state of being still; quietness; silence; calmness; inactivity.
Habitual silence or quiet; taciturnity. [quotations ▼]
Translations[edit]
zero motion
zero displacement
non motion
innability to displace
immovability
ZERO POINT ENERGY
Zero-point energy, also called quantum vacuum zero-point energy, is the lowest possible energy that a quantum mechanical physical system may have; it is the energy of its ground state.
All quantum mechanical systems undergo fluctuations even in their ground state and have an associated zero-point energy, a consequence of their wave-like nature. The uncertainty principle requires every physical system to have a zero-point energy greater than the minimum of its classical potential well. This results in motion even at absolute zero. For example, liquid helium does not freeze under atmospheric pressure at any temperature because of its zero-point energy.
The concept of zero-point energy was developed by Max Planck in Germany in 1911 as a corrective term added to a zero-grounded formula developed in his original quantum theory in 1900.[1] The term zero-point energy is a translation from the German Nullpunktsenergie.[2]:275ff
VACUUM ENERGY
Vacuum energy is the zero-point energy of all the fields in space, which in the Standard Model includes the electromagnetic field, other gauge fields, fermionic fields, and the Higgs field. It is the energy of the vacuum, which in quantum field theory is defined not as empty space but as the ground state of the fields. In cosmology, the vacuum energy is one possible explanation for the cosmological constant.[3] A related term is zero-point field, which is the lowest energy state of a particular field.[4]
Scientists are not in agreement about how much energy is contained in the vacuum. Quantum mechanics requires the energy to be large as Paul Dirac claimed it is, like a sea of energy. Other scientists specializing in General Relativity require the energy to be small enough for curvature of space to agree with observed astronomy. The Heisenberg uncertainty principle allows the energy to be as large as needed to promote quantum actions for a brief moment of time, even if the average energy is small enough to satisfy relativity and flat space. To cope with disagreements, the vacuum energy is described as a virtual energy potential of positive and negative energy.[5]
REST
Rest, in physics, refers to an object being stationary relative to a particular frame of reference or another object. When the position of a body with respect to its surroundings does not change with time it is said to be "at rest". According to the theory of relativity, it is said that an object is "at rest relative to" another. For example, a train decelerates approaching a station and eventually comes to rest alongside the platform. The train can be said to be "at rest with respect to the station", or, as the correct frame of reference is usually implicit and/or provided by context, simply "at rest".
Given an inertial frame of reference, Newton's first law of motion states that an object at rest will remain at rest, while the motion of a moving object will remain unchanged until acted upon by an external force.[1][2] An object at rest, therefore, can be described as without velocity and acceleration – although, according to relativity, an object is either at rest or in motion relative to other moving objects. The concept of "relative rest" is closely linked to that of inertial observers and the statement that nothing is at absolute rest is loosely equivalent to stating that there are no frames of reference which are truly inertial. So-called non-inertial observers are addressed by the theory of general relativity.
In reality, there is nothing at absolute rest. For example, Earth's gravitation constantly pulls objects toward its surface, while Earth is one of the objects the Sun constantly pulls towards itself, causing it to orbit the Sun; the Sun, in turn, orbits the center of the Milky Way; and so on.Two or more than two objects are said to be at rest,if its position with respect to each other is not changing or moving with uniform velocity with respect to each other.
STATIC MEMBRANE POTENTIAL
The relatively static membrane potential of quiescent cells is called the resting membrane potential (or resting voltage), as opposed to the specific dynamic electrochemical phenomena called action potential and graded membrane potential.
Apart from the latter two, which occur in excitable cells (neurons, muscles, and some secretory cells in glands), membrane voltage in the majority of non-excitable cells can also undergo changes in response to environmental or intracellular stimuli[citation needed]. In principle, there is no difference between resting membrane potential and dynamic voltage changes like action potential from a biophysical point of view: all these phenomena are caused by specific changes in membrane permeabilities for potassium, sodium, calcium, and chloride ions, which in turn result from concerted changes in functional activity of various ion channels, ion transporters, and exchangers. Conventionally, resting membrane potential can be defined as a relatively stable, ground value of transmembrane voltage in animal and plant cells.
STEADY STATE
In systems theory, a system or a process is in a steady state if the variables (called state variables) which define the behavior of the system or the process are unchanging in time. In continuous time, this means that for those properties p of the system, the partial derivative with respect to time is zero and remains so:
HOMEOSTASIS
Homeostasis (from Greek ὅμοιος, hómoios, "similar" and στάσις, stásis, "standing still") is the property of a system that regulates its internal environment and tends to maintain a stable, constant condition. Typically used to refer to a living organism, the concept came from that of milieu interieur that was created by Claude Bernard and published in 1865. Multiple dynamic equilibrium adjustment and regulation mechanisms make homeostasis possible.
THE HUMAN SIDE as EQUILLIBRIUM= the new science of Earth"and what we have been prior to Earth overusage and after its survival as the functions that have been inside us that have survived over this period together with the Earth.
Sense of balance or equilibrioception is one of the physiological senses related to balance. It helps prevent humans and animals from falling over when standing or moving. Balance is the result of a number of body systems working together: the eyes (visual system), ears (vestibular system) and the body's sense of where it is in space (proprioception) ideally need to be intact. The vestibular system, the region of the inner ear where three semicircular canals converge, works with the visual system to keep objects in focus when the head is moving. This is called the vestibulo-ocular reflex (VOR). The balance system works with the visual and skeletal systems (the muscles and joints and their sensors) to maintain orientation or balance. Visual signals sent to the brain about the body's position in relation to its surroundings are processed by the brain and compared to information from the vestibular, visual and skeletal systems.
In biochemistry, equilibrium unfolding is the process of unfolding a protein or RNA molecule by gradually changing its environment, such as by changing the temperature or pressure, adding chemical denaturants, or applying force as with an atomic force microscope tip. Since equilibrium is maintained at all steps, the process is reversible (equilibrium folding). Equilibrium unfolding is used to determine the conformational stability of the molecule.
Genetic equilibrium describes the condition of an allele or genotype in a gene pool (such as a population) where the frequency does not change from generation to generation.[1] Genetic equilibrium describes a theoretical state that is the basis for determining whether and in what ways populations may deviate from it. Hardy-Weinberg equilibrium is one theoretical framework for studying genetic equilibrium. It is commonly studied using models that take as their assumptions those of Hardy-Weinberg, meaning: • No gene mutations occurring at that locus or the loci associated with the trait • A large population size • Limited-to-no immigration, emigration, or migration (genetic flow) • Nonatural selection on that locus or trait • Random mating (panmixis) It can describe other types of equilibrium as well, especially in modeling contexts. In particular, many models use a variation of the Hardy-Weinberg principle as their basis. Instead of all of the Hardy-Weinberg characters being present, these instead assume a balance between the diversifying effects of genetic drift and the homogenizing effects of migration between populations.[2] A population not at equilibrium suggests that one of the assumptions of the model in question has been violated.
Insular biogeography[1] is a field within biogeography that examines the factors that affect the species richness of isolated natural communities. The theory was originally developed as island biogeography, to explain species richness of actual islands, principally oceanic. Under either name it is now used in reference to any ecosystem (present or past[2]) that is isolated due to being surrounded by unlike ecosystems, and has been extended to mountain peaks, oases, fragmented forest, and even natural habitats isolated by human land development. The field was started in the 1960s by the ecologists Robert H. MacArthur and E. O. Wilson,[3] who coined the term island biogeography in their theory, which attempted to predict the number of species that would exist on a newly created island.
In classical mechanics, a particle is in mechanical equilibrium if the net force on that particle is zero.[1]:39 By extension, a physical systemmade up of many parts is in mechanical equilibrium if the net force on each of its individual parts is zero.[1]:45–46[2]
In addition to defining mechanical equilibrium in terms of force, there are many alternative definitions for mechanical equilibrium which are all mathematically equivalent. In terms of momentum, a system is in equilibrium if the momentum of its parts is all constant. In terms of velocity, the system is in equilibrium if velocity is constant. In a rotational mechanical equilibrium the angular momentum of the object is conserved and the net torque is zero.[2] More generally in conservative systems, equilibrium is established at a point in configuration space where the gradient with respect to the generalized coordinates of the potential energy is zero.
If a particle in equilibrium has zero velocity, that particle is in static equilibrium.[3][4] Since all particles in equilibrium have constant velocity, it is always possible to find an inertial reference frame in which the particle is stationary with respect to the frame.
The principle of least action – or, more accurately, the principle of stationary action – is a variational principle that, when applied to the action of a mechanical system, can be used to obtain the equations of motion for that system. In relativity, a different action must be minimized or maximized. The principle can be used to derive Newtonian, Lagrangian, Hamiltonian equations of motion, and even general relativity (see Einstein–Hilbert action). It was historically called "least" because its solution requires finding the path that has the least change from nearby paths.[1] Its classical mechanics and electromagnetic expressions are a consequence of quantum mechanics, but the stationary action method helped in the development of quantum mechanics.[2]
The principle remains central in modern physics and mathematics, being applied in thermodynamics,[3] fluid mechanics,[4] theory of relativity, quantum mechanics,[5] particle physics, and string theory[6] and a focus of modern mathematical investigation in Morse theory. Maupertuis' principle and Hamilton's principle exemplify the principle of stationary action.
The common interval :
As related to our relations to ourselves and the interval that may function as the harmonic of Earth and humans together within the value of the common interval being=1 so that the Earth has an equal and similar common thought about how to express it.
For example
Human 1 + Earth 2 = interval 1
in which the human 1/2 Earth = 0,5 shared interval as the harmonic.
and also as Interval 1+ Earth 2= Human 1
Of course this may be the shared common interval when we are together with alien beings as;
for example
Alien 1 + human 1 + Earth 2 = interval 1
where the alien 1 and the Earth 2 = 1/2 =0,5 shared interval as the harmonic.and also as Interval 1 + Earth 2 = human and alien 1.
In mathematics, a (real) interval is a set of real numbers with the property that any number that lies between two numbers in the set is also included in the set. For example, the set of all numbers x satisfying 0 ≤ x ≤ 1 is an interval which contains 0 and 1, as well as all numbers between them. Other examples of intervals are the set of all real numbers {\displaystyle \mathbb {R} }, the set of all negative real numbers, and the empty set.
Real intervals play an important role in the theory of integration, because they are the simplest sets whose "size" or "measure" or "length" is easy to define. The concept of measure can then be extended to more complicated sets of real numbers, leading to the Borel measure and eventually to the Lebesgue measure.
The non motion may make the conclusion that when we accept that we are in stillness with the Earth, then objects ,shapes and concepts appear equal to one another and that this equality defines the language of the Earth and also our language of thought when we use it to define relationships with Earth.
Two geometrical objects are called similar if they both have the same shape, or one has the same shape as the mirror image of the other. More precisely, one can be obtained from the other by uniformly scaling (enlarging or shrinking), possibly with additional translation, rotation and reflection. This means that either object can be rescaled, repositioned, and reflected, so as to coincide precisely with the other object. If two objects are similar, each is congruent to the result of a particular uniform scaling of the other. A modern and novel perspective of similarity is to consider geometrical objects similar if one appears congruent to the other when zoomed in or out at some level.
For example, all circles are similar to each other, all squares are similar to each other, and all equilateral triangles are similar to each other. On the other hand, ellipses are not all similar to each other, rectangles are not all similar to each other, andisosceles triangles are not all similar to each other.
As such many Alien beings and alien spaceships use the basic geometry of shape equality to make the "NON MOTION STATEMENT" of contact and peaceful existance.
The color of the lights in the triangular shape define the level of advanced "STILLNESS of the Earth and it's humans".
From white to blue to green to orange to yellow to red as the stage where we are or were only some years ago (the scale = the star types O,B,A,F,G,K,M where our sun = G type).
Free energy would then, be the motion of bodies about two points of light so that their common center may be any distance or velocity as related to the 3rd point of the equal and opposite direction of motion. These 3 points may appear to be totally still in reference to the center or 4th point which may rotate with any reduction = increase as NON MOTION.So that when any being located in or on the 4th point may observe the remaining 3 points rotating so that any observer on them may start to displace by rotations about their common center but also be able to observe the observers on the other 3 points as being in equal motion and as such the stillness of their related to positions together with the center and it's observer.
>The observers may be as "on a glass sphere" while the motion of the sphere beneath their feet rotates so that the 3 observers and their common center obserer appear to remain in stillness.
This could be done by having 3 glass spheres or prisms and 4 points of light refracting as an example of the observers position so that their rotations conect the light beams into the motion of the center spherical prism.
>The observers may be as "on a glass sphere" while the motion of the sphere beneath their feet rotates so that the 3 observers and their common center obserer appear to remain in stillness.
This could be done by having 3 glass spheres or prisms and 4 points of light refracting as an example of the observers position so that their rotations conect the light beams into the motion of the center spherical prism.
The reflector mirrors at the 3 sides may also have a rotational moment (later applied WOBBLE) so that when in rotation by light, the effect of each of the 3 mirrors = higher rotational output of free energy.
With the wobble of light + the prism ,the light may start to spiral in or out.