This is written for laymen, so don’t worry, you will understand.

In stead of going into advanced physics I will deal with what is really important – the proof that this theory is a realistic and very precise model of reality.

## 1. Reality Test

The most important criterion of the relevance and validity of a scientific theory is how correctly it is able to describe reality.

Let us see how well Millsian Physics performs in this respect.

**a. Prediction of a molecular property**

It is not important that you understand the property. What is important is that it has been measured with high precision by different universities, yielding the same results for each molecule. (The property is called the *total molecular bond energy* and is different for different molecules. )

The mathematical models of Millsian Physics enable prediction of this property with great precision.

Below you will find a comparison between the size of the predicted and measured values using the formulas of Millsian theory.

The comparison represents a decisive validity test for Millsian theory as a whole, because, for this calculation, formulas representing the very core of the theory are used, not just fringe elements of limited influence (R.Mills, personal communication). The extent to which the predictions are correct, determines the validity of the theory as a whole.

Below you find a diagram that represents the predictions of Millsian Physics in 800 cases compared with the measured values published by independent universities:

The vertical axis indicates the value predicted by Millsian Theory and the horizontal indicates the correct (measured) value. The straight line going from bottom left corner to the upper right corner shows where the predicted and measured value should meet when the prediction is correct – let us call it the *perfect match line*.

So when the predicted value is 150, and the measured value is the same, as in the example above, the corresponding yellow and blue dotted lines meet at the perfect match line. It is basically green, but looks red because it is covered with red dots. This means that the predicted and measured value match very closely in all examined cases.

The **prediction error was** ** 0,1% **at an average.

Commonly scientific theories have larger levels of prediction error, and still they are accepted as viable models of reality. This is because in advanced natural science, the subject matter is so complex that scientists often have to accept somewhat inaccurate models. The performance of Millsian Physics in this respect is extraordinary.

### Solid empirical basis

*The mathematical formulas underlying all the above predictions *are derived from formulas of Classical Physics that have a solid empirical basis (Electrodynamics and Classical mechanics). They constitute an integral part of the very core of Millsian Theory. This contributes to the strength of Millsian theory.

## Conclusion

The correctness of the predictions of the Total Molecular Bond value in every one of a large number of cases as well as of the molecular structure of complex molecules is sufficient to confirm that Millsian Physics is a valid and precise model of reality.

**A crucial point** here is that the formulas used for the predictions *belong to the very core of Millsian Theory**. *

### Therefore, *the correctness of these predictions confirms the theory as a whole*.

*the correctness of these predictions confirms the theory as a whole*

## 2. Comparison with Quantum Mechanics

In the evaluation of a new theory, claiming to be a more “true” model of reality than the prevailing understanding, it is customary to compare with the theory presently considered the most successful. In this field, *Quantum Mechanics* (QM) is the contender.

### Comparison of the prediction of Total Molecular Bond Energy

Let us again have a look at this prediction by Millsian Physics and compare with prediction of exactly the same values by Quantum Mechanics. See the diagram below (click on it to enlarge)::

The superiority of Millsian Physics is obvious. In contrast, only a few predictions by QM of the Total Molecular Bond Energy are correct, and many are far off the mark, several of them “catastrophically”, a term used in physics when the predicted value is impossible (zero when the real value is far higher).

*This is a completely objective comparison*. The measurement values have been established with high precision by independent researchers and the predictions follow automatically from the mathematical formulas of either theory and leave no room for any tweaking.

#### The low precision in the prediction of Total Molecular Bond values, indicates important flaws in Quantum Mechanical Theory in contrast to the remarkable success of Millsian physics.

### Precise prediction of molecular structure

Regarding **molecular structure**, Quantum Mechanics has difficulties of describing even very simple molecules as Helium. This illustrates the incompleteness of QM. Therefore, to characterize more complex molecules, a combination of classical mechanics and quantum physics is required (the Nobel Prize in chemistry of 2013 was awarded for this methodology).

Millsian Physics, on the other hand, has no problem in describing even very complex molecules, see “Molecular Physics” and offers commercial service for this purpose (see Millsian.com). Differently from the Nobel Prize-winning method, it does not need quantum physics. Using only classical mechanics it represents a simpler and more elegant solution for describing molecules. Below is an example of the precise match between the molecular structure as predicted by Millsian theory and an image of the molecule:

### Lambda shift prediction

The successful prediction by Quantum Mechanical Theory of the **Lambda shift,** indicates that, in some special contexts, the QM theory may touch reality but its conspicuous failure in other cases indicates the presence of important flaws, while the fact that Millsian Physics performs consistently with high precision indicates that it has no major flaws.

### Cosmological predictions

Differently from Quantum Theory, Millsian physics has successfully developed a mathematically consistent and coherent model that covers all orders of magnitude in the Universe from the smallest nuclear particles to galaxies. Thereby it was the first one to predict the eternal *expansion of the Universe* and it is able to *integrate gravity* in the model, which has been an unsolved enigma in Quantum Theory, see footnote “Covering all orders of magnitude”.

### Conclusion

These comparisons should be enough for settling the issue which theory is a more realistic model of reality.

## Critics are off the mark

Some physicists have criticized and rejected Millsian physics with the argument that it violates fundamental principles of Quantum Mechanics. This argument indicates that they don’t understand the issue or have not studied the matter properly.

Millsian Physics is a complete theory *meant to replace Quantum Mechanics,* establishing *different laws and principles*.

Therefore it is wrong to argue that Millsian Physics is unacceptable because it is incompatible with Quantum Mechanics. This is exactly what it has to be to justify its claim to be a different theory. For more details, see the article “Critics are off the mark“.

## General Conclusion

Millsian Physics satisfies the major criterion of validity for a scientific theory – predictive power – to a remarkable extent. The precision and consistency of correct predictions as presented here are considerably superior to Quantum Mechanics which indicates that Millsian Physics is a better model of physical reality.

### Footnote

#### Covering all orders of magnitude

[Millsian physics covers] Collective Phenomena (CP) such as the basis of the statistical thermodynamic relationships and superconductivity, the basic forces and structure of matter on the nuclear scale and the cosmological ramifications of CP such as the identity of absolute space that unifies all frames of reference, solves the nature of the gravitational and inertial masses and their equivalence, gives the derivation of Newton’s second law, and solves the origin of gravity, the families and masses of fundamental particles, and large-scale features and dynamics of the universe including the prediction of the current acceleration of the cosmic expansion and the absence of time dilation in red-shifted quasars. The central enigmas of quantum mechanics mainly regarding the wave-particle duality are also resolved classically.