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ATOMIC PARTICLES

By Charles Rhodes, P.Eng., Ph.D.

INTRODUCTION:
The material contained on this web page involves application of spheromak theory to atomic particles.
 

HISTORY:
During the period February 2016 to to August 2016 Charles Rhodes showed that elementary charged particles such as electrons and protons with quantum charges have structures analogous to electromagnetic spheromaks. Electromagnetic spheromaks have energy associated with their electric and magnetic fields. Note that real charged particles must consist of at least two concentric spheromaks to simultaneously meet the experimentally measured charge, mass and magnetic moment parameters.

A spheromak can be described in terms of a closed quantum line charge moving at the speed of light along a closed path with Np poloidal turns and Nt toroidal turns. An electromagnetic spheromak has a relative energy minimum at Np = 222 and Nt = 305, and these integers together with the speed of light C, the permiability of free space Mu, the quantum charge Q and the geometric constant Pi precisely define the Planck constant h. The integer Np and Nt values also set the magnetic properties of quantum charged particle spheromaks. The spheromak dimension Ro determines the frequency F and the amount of energy Ett contained in the spheromak.

Like a spheromak real quantum charged particles have energies Ett that obey:
Ett = h F
where:
h = Planck constant
and
F = characteristic frequency of the particle at that energy.

Spheromaks have quantized poloidal and toroidal magnetic fluxes. For a particular poloidal magnetic flux direction there are two equally possible toroidal flux directions. Thus much of quantum mechanics rests on the structure and behavior of electromagnetic spheromaks.
 

CHARGED PARTICLE EXISTENCE:
A charged atomic particle, such as an electron or proton, is a localized packet of energy which obeys:
E = h F.
The particle structure contains energy in electric and magnetic fields as a result of circulating quantized electric charge that continuously moves along a closed spiral path at the speed of light. The charge motion causes local toroidal and poloidal magnetic fields. The charge causes an external radial electric field. In the case of a simple spheromak the closed charge motion path traces out a toroidal shaped surface referred to as the spheromak wall. The resulting electric and magnetic fields have an energy density and are stable in time and relative position. Integrating the field energy density over all space gives the spheromak's contribution to the particle rest potential energy. In its normal minimum energy state (ground state) the spheromak does not radiate photons. Hence a spheromak's energy is stable. The energy content of a spheromak is inversely proportional to the spheromak's linear size.
 

SPHEROMAK WALL POSITION:
The circulating charge forms a charge and current sheet known as the spheromak wall. The position of the spheromak wall in space relative to the center of the spheromak is stable if at every point on this wall the total field energy density on one side of the wall is equal to the total field energy density on the other side of the wall and if at every point on the wall the position of the wall corresponds to a spheromak total energy minimum . These conditions define the physical shape of the spheromak wall and hence the closed spiral charge path.
 

PHOTON ABSORPTION AND EMISSION:
If a stable particle changes energy by absorption or emission of a photon it shifts from its initial stable state to a new stable state. In order for the particle's field energy to increase the circulation frequency of the quantized charges must increase and hence the linear dimensions of the spheromak must decrease. The ratio:
(change in spheromak field energy) / (change in circulation frequency) = h
is known as the Planck constant

The Planck constant is a function of other physical constants quantum charge Q, speed of light C and permiability of free space Mu.
 

NUCLEAR MAGNETIC RESONANCE:
The potential energy of a charged particle located in an externally applied magnetic field is dependent upon the particle's orientation with respect to the axis of the applied magnetic field. A change in the particle symmetry axis orientation with respect to the magnetic field axis is accompanied by emission or absorption of a photon. The frequency of that photon is proportional to the external magnetic field strength and the particle magnetic moment.

This phenomena is known as nuclear magnetic resonance (NMR). This phenomena has immense importance in biomedical magnetic imaging. However, NMR has limited general application because the magnetic moments of different nucleons tend to cancel each other.

The experimentally measured magnetic moments of some particles are:
PARTICLE    MAGNETIC MOMENT (X 10^-27 J / T)SPIN QUANTUM NUMBER
Electron-9284.7641 / 2
Proton14.1060671 / 2
Neutron-9.662361 / 2
H-24.33073461
H-315.0460941 / 2
He-3-10.7461741 / 2
He-40.00

 

ELECTRON MAGNETIC RESONANCE:
The electrons in a material exist in a wide range of local magnetic fields due to both nuclei and other electrons. Hence in many materials electrons absorb and emit photons over wide frequency bands. The lack of sharp frequency dependent resonances makes electron magnetic resonance a relatively little used technique. However, broad band emission of photons by thermally energized electrons is an important source of thermal radiation.
 

PARTICLE SIZE AND PARTICLE REST MASS:
The derivation of the Planck constant on this web site is independent of the spheromak nominal radius Ro and hence is independent of the total spheromak electromagnetic energy Ett.
If:
Rs = outside radius of spheromak wall with respect to the spheromak major axis;
Rc = inside radius of spheromak wall with respect to the spheromak major axis;
then the Planck constant effectively sets the parameter So where:
So^2 = (Rs / Rc)
but does not directly establish:
Ro = (Rc So) = (Rs / So)

Thus the Planck constant is the same for different energy particles such as electrons and protons that have the same quantum charge magnitude.

Work with Josephson junctions in superconducting materials indicates the existence of a magnetic flux quantum of:
Phio = h / (2 Q)
= 2.0678337 X 10^-15 Weber.

This magnetic flux quantum is an observed change in magnetic flux due to gross movement of a single electron and hence is itself much larger than the underlying magnetic flux quantum. To pursue this theory we develop on this web site accurate expressions for both the quantum spheromak poloidal magnetic flux and the quantum spheromak toroidal magnetic flux.

At this time, we have no idea as to the underlying mechanism of charge quantization. The magnetic flux quantization is simply a result of charge quantization and the laws of electrodynamics.
 

SPHEROMAK INTERACTIONS:
Particles that are separated by long distances interact via their electric fields. These electric fields cause acceleration of the entire particle mass. However, when the distance between particles is small the situation becomes more complicated. Particles may merge and in the process emit photons. In addition some particle potential energy may convert into particle kinetic energy.
 

SPHEROMAK THEORY APPLICATION:
The behavior of isolated quantum charged particles can be described by using spheromaks. The behaviour of ionized gases forming a plasma is well described by spheromaks.
 

ELECTRONS, PROTONS, NEUTRONS, DEUTERONS, POSITRONS AND ANTI-PROTONS:
In our local universe energy is primarily concentrated in the rest mass of stable particles known as electrons and protons. There are also neutrons which may be stable in an atomic nucleus but which in free space soon decay into electrons, protons and neutrinos.
The net charge on a proton is 1.60217657 X 10^-19 coulombs.
The net charge on an electron is - 1.60217657 X 10^-19 coulombs.
The net charge on a neutron is zero.
The rest mass of a proton in free space is 1.67262178 X 10^-27 kg.
The rest mass of an electron in free space is 9.10938291 X 10^-31 kg.
The rest mass of a neutron in free space is slightly more than the combined rest masses of a proton plus an electron.
The rest mass of a deuteron in free space is slightly less than the combined rest masses of a neutron plus a proton.

There are corresponding charged particles known as positrons and anti-protons.
A positron has the same mass as an electron but opposite charge.
An anti-proton has the same mass as a proton but opposite charge.
These anti-particles are rare in our local universe. Positrons usually occur as a result of conversion of a > 1 MeV gamma photon into an energetic electron-positron pair. In some nuclear decays the energy release is sufficient to produce an energetic electron-positron pair. The positron is emitted while the net charge on the nucleus decreases by addition of one electron charge. That electron is absorbed by a proton and converts that proton into a neutron.

Note that neutrons rely on the electric fields from adjacent protons for long term stability. Absent such external electric fields free neutrons spontaneously decay with a half life of about 10 minutes.

Spin is a charged particle parameter which is related to the direction of the spheromak toroidal magnetic field with respect to the the direction of the spheromak poloidal magnetic field. For a specific poloidal magnetic field direction there are two possible toroidal magnetic field directions. In an atomic nucleus the nucleons tend to pair up so that their net external poloidal magnetic fields cancel. Similarly, in an atom the electrons tend to pair up so that their net external poloidal magnetic fields cancel. Field cancellation reduces the aggregate total energy and thus creates a mutual potential energy well. The combined electric and magnetic interactions between the particle spheromaks creates numerous closely spaced energy states.

A free electron is generally indistinguishable from every other similarly oriented free electron except via its spin.
A free proton is generally indistinguishable from every other similarly oriented free proton except via its spin.
A free positron is generally indistinguishable from every other similarly oriented free positron except via its spin.
A free anti-proton is generally indistinguishable from every other similarly oriented free anti-proton except via its spin.

Under circumstances of a high gamma photon concentration and a low particle concentration a photon can convert into an electron-positron pair. In circumstances of a high charged particle concentration and a low gamma photon concentration an electron and a positron can annihilate each other to form a photon. Under circumstances of a very high energy gamma photon concentration and a low particle concentration a very high energy gamma photon can convert into a proton-anti-proton pair. Under circumstances of a low gamma photon concentration and a high particle concentration a proton and an anti-proton will annhilate each other to form a new gamma photon. There is an equilibrium between radiation energy density and particle concentration at which the rate of pair production equals the rate of pair annihilation. At this equilibrium the photons and the particles are said to be at the same temperature.

Our local universe has evolved to the point that, except in the cores of stars, the concentration of high energy gamma photons that can produce particle-anti-particle pairs is very low and the concentration of anti-particles is very low, so that particle generation and annihilation are no longer significant processes. However, cosmologists believe that the universe evolved from an initial high gamma photon concentration known as the "big bang". The high energy gamma photons formed charged particles. The charged particles prevent astronomers observing prior events.
 

CHARGE HOSE:
A Charge hose is a mathematical construct that quantitatively explains experimentally observed atomic particle and plasma spheromak phenomena.

A quantum charged particle in a spheromak can be mathematically modelled as a long thin filament of circulating charge flowing within a hose. The hose coils to form a toroidal shaped charge and current sheet known as a spheromak wall. The two hose ends are connected together to form a closed spiral path with length Lh. The spheromak wall forms the geometric divider wall of a stable electromagnetic configuration known as a spheromak.
 

CHARACTERISTIC FREQUENCY:
If C = speed of light, then the time required for cyclic net charge propagation around the closed charge hose path of length Lh gives the charged particle at rest a characteristic frequency Fh where:
Fh = C / Lh

Note that if the moving charge is composed of opposite charges moving in opposite directions the individual charge motion can be less than the speed of light whereas the apparent charge motion is at the speed of light.

For a given charge the smaller a spheromak is the more energy that it contains and the higher is its characteristic frequency Fh. If the charged particle's energy changes due to photon capture or photon emission while the particle's net charge remains constant there is a corresponding change in spheromak size and hence there is a corresponding change in the charged particle's characteristic frequency Fh. The emitted or absorbed photon must reflect both the change in energy and the change in the charged particle characteristic frequency. The proportionality constant between the change in energy and the change in frequency Fh is known as the Planck constant h. Note that the emitted or absorbed photon frequency Fp is the beat frequency difference between the initial particle characteristic frequency Fha and the final particle characteristic frequency Fhb. Thus:
Fp = |Fhb - Fha|
 

ENERGY STABILITY:
As long as charge is uniformly distributed along the length of the charge hose and moves at a uniform axial velocity C along the charge hose, and as long as the charge hose coil is dimensionally stable, there is no change in the spacial distribution of charge with time and hence there is no change in field geometry or field energy. Hence there is no emitted or absorbed electromagnetic radiation and the particle is stable.
 

DISCRETE SOLUTIONS:
There is a further aspect of charge hose that is important in quantum mechanics. In order for the particle to be stable over time each turn of the charge hose of length Lp around the charge hose coil's main axis of symmetry must be the same length and geometry as every other similar such turn. Likewise each turn of length Lt around the toroidal axis must be the same length and geometry as every other similar such turn. The number of poloidal turns Np and the number of toroidal turns Nt must both be exact integers. The poloidal and toroidal directions are orthogonal. Hence:
Lh^2 = (Np Lp)^2 + (Nt Lt)^2
 

NEUTRON STRUCTURE:
Consider two charged particles, one inside the other, sharing common major axes, with opposite net static charges. If these opposite charges are identical the result is a particle with no net charge but with a net external magnetic moment. This is the assumed structure of neutrons and anti-neutrons.

The electric field between the inner particle and the outer particle contains part of the neutron rest mass energy.
 

NEUTRAL ASSEMBLY:
Consider two particles, one inside the other, sharing common major axes and with opposite net static charges. The positive particle has much more energy than the negative particle and hence fits inside the core of the negative particle. If these opposite charges are identical the result is an assembly with no net charge known as a hydrogen atom.

The electric field between the inner particle and the outer particle contains part of the assembly rest mass energy.
 

NUCLEAR PARTICLE BINDING:
A proton can readily magnetically bind to 0, 1 or 2 neutrons to form hydrogen, deuterium and tritium nuclei. A tritium nucleus is unstable and absent intense gamma ray radiation spontaneously decays into a He-3 nucleus. A particularly stable combination is two protons plus two neutrons forming a He-4 nucleus. The He-4 nucleus has no net magnetic moment, indicating that its constituant particles are positioned such that all the individual magnetic moments cancel.
 

CHARGED PARTICLE MODEL:
The following structure summarizes my understanding of the physical properties of simple charged particles.

A free charged particle is composed of at least two spheromaks. Each spheromak can be viewed as a quantum of charge that is uniformly distributed along a closed spiral path. The charge motion along this spiral path is at speed of light C. The period required for the charge quantum to cycle around the closed path length Lh has a corresponding frequency Fh which gives the charged particle spheromak a characteristic frequency. The spheromaks' electric and magnetic field energies collectively form the particle's rest mass energy.

For a spheromak the closed spiral charge path forms a toroidal shaped charge and current sheet known as the spheromak wall. Inside the spheromak wall the magnetic field is purely toroidal. Outside the spheromak wall the magnetic field is poloidal. Due to the closed spiral current path geometry the charge per unit area on the spheromak wall varies with the radius from the toroid's main axis of symmetry. This configuration forms a stable spheromak. Outside the spheromak wall the total energy density U takes the form:
U = Uo [Ro^2 / ((Ro)^2 + R^2 + H^2)]^2
where:
Uo = a single spheromak peak energy density;
Ro = a characteristic radius from the spheromak's main axis of symetry which determines the spheromak's contained energy;
R = radius of a point from the spheromak's main axis of symmetry;
H = distance of a point from the spheromak's equitorial plane.

Define:
Rc = inner radius of spheromak wall on the equatorial plane
Rs = outside radius of spheromak wall on the equatorial plane.

Inside the spheromak wall, where the radial electric field and the toroidal magnetic field are proportional to (1 / R), for:
Rc < R < Rs
the field energy density is given by:
Ut = Uto [Ro / R]^2

Note that U is the sum of the electric field energy density plus the magnetic field energy density and that for spheromak stability the expressions for U inside and outside the spheromak wall must be equal everywhere on the spheromak wall.

Thus at R = Rc, H = 0:
U = Uo [Ro^2 / ((Ro)^2 + Rc^2)]^2 = Uto [Ro / Rc]^2
and at R = Rs, H = 0:
U = Uo [Ro^2 / ((Ro)^2 + Rs^2)]^2 = Uto[Ro / Rs]^2

Thus equating the expressions for Uto gives:
[Ro Rc / ((Ro)^2 + Rc^2)]^2 = [Ro Rs / ((Ro)^2 + Rs^2)]^2
or
[Ro Rc / ((Ro)^2 + Rc^2)] = [Ro Rs / ((Ro)^2 + Rs^2)]
or
((Ro)^2 + Rs^2) Rc = ((Ro)^2 + Rc^2) Rs
or
Rs Rc (Rs - Rc) = (Ro)^2 (Rs - Rc)
or
Rs Rc = (Ro)^2

The spheromak shape factor So is defined by:
So^2 = (Rs / Rc)

Note that for (R^2 + H^2) >> Ro^2 the dependence of U on radial distance is the same as for a theoretical point charge.

Spheromaks tend to emit photons until they reach their stable low energy state which occurs at:
So^2 ~ 4.1047

As shown on other web pages on this web site this spheromak mathematical model accurately predicts the Planck constant and appears to explain the experimentally observed parameters of particle charge, particle magnetic moment and particle spin.
 

ATOMIC PARTICLE SPHEROMAK:
The charge on an atomic particle spheromak is quantized. The mechanism of this charge quantization is not known. The net charge circulates at the speed of light. The circulating charge exhibits no inertial mass. The characteristic frequency Fh of an atomic particle spheromak is:
Fh = C / Lh
where:
C = speed of light
and
Lh = charge hose length
= [(Np Lp)^2 + (Nt Lt)^2]^0.5
where:
Lt = toroidal turn length
Lp = toroidal magnetic path length at R = Rf

Np = number of poloidal turns in length Lh
Nt = number of toroidal turns in length Lh

The characteristic frequency Fh of an atomic particle is given by:
Fh = C / Lh
= C / [(Np Lp)^2 + (Nt Lt)^2]^0.5

Due to spheromak geometry:
Lp = Pi (Rs + Rc)
and
Lt = Pi (Rs - Rc)
and
Ro / Rc = So = Rs / Ro

Thus:
Fh = C / [(Np Lp)^2 + (Nt Lt)^2]^0.5
 
= C / [(Np Pi (Rs + Rc))^2 + (Nt Pi (Rs - Rc))^2]^0.5
or
Fh = C / {Pi Ro [[(Np (Rs + Rc))^2 / (Ro)^2] + [(Nt (Rs - Rc))^2 / (Ro)^2]]^0.5}

Hence:
(1 / Ro)
= {Pi Fh / C) [[(Np (Rs + Rc))^2 / (Ro)^2] + [(Nt (Rs - Rc))^2 / (Ro)^2]]^0.5} (Fh / C)
= {Pi Fh / C) [[(Np Rc (So^2 + 1))^2 / (Ro)^2] + [(Nt Rc (So^2 - 1))^2 / (Ro)^2]]^0.5}
= {Pi Fh / C) [[(Np (1 / So) (So^2 + 1))^2] + [(Nt (1 / So) (So^2 - 1))^2]]^0.5}

and
Ih = Qs C / Lh
= Qs C / [(Np Lp)^2 + (Nt Lt)^2]^0.5
= Qs C / {Pi Ro [[(Np (Rs + Rc))^2 / (Ro)^2] + [(Nt (Rs - Rc))^2 / (Ro)^2]]^0.5}

 

TOTAL ISOLATED SPHEROMAK ENERGY:
As shown on the web page titled SPHEROMAK ENERGY the total energy of an isolated spheromak is given by:
Ett = (Ett / Efs) Uo Pi^2 Ro^3
where:
Efs = Uo Ro^3 Pi^2
and
(Ett / Efs) ~ 0.95 at So^2 = 4.0
 

CHARGE HOSE SUMMARY:
A charge hose is characterized by a net charge Qs, an axial current Ih and a frequency Fh. The net charge gives the particle an external electric field. The charge hose current:
Ih = (Qs C / Lh)
gives the charged particle an external poloidal magnetic field and an internal toroidal magnetic field. Changing the symmetry axis orientation with respect to an externally applied magnetic field causes the particle to absorb or emit photons. Linear motion of the particle with respect to an external observer gives the particle linear momentum which changes the characteristic frequency F. Interaction of neighboring spheromaks converts potential energy into kinetic energy.
 

DEFINITIONS:
Define:
Nnh = number of negative charge quanta forming the charge hose;
Nph = number of positive charge quanta forming the charge hose;
Lh = length of charge hose;
Vn = negative charge axial velocity through the charge hose;
Vp = positive charge axial velocity through charge hose;
Qp = one quantum of positive charge
Qn = one quantum of negative charge
Q = net charge on a proton
 

QUARK BEHAVIOR:
Simple atomic particles are composed of quarks that move around the closed path at less than the speed of light. Hence if the net apparent static charge Qs is:
Qs = (Qp Nph + Qn Nnh)
the effective charge hose current Ih is:
Ih = [(Qp Nph Vp + Qn Nnh Vn)] / Lh
= Qs C / Lh

Under quark theory:
Qs = (Qp Nph + Qn Nnh)

For a proton:
Qp = (2 / 3) Q
Nph = 2
Qn = - (1 / 3) Q
Nnh = 1
giving:
(Qp Nph + Qn Nnh) = [(2 Q / 3) (2)] + [(- Q / 3) (1)]
= Q = Qs

For a proton:
Ih = [(Qp Nph Vp + Qn Nnh Vn] / Lh
= [(2 Q / 3) (2) Vp + (- Q / 3)(1) Vn] / Lh
= Q C / Lh
 

ATOMIC PARTICLES:
Spheromak like structures account for the existence of stable elementary charged particles. In these particles net charge moves along a closed spiral path at the speed of light C and adopts a shape of a spheromak. The rest mass of each atomic particle comes from the energy contained within its spheromak's electric and magnetic fields. The externally observed quantum charge units behave as though they are themselves composed of opposite but unequal sub-quantum charges known as quarks.
 

NUCLEAR BINDING:
The elementary stable charged particles are electrons and protons. A proton can give stability to up to two adjacent coupled neutrons. Stable atomic nuclei appear to be coupled collections of H-1, H-2, H-3, He-3 and He-4 nuclei. This structure is experimentally observed via the net nuclear magnetic moment.

At very short ranges the magnetic field energy density of a spheromak exceeds the electric field energy density. A neutron's magnetic moment is similar to a proton's magnetic moment. Hence adjacent protons and neutrons in appropriate ratios can magnetically couple together in spite of the apparent high electric field repulsive forces.

Binding mechanisms seem to account for the experimentally observed changes in nuclear magnetic moment and nuclear structure stability depending on the numbers of protons and neutrons in the observed atomic nuclei.
 

DEFINITIONS:
Nne = number of equivalent electron charges in an atomic nucleus;
Nnp = number of equivalent positron charges in an atomic nucleus;
Nip = number of equivalent proton charges in an atomic nucleus;
Nie = number of equivalent anti-proton charges in an atomic nucleus

Thus:
Number of protons in a nucleus = (Nip - Nne)
Number of neutrons in a nucleus = Nne
 

NATURAL RADIO ISOTOPE DECAY:
An atomic nucleus consists of an assembly of charged particles. Atomic nuclei are only stable at certain proton to neutron ratios. If this nucleus can change into a similar assembly with a lower energy by emission of an electron, positron or alpha particle (He-4 nucleus) and/or a photon this change may spontaneously occur. Such a change is known as radio active decay. The time required for half of the nuclei of a particular isotope to spontaneously decay is known as that isotope's half life.

The range of possible decay paths is constrained by the requirement for simultaneous compliance with the laws of conservation of energy, conservation of momentum and conservation of charge.

A decrease in nuclear energy occurs making the nucleus more stable when emission of an electron decrements the number of neutrons Nne and increments the number of protons (Nip - Nne).

A decrease in nuclear energy occurs making the nucleus more stable when there is electron-positron pair production immediately followed by positron emission and absorption of the remaining electron which decrements the number of protons (Nip - Nne) and increments the number of neutrons Nne.
 

ELECTRON AND POSITRON:
The total spheromak rest energy is the sum of the external electric field energy, the internal electric field energy, the external poloidal magnetic field energy and the internal toroidal magnetic field energy.

The poloidal circulation of charge around a spheromaks main axis of symmetry gives a spheromak its external magnetic moment. The toroidal circulation of charge gives a spheromak its spin. Since the toroidal charge motion has two direction possibilities with respect to a particular poloidal magnetic field direction, a spheromak aligned to an external magnetic field has two possible spin states which are of equal energy. In some materials application of a strong external magnetic field can partially align the electron poloidal magnetic fields causing a phenomena known as Electron Spin Resonance (ESR). ESR has limited general application because in many materials the electron magnetic moments cancel each other.
 

PROTON:
The Standard Model indicates that a proton is composed of three quarks, two of which each have charge:
(2 Q / 3)
and one with charge:
(- Q / 3).

Note that isolated quarks have never been experimentally observed. However, they exist as mathematical constructs that explain the existance of stable charged particles. Quarks seem to behave as separate entities within a proton.

The electromagnetic field structure of a proton is believed to be similar to that of an electron.
 

BOUND NEUTRON:
A neutron bound within an atomic nucleus has zero net charge and may or may not be stable, depending on its nearest neighbours. A neutron within a stable atomic nucleus can be viewed as consisting of a proton plus an electron plus some additional energy and opposed spin.
 

FREE NEUTRON:
Outside of an atomic nucleus a free neutron is unstable. A free neutron (a neutron outside an atomic nucleus) has zero net charge and thermal neutrons have an apparent half life of about 11 minutes. A free neutron contains slightly more energy than the sum of the energies of its main components, a proton and an electron. The neutron mass and neutron decay characteristics suggest that a neutron consists of a proton charge plus an electron charge plus a small amount of additional energy. On neutron decay the extra energy forms a neutrino which conveys spin but no charge and which only rarely interacts with charged particle matter.

A free neutron has no net external electric field, which absence prevents external electric field based spheromak wall stability. Charge hose current appears to account for the neutrons external magnetic field. However, outside of an atomic nucleus a free neutron is unstable.

I suspect that a free neutron is a an unstable structure consisting of a positive spheromak and a negative spheromak sharing the same symmetry axis. The inner spheromak is much smaller and provides most of the particle mass. The outer spheromak is larger and provides most of the particle magnetic moment. This structure lacks a stabilizing external electric field and hence is potentially unstable in free space. This structure can potentially be stable in a nucleus where other nearby protons provide an external stabilizing electric field.
 

CONCENTRIC SPHEROMAKS:
Elementary particles including electrons, protons and neutrons seem to be formed from two or more concentric spheromaks. Typically the inner spheromak provides most of the particle mass and the outer spheromak provides most of the particle magnetic moment. This issue is discussed in detail on the web page:
CONCENTRIC SPHEROMAKS.

Note that for a proton part of the energy that is internally contained in a neutron is contained in the external field of a proton. An electron is structually different again because with the same charge it contains much less energy.
 

NUCLEAR BINDING:
Nuclear particle binding appears to involve spheromak to spheromak magnetic binding.
 

ATOMIC NUCLEUS:
An atomic nucleus can be viewed as being an assembly of protons and neutrons that are trapped within a mutual potential energy well. The mutual potential energy well is deep and is stable only at certain values of the number of protons and the number of neutrons. The depth of the well is characterized by its negative binding energy. When a nucleus absorbs or emits energy it usually does so via stable or nearly stable particles such as photons, electrons, positrons, protons, neutrons or alpha particles (He-4 nuclei).
 

Pb-207:
An example of a stable nucleus is a lead-207 where:
Nip = 2 X 207 = 414
Nnp = 207 and from the atomic number:
Nne = 207 - 82 = 125

For Pb-207:
(Nnp / Nne) = 207 / 125 = 1.656

It has been experimentally observed that atomic nuclei with (Nnp / Nne) < 1.66 are unstable and hence are radio active (eg uranium, plutonium, etc).
It has further been experimentally observed that atomic nuclei with (Nnp / Nne) > 2.0 are likewise radioactive (eg beryllium-7, boron-8, carbon-9,carbon-10, carbon-11, etc.)

There is only a relatively small range of (Nnp / Nne) values that result in highly stable atomic nuclei.
 

SEMI-STABLE ATOMIC PARTICLE ASSEMBLIES:
There are about 1000 well documented semi-stable elementary particle assemblies that are known as atomic nuclei. Many of these assemblies are unstable and hence exhibit radio activity.

P>If:
(Nnp / Nne) < stable value
then the nucleus tends to decay by electron emission which decrements Nne and increments (Nip - Nne).

If:
(Nnp / Nne) > stable value
and if:
Nnp < 207
then the nucleus tends to decay by electron-positron pair production immediately followed by positron emission which together increment Nne and hence decrements (Nip - Nne).

If:
Nnp > 207
then the nucleus tends to decay by alpha particle (helium-4 nucleus) emission which decrements Nnp by 4 and decrements Nne by 2, followed by electron emission(s).

Some nuclei are meta-stable energy states that spontaneously absorb or emit small amounts of energy by photon absorption/emission with no change in either Nnp or Nne.
 

NUCLEAR FORCES:
The above work suggests that so called nuclear forces are largely the result of overlapping magnetic fields between adjacent elementary particle spheromaks. When two inner spheromaks are physically adjacent to one another their mutual binding energy is much greater than if the spheromaks were rigid spheres.

There are a large number of short lived particles that can be formed via high energy collisions between nuclei. However, these particles are short lived energy states that have little impact on the real world and hence are outside the scope of this web site.
 

This web page last updated March 2, 2018.

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