Strong Force

Background

The strong force is the most powerful of all the known forces. It is roughly 137 times stronger than electromagnetism.  It is the force that holds quarks together to form the proton and neutron, and its residual force (nuclear force) holds nucleons together in an atom’s nucleus to form atoms.

Although it is very strong, as the name implies, experiments have shown that the strong force only works at very short distances, about one femtometer, or roughly the radius of a proton.

quarks and neutron

Strong force – Neutron
(Standard Model representation of 2 down quarks and 1 up quark)

 


 

Explanation

The strong force is known to apply only at short distances. At distances less than the radius of the electron, longitudinal waves are standing in form. Beyond the radius, they are traveling waves. When two particles, such as two electrons, have wave centers that are within the boundary of the standing waves (radius), they are affected by, and contribute to, the standing wave structure of other particles to form a new wave core. In essence, they become a new particle. It would take incredible energy to overcome electromagnetic repelling of two electrons to reach this short distance, but once pushed to within the electron’s radius, two electrons would lock together and take a new form. The electrons can “lock” together if at the nodes of standing waves.  At a standing wave node, amplitude is minimal (zero), which meets the criteria for particle motion.

Gabriel LaFreniere has modeled quarks and this strong force, which creates gluons, below.  At close range, two particles create a strong attraction.

Quark Animated

Credit: Gabriel LaFreniere

 

Quark and Nucleon Attraction

This theory has calculated two key distances for the strong force based on the separation distance between particles at one electron wavelength and two electron wavelengths.  Note, one electron wavelength is equal to ten fundamental wavelengths, as the electron has ten wave centers (K=10).

Quark attraction is modeled as two particles, possibly electrons, with a separation distance of one electron wavelength. At this wavelength, a new standing wave structure is created and two particles appear as one, highly-energetic particle. A potential visual is provided below. An animated explanation is found in the proton explanation page.

Strong force - one wavelength separation

 

Nucleon attraction is modeled as two particles with a separation distance of two electron wavelengths. Again, a potential structure is proposed below but the important finding is the separation distance used in the Force Equation that models the peak force.

 

Strong force - two wavelength separation

 

The Force Equation is used again to calculate the strong force. The strong force calculations model the separation of particles Q1 and Q2 at three electron wavelengths and four electron wavelengths (one and two electron wavelength separations respectively, if considering the two particles being separated have a particle core distance of an electron wavelength each).

When two particles are separated at distances within the standing wave structure, the amplitude gain is the inverse of the fine structure constant. Amplitude is roughly 137 times greater when these particles are combined. Although the relationship to the fine structure constant is not unexpected, as it is known that the strong force is 137 times greater than electromagnetism, it is interesting to note that the force values only match experimental results when K=10, which is the wave center count for the electron and positron.

 


 

Equation

Strong Force

In simple terms using two groups (Q) of particles separated at distance (r), and the properties of the electron’s energy, mass and radius (Ee, mand re), the strong force of two electrons are:

Simplified Strong Force

 

When expressed in wave constant terms, it is the strong force:

Strong Force

 Strong Force

 

Orbital Force

When a wave passes through two quarks/electrons in the proton before repelling the orbital electron, the simplified version of the force equation looks nearly identical to the strong force but the effect on Q1 is squared. This is the repelling force that keeps an electron in orbit, balanced by the attractive positron in the proton that attracts the electron.

Simplified Orbital Force

 

When expressed in wave constant terms, it is the orbital force:

Orbital Force

 Orbital Force

 

The orbital force of a single proton. For various atom configurations, see the explanation of orbitals in the Atoms section.

 


 

Proof

Proof of the energy wave explanation for the strong force is the derivations and calculations of:

 

Example Calculation – Nuclear Force

Nucleon Separation at a distance of 1.13E-15 meters:

Using two particles with a separation distance of two electron wavelengths (2Kλ). Considering the radius of each electron core, the total distance between the two particle cores is four electron wavelengths (r=4Keλ) or 1.13 fm, measured in femtometers. At this distance, the calculated force is 2.488E4 newtons and is consistent with measurements for nucleon binding.

 

r = 1.127 x 10-15 m
Q1 = -1
Q2 = -1

Calculated Radius: 1.127 x 10-15 m  (or 1.127 fm)
Calculated Value: 2.488E4 newtons

Comparison Against Measurements: These values are compared to the measurements of nucleon separation in atoms in the chart below and agree with the maximum force at the calculated distance. Note force is negative due to it being an attractive force.

Nuclear Force

Nuclear Force (104 newtons)

 

Note: A summary of strong force calculations is found on this site; more detailed calculations with instructions to reproduce these calculations is found in the Forces paper.