Aeshah Ali Hussein
Hadi J M Alagealy
Raad Hameed Majeed
Department of Physics, College of Education for Pure Science
(Ibn Alhaitham), University of Baghdad, Baghdad, Iraq
These scientists papers exhibit an advanced understanding of CMNS.
I imagine they have a well equipped research lab and undergraduates performing experiments following a path towards improved theoretical applied engineering of the lattice structure.
The three authors of these papers have an extensive skillset and experience in fields directly related to advanced CMNS research. Reviewing their works lends insight. ResearchGate links are provided.
Quote the 2020 paper
Moreover, the phenomenon of BEC disciplines of physics, including statistical mechanics, thermodynamics, quantum mechanics, condensed matter physics, field theory, finally in nuclear physics[9]. - end quote
Of interest are the following researchers referenced in the 'Introduction' of their 2020 paper.
- Yeong E. Kim et al in (2000) accomplished the ground state solutions for trapped bosons in an isotropic trap by used (ELTB) mechanism.
- M.W.Zwierlein et al in (2003) observed that B.E.C. on the molecular level, it was tabulated for fermionic 6Li atoms using evaporative cooling in an optical dipole trap.
- Alexander L. and et al in (2006) were achieved the B.E.C. mechanism for one type of LENR operations in condensed substance to the case of a mix of two various types of the Bose nuclei in harmonic traps.
- Yeong E. Kim in 2010 has developed a theory of nuclear fusion for condensing Bose-Einstein condensation to describe numerous diverse experimental data of the nuclear reaction caused by deuterons in metals, which noticed in "gas loading and electrolysis" experiments.
- Takeo Oku in 2018 described the conditions of nuclear fusion condensation devices and the possible applications of nanomaterials of the nuclear fusion devices. Catalyzed fusion by muon was considered as one of the ways used in nuclear fusion to allow the fusion to occur at very low temperatures. The charged muons were created by (heavy ions or protons) irradiated on metals like copper/ beryllium with high energy [14].
From this one might surmise the CMNS experimental research path they are pursuing.
Also of particular interest is (ICPES2020) "The First International Conference of Pure and Engineering Sciences" which is where a paper of theirs was presented.
Look to this conference as another venue for cold fusion researchers to expand CMNS science forward into the world energy market.
Wishing them the best...
The University of Baghdad LENR Research Team at ResearchGate
Aeshah Ali Hussein
https://www.researchgate.net/scientific-contributions/Aeshah-Ali-Hussein-2176521055
Hadi J M Alagealy
https://www.researchgate.net/profile/Hadi-Alagealy
Raad Hameed Majeed
https://www.researchgate.net/profile/Raad-Hameed-2
Department of Physics, College of Education for Pure Science
(Ibn Alhaitham), University of
Baghdad, Baghdad, Iraq
2020 Paper Presented at
The First International Conference of Pure and Engineering Sciences (ICPES2020)
IOP Conf. Series: Materials Science and Engineering 871 (2020) 012085 IOP Publishing
doi:10.1088/1757-899X/871/1/012085
"Theoretical Study and calculation The Cold Reaction Rate of Deuteron Fusion In Nickel Metal Using Bose–Einstein Condensate Theory
Published under licence by IOP Publishing Ltd
IOP Conference Series: Materials Science and Engineering, Volume 871, The First International Conference of Pure and Engineering Sciences (ICPES2020) 26-27 February 2020, Karbala, Iraq
November 2021 Paper
"Theoretical Estimation of the Trapping Reaction Rate for Deuteron-Deuteron Fusion in Nickel Metal Using Bose-Einstein Condensates Phenomena"
Abstract
A mathematical model has been introduced to investigate the effect of nuclear reaction constant ( A ), probability of the BEC ground state occupation Ω i, nD is the number density of deuteron (d) and the overall number of nuclei ND on the total nuclear d-d fusion rate (R). Under steady-state of the condensates of Bose-Einstein, the postulate of quantum theory and Bose-Einstein theory were applied to evaluate the total nuclear (d-d) fusion rate trapping in Nickel-metal The total nuclear fusion rate trapping predicts a strong relationship between astrophysical S-factor and masses of Nickel. The reaction rate trapping model was tested on three reaction d(d,p)T, d(d, n)3He and d(d, 4He)Q = 23.8MeV respectively. The reaction rate has described with astrophysical S -factor 110, 110 x 106 and 110 x 1013 (KeV. barn) for three reactions respectively. The masses of Nickel in the range (1-10) g can be taken to reach a small region for D-D trapp in metal. Results show that the reaction rate can be increased with an increase in metal masses and astrophysical S-factor.
EARLIER
11December2019 paper
"Improve Studies and Calculations for the Bose-Einstein Condensation D-D Fusion Reaction Rate"
AIP Conference Proceedings 2190, 020083 (2019); https://doi.org/10.1063/1.5138569
Of interest
Reference from the 2019 paper
Number 8
F. Pereira Dos Santos, J. Léonard, Junmin Wang, C. J. Barrelet, F. Perales, E. Rasel, C. S. Unnikrishnan, M. Leduc, and C. Cohen-Tannoudji
Bose-Einstein Condensation of Metastable Helium
J. Phys.Rev.Lett. 86 (2001)3459. https://doi.org/10.1103/PhysRevLett.86.3459