[deleted]
Sir,
We are extremely grateful to you for raising some vital questions and giving us an opportunity to explain them.
In our essay we have described the meaning of "the object is in superposition of all possible states". Since all objects are continually evolving in time, and since we cannot know the true state of an object except for the instant we measured its state, we combine all other "unknown" states together and call it as "the object is in superposition of all possible states". This is different from the commonly accepted view.
You say: "Particles (and the objects they form) owe their rest energy to each other, so the energy two particles have according to each other equals the frequency of their exchange. The total energy of a particle WE measure is the sum, the superposition of all the frequencies it exchanges energy at with every other particle within its interaction horizon."
But how do you "know" or "measure" it? As we have described elsewhere, when some object is placed in a field, the object experiences something else. This something else is a kind of force. Depending upon the nature of such interaction, the force is classified into different groups. The particles don't interact with each other directly. Each interacts with the field, which, in turn gets modified locally due to such interaction. When other particles interact with this modified field, they experience a different force than that they would have experienced in the absence of the other particle. This is what we call the effect of one particle interacting with the other particle or how the particle "sees" the other particle. It is dependent on the distance between the two also (not alone). But what we measure is not observer independent. The location of the observer with reference to the particle introduces different uncertainties changing the values for the observer, though apparently it does not affect how a particle evolves in time (it affect in other subtle ways). There is no way to isolate the particles and measure their energy independently. Till now we have not been able to isolate a single proton or neutron from their environment to measure its charge directly. We have derived theoretically their charge, which shows that the magnitude of positive charge of proton is less than that of the negative charge of electron and that neutron is slightly negatively charged. This has to be experimentally verified.
Since no object is ever at rest, there is nothing as rest energy. What you describe as the rest energy is the effect of the total energy within the confinement that makes the particle stable by canceling the effect of each other. This gives the particle a particular density. When the density of the field is different from this density, the particle interacts with the field as a whole. This is known as its rest energy, which is divided by c^2 to give the rest mass. This varies from particle to particle - though apparently it is the same for similar particles as judged from their effect on other bodies in their surroundings. But then the effect will be different in different surroundings. For example, we require different amounts of force for displacing a plate kept in isolation on the table and a similar plate kept under a pile of plates. Similarly, the effect of quarks on its surrounding will be different from the effect of protons, neutrons and electron on their surroundings. If we compare their energy, we will get misleading information.
You are absolutely correct that "By assuming that their mass only is the source of their interactions, we make it impossible to understand what mass is." Properties depend upon the composite structure of the particle. These are exhibited independently or through interactions (like mass and weight). They should not be considered ib isolation for judging their effect. While considering their effect, we have to consider the totality of all effects. But then if one description is defective, that does not make the whole object non-existent. Big bang is not a proper theory. But explained properly, it has some basis.
A wave is a disturbance created due to the interaction of various forces acting on the field. We do not accept the wave function or its collapse, as there is no proof to accept such theories and the interactions can be explained by simpler methods. It is not true that the particle repeats in every cycle all possible energies. The particle either retains its position in the field while the wave passes by (planets in the solar system) or the particle moves with the field (planets move with the Sun in the galaxy). You are absolutely correct that "Though different observers then will, as a rule, find it in different states, if all observers repeat the same experiment over and over, they all find the same probability distribution of results." We treat planetary orbits as ellipses. But in reality, these are circular with the center (Sun) shifting continuously giving it an elliptical appearance. In effect, the ellipse is never closed. Thus, though the Kepler's laws give the proper position of planets, if we check back on the data collected by Tycho Brahe, which was used by Kepler to formulate his laws, we will find that the data do not match the theoretical prediction of the planets for those epochs.
You are correct that "Quantum particles, however, completely coincide with their function, their existence cannot be distinguished from their action, so they are not observable but in the effect of their existence." But then this is the difference between quantum particles and macro particles. Quantum particles are not small particles, but particles that unite with other particles to submerge their independent identity and create a particle of entirely different characteristics. Macro particles are a mixture of the atoms and molecules that retain their independent identity while creating new substances by various combinations. You confirm this when you say: "QED treats the proton as a fundamental, rather than a composite particle, but nonetheless can predict experimental results to an extreme accuracy, indicates that quark properties are not separately observed."
When the colliding energy is high enough, the reverse process starts and the quarks separate out, which shows their individual properties. You have correctly told that "If a particle only exist if and when its presence is expressed in identifiable interactions, can be observed or inferred from effects." But you have put it in the wrong sequence. When a particle exists its presence is expressed in identifiable interactions and can be observed or inferred from its effects on other bodies. The creation of a new particle can be in two ways as explained by you: "at high energy collisions and other violent events like supernovae explosions." These are opposite processes. At high energy collisions, the confinement of some objects is broken partially or fully leading to release of some energy. This leads to formation of a particle with higher mass or breaking up of the particles to its constituents. In the case of supernova, the confinement of all particles are broken and the entire energy is released till the interaction with the local medium slows them down and the inertia of restoration keeps the remnants intact. This does not prove that: "In that case we cannot say that baryons are built out of quarks."
Regarding multiverses, we agree with the definition "a hypothetical space or realm consisting of a number of universes, of which our own universe is only one." In our theory, the origin of our Universe necessitates the origin of multiverses. We will discuss it separately. It is true that they cannot communicate with each other. Only if our Universe exists, it follows that other Universes must exist. But the mechanism of their creation makes them incommunicado with each other. We accept that "things inside of it only exist to each other as far as they interact and have no reality outside their interactions" because that is how the objects are perceived - through their interactions that is intelligible and communicable. This is our definition of reality in our Essay. Regarding spin, we will discuss separately.
We stand by our statement that: "All bodies are created from the same fundamental particles." We have discussed it partly above to show that your inference may not be correct. You say: "If particles have to create themselves out of nothing, without any outside assistance, and have nothing to know with how to go about creating one another, then they'd hardly pop up in a flash with all properties fine-tuned to the last detail as the Big Bang tale has it. Instead, we may expect a trial-and-error process: whatever combination of particles, properties, exchange frequencies, mass ratio's, spins and kinds of behavior works in certain circumstances survives, as long as these circumstances last."
You have correctly answered this problem: "Though as particles create each other, they also create the environment to prosper in, once they master the trick to keep existing, they cannot but keep contracting, evolving in steps, through many detours, eventually to objects of ever-increasing mass density. Every step towards a denser particle configuration further reduces their freedom to act as they like: if particle properties, exchange frequencies are to survive, then destructively interfering frequencies (or associated virtual particles) must be got rid of, radiated away." But your conclusions are not fully correct. We have a detailed theory for this, which we will discuss separately.
We do not accept virtual particles. We have a name for what may be its equivalent, but is real. We call it "Rayi". We interpret your statement "their transition to real ones doesn't leave a recognizable footprint radiation, unlike the H H = He reaction, which likewise is an equilibrium reaction." differently. The H H = He reaction is not an equilibrium reaction like H H = 2H, because He has two additional neutrons over and above the two Hydrogen atoms. However, we can derive He from H H with "Rayi".
We agree with you that: "Neutrons and protons then can knit each other to atomic nuclei by exchanging electrons, by alternating their identity, their distance, spin and motion adjusted in such a manner that, within a large but limited temperature scale, their resonance is preserved." The problem with modern science is their total acceptance of the Coulomb's law. As we have hinted elsewhere, we do not accept it and explain charge behavior differently. In our model, the apparent attraction of opposite charges and repulsion of similar charges are explained differently. This also explains how protons and quarks of similar charge co-exist without invoking any additional binding energy. We will discuss about it separately.
Regards,
basudeba.