Ok, lets try if this is something new here. Mills answer to a question that I'll send next:
We trap the H2(1/4) gas in crystalline defects and now carbon. H2(1/4) has about 1/64th the volume of H2 which is very diffusive; so, containing the gas over containment gases is difficult. Demonstrating a physical property such as a boiling point is difficult since the gas has to be essentially 100% pure; otherwise, there is no clear boiling point. Moreover, non combustibility is not definitive since N2 is somewhat inert, and argon on the reaction gas does not burn either. The argument shifts to spectroscopic identification.
Hydrino ionizes to H+, the same as H; so, only the ionization potential distinguishes hydrino over contaminate H2 using mass spectroscopy. But, the H+ current from ordinary H increases with ionization potential as well. Moreover, NMR, XPS, inverse Raman effect, Raman, FTIR, Photoluminescent spectroscopy, e-beam spectroscopy, TOF-SIMs, etc. are very difficult or impossible with a gas sample. Since H2(1/4) has uniquely high energy signatures, it can easily be identified in the presence of H2 using the extensive number of techniques that we have published on. These techniques demonstrate properties such as ro-vibrational and ionization energies that are characteristic of and identify hydrino. We have proven hydrino spectroscopically. It amazes me that the scientific community has not engaged.
We trap the H2(1/4) gas in crystalline defects and now carbon. H2(1/4) has about 1/64th the volume of H2 which is very diffusive; so, containing the gas over containment gases is difficult. Demonstrating a physical property such as a boiling point is difficult since the gas has to be essentially 100% pure; otherwise, there is no clear boiling point. Moreover, non combustibility is not definitive since N2 is somewhat inert, and argon on the reaction gas does not burn either. The argument shifts to spectroscopic identification.
Hydrino ionizes to H+, the same as H; so, only the ionization potential distinguishes hydrino over contaminate H2 using mass spectroscopy. But, the H+ current from ordinary H increases with ionization potential as well. Moreover, NMR, XPS, inverse Raman effect, Raman, FTIR, Photoluminescent spectroscopy, e-beam spectroscopy, TOF-SIMs, etc. are very difficult or impossible with a gas sample. Since H2(1/4) has uniquely high energy signatures, it can easily be identified in the presence of H2 using the extensive number of techniques that we have published on. These techniques demonstrate properties such as ro-vibrational and ionization energies that are characteristic of and identify hydrino. We have proven hydrino spectroscopically. It amazes me that the scientific community has not engaged.
