Heat-pressure behaviour in NiH system could be explained by Rydberg matter formation instead of H absorption/desorption in Ni?
Many NiH papers I read describes pressure behavior with absorption/desorption, for example:
http://www.lenr-canr.org/acrobat/FocardiSlargeexces.pdf
"observed in hydrogen-loaded nickel rods"
http://www.lenr-canr.org/acrobat/CammarotaGaflowcalor.pdf
"hydrogen absorption occurred"
http://newenergytimes.com/v2/l…overviewOfH-NiSystems.pdf
"The hydrogen absorption is..."
http://lenr-canr.org/acrobat/CampariEGsurfaceana.pdf
"nickel alloy rods loaded with hydrogen"
http://www.lenr-canr.org/acrobat/CerronZebainvestigat.pdf
"absorption of hydrogen by nickel"
http://www.lenr-canr.org/acrobat/Sankaranarevidencefo.pdf
"HYDROGEN ABSORPTION / DESORPTION CYCLES"
Of course they could all be victim of the same wrong assumption, I am open for that.
I spent a lot of time looking at MFMP/me356 Padua GS2 5 day run plotly heat-pressure behaviour and above papers are the base for this understanding:
a) Heat stable and Pressure down = loading = absorption (or ADsorption but as you say the amount of H would be too small to explain the Pressure changes?)
b) Heat down and Pressure up = desorption
c) Heat up and Pressure up = added heat from external or internal source is the cause for incresed Pressure (Input power ON or OFF will tell the place of heat source, internal or external)
d) Heat down and Pressure down = expected behaviour when no desorption occurs
e) Heat up and Pressure down = loading = absorption, this is the goal in the long run
Max loading of H into Ni is reached when Pressure can not go lower at high temp (after many cycles in many hours according to above papers)
Behaviour in timing is also of interest: Pressure leading Temperature or vice versa? Increased Pressure because of increased heat is expected, how to explain pressure raise before heat raise? Or events where power is off, temp dropping but suddenly a bump of +4 degree C or more above signal-to-noice ratio occurs?
I would be happy to learn more how above heat-pressure behaviour can be explained with Rydberg matter formation.