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originally posted by: IAMUnification
The hypothesis stated in the equation is that the total energy of an object is not just equal to its mass, but also to its sound energy, light energy, binding energy, electric energy, and magnetic energy.
This hypothesis is based on the idea that all forms of energy are interrelated, and that they can be converted into each other.
Further the equation represents mass as a product of the interference between the wave expressions of light and sound as is being shown in the binding energy equation
This has not been proven, but it has been supported by experimental evidence.
For example, it has been shown that sound waves can be converted into light waves, and that light waves can be converted into electric and magnetic fields.
I hope this is an articulate and coherent response that gives a place to begin.
a reply to: Justoneman
That is the correct equation (if you correctly write the superscripts), and it says the mass aka the "rest mass" aka the "only mass" doesn't increase when the particle is in motion.
originally posted by: AllAnIllusion
a reply to: IAMUnification
But isn't this the same rational as for why E=MC2 is only valid in static objects and that E2 = m2c4 + p2c2 (where p is momentum) is the correct equation for moving objects.
The mass of a proton for example is 99% binding energy, so it's incorrect to say or imply the mass of a proton is it's mass plus its internal binding energy, that's not how it works:
originally posted by: IAMUnification
The hypothesis stated in the equation is that the total energy of an object is not just equal to its mass, but also to its sound energy, light energy, binding energy, electric energy, and magnetic energy.
In the case of nucleons – protons and neutrons – QCD binding energy forms about 99% of the nucleon's mass. That is if assuming that the kinetic energy of the hadron's constituents, moving at near the speed of light, which contributes greatly to the hadron mass,[1] is part of QCD binding energy. For protons, the sum of the rest masses of the three valence quarks (two up quarks and one down quark) is approximately 9.4 MeV/c², while the proton's total mass is about 938.3 MeV/c².
originally posted by: IAMUnification
Argue this,, then..
The frequency of light can affect the expression of an atom by causing the electrons in the atom to move from one energy level to another. When an electron absorbs a photon of light, it gains energy and moves to a higher energy level. When an electron emits a photon of light, it loses energy and moves to a lower energy level.
The energy of a photon of light is equal to Planck's constant multiplied by the frequency of the light. This means that the higher the frequency of the light, the more energy the photon will have.
The energy levels of electrons in an atom are quantized, which means that they can only have certain values. When an electron absorbs a photon of light, it can only move to an energy level that is equal to or greater than the energy of the photon.
When an electron emits a photon of light, it can only move to an energy level that is equal to or less than the energy of the photon.
The frequency of light can therefore affect the expression of an atom by causing the electrons in the atom to move from one energy level to another. The higher the frequency of the light, the more energy the photon will have, and the more likely it is to cause an electron to move to a higher energy level.
The expression of an atom can also be affected by the intensity of the light. The more intense the light, the more photons there will be, and the more likely it is that one of the photons will cause an electron to move to a higher energy level.
The resonant sound frequencies of an atom are the frequencies of sound waves that can cause the atoms to vibrate. These frequencies are determined by the mass and stiffness of the atoms.
When an atom is vibrated by a sound wave, it absorbs energy from the wave. This energy is used to increase the amplitude of the vibration. If the amplitude of the vibration becomes too large, the atom can be damaged or even destroyed.
The resonant sound frequencies of an atom can be used to manipulate the atom. For example, sound waves can be used to heat atoms or to cause them to emit light.
Resonance is a powerful phenomenon that can have a significant impact on the behavior of atoms. It is important to understand resonance so that we can use it to our advantage.
Here are some examples of how resonant sound frequencies can be used:
* In ultrasonic cleaning, sound waves are used to vibrate dirt and debris loose from surfaces.
* In medical imaging, sound waves are used to create images of the inside of the body.
* In sonochemistry, sound waves are used to create chemical reactions.
Resonance is a powerful tool that can be used to manipulate atoms and molecules. It has a wide range of applications in science, engineering, and medicine.
a reply to: KSDakar01
originally posted by: IAMUnification
Absolutely
The AI hates this. But it let me explore all the data.
a reply to: chr0naut
originally posted by: chr0naut
originally posted by: IAMUnification
Absolutely
The AI hates this. But it let me explore all the data.
a reply to: chr0naut
But an AI cannot determine the truth or falsity of the data it is presented with.
An example is that ChatGPT, in the early days, insisted that 27 was a prime number (an oft repeated error) and it could not be convinced otherwise. It required human intervention to purge the incorrect data from its dataset.
There are numerous false, but often repeated, snippets of information out there on the world weird web. It is only through human censoring of the data that its error rate reduces, and this process will take decades.
You don't confirm scientific theories by bouncing them off a pathological liar.
originally posted by: MykeNukem
originally posted by: chr0naut
originally posted by: IAMUnification
Absolutely
The AI hates this. But it let me explore all the data.
a reply to: chr0naut
But an AI cannot determine the truth or falsity of the data it is presented with.
An example is that ChatGPT, in the early days, insisted that 27 was a prime number (an oft repeated error) and it could not be convinced otherwise. It required human intervention to purge the incorrect data from its dataset.
There are numerous false, but often repeated, snippets of information out there on the world weird web. It is only through human censoring of the data that its error rate reduces, and this process will take decades.
You don't confirm scientific theories by bouncing them off a pathological liar.
That's interesting about the 27 thing, first I heard that.
Yea, not quite reliable yet, just a glorified algorithm, GIGO.
when you consider they are all connected