My view of the details of the reaction in LCF that is producing both fusion and LENR in a microparticle based system
Controlling LENR through the proper use of micro-particles
Micro-particles provide ability for the amplification of the catalytic effect through the application of many forms of resonances. One such amplification mechanism involves the reception of electromagnetic energy (EMF) by the metal particle as those particles acts as an antenna which reaches out over a great distance to bring in EMF energy from a very long distance away from the particle. All that EMF energy is converted into dipole electron motion. But now we must understand what the Nuclear Active Environment (NAE) is, it is useful to know how to build the NAE.
How to build a nano-cavity in an optimal way
To illustrate a pivotal principle from Nano-engineering that bears upon LENR, in experimental results from that field involving Nanoplasmonics, the electromagnetic field strength in the spaces between nanoparticles is exponentially strengthened based on the number of nanoparticles and the distribution of sizes of these particles in contact with each other.
Electromagnetism is concentrated on the surface of the metal particles. This EMF generates an alternating current that is tightly confined to the skin of the metal particle.
Dipole vibration generates a positively charged side of the metal particle and a negatively charged side. In the case of LCF, EMF comes from breaking radiation that generates an electrostatic charge on the surface of the metal particle through the action of coherent alternating currents of free electron gas that live on the surface of metals.
In the case of the LENR reaction, a strange thing happens to the electrons on the negative side of these metal particles. The electron becomes entangled with the ambient photons that carry the EMF when the energy level of the electrons and photon become equal. A compound waveform is produced called a polariton.
Because the polariton mostly produced from x-rays and RF is a boson, there is no limit to the number of these quasiparticles (the electron half of the dipole) that can be packed into the NAE. The other positive “hole” (exiton) part of the dipole resides within the walls of the NAE. An exciton is a bound state of an electron and an electron hole which are attracted to each other by the electrostatic Coulomb force. Attraction between the electron and the hole causes their motion to be correlated and the resultant electron-hole pair is known as an exciton.
This coupling of the electron gas with the EMF from breaking radiation is the first and most basic level of resonance in the LENR reaction.
One very important way to increase the strength of the LENR reaction is to increase the density of the electron gas that floats around on the surface of the metal particle.
Amplification in the density of the electron gas will amplify the LENR reaction. In the same way, a big capacitor will produce a bigger spark than a very small capacitor.
Needless to say, enhancing EMF production is the other method that increases the strength of the LENR reaction, but in Nanoplasmonics, EMF pumping (like amperage) and energy levels (like voltage) of the electron gas are directly connected.
The LCF system that uses micro-particles for the lattice provides additional opportunities for resonance development to increase reaction intensity by increasing the density and energy of the electron gas.
This amplification process through the use of micro-particles is the subject of the next section of this description.
Remember, strengthening the density of the polariton gas is a prime LENR design goal. Electromagnetic field strength amplification is what we really want to do.

More in the next post to make this figure meaningful.