TY - JOUR
T1 - Fundamental experimental tests toward future cold fusion engine based on point-compression due to supermulti-jets colliding with pulse (fusine)
AU - Naitoh, Ken
AU - Tuschiya, Jumpei
AU - Ayukawa, Ken
AU - Oyanagi, Susumu
AU - Kanase, Takuto
AU - Tsuru, Kohta
AU - Konagaya, Remi
N1 - Funding Information:
This paper is part of the outcome of research performed under the JSPS grant for research projects (25630072). Sincere thanks are also due Mr. Kan Yamagishi worked in the Naitoh laboratory in Waseda University until March 2016 and also the members of the Naitoh Laboratory for their help.
Publisher Copyright:
© 2017 ISCMNS. All rights reserved.
PY - 2017/10/1
Y1 - 2017/10/1
N2 - Our previous reports based on theoretical considerations and supercomputer simulation showed the possibility that super multi-air jets of gases such as air or deuterium colliding with pulse (K. Naitoh, patent: 2012-519298 (2010)) lead to self-compression over 60 MPa and 2000 K at single point around the reacted center, at maximum. This may bring about a more stable occurrence of cold fusion. This approach due to supermulti-jets will also cause an insulation effect because of encasing, which will result in less heat loss from the reactor walls. Based on this, we developed three types of prototype engine reactors using the supermulti-jets colliding with pulse. In the present report, we show some fundamental experimental data for one of the three prototype engine reactors, derived now, before we plan to begin testing for cold fusion.
AB - Our previous reports based on theoretical considerations and supercomputer simulation showed the possibility that super multi-air jets of gases such as air or deuterium colliding with pulse (K. Naitoh, patent: 2012-519298 (2010)) lead to self-compression over 60 MPa and 2000 K at single point around the reacted center, at maximum. This may bring about a more stable occurrence of cold fusion. This approach due to supermulti-jets will also cause an insulation effect because of encasing, which will result in less heat loss from the reactor walls. Based on this, we developed three types of prototype engine reactors using the supermulti-jets colliding with pulse. In the present report, we show some fundamental experimental data for one of the three prototype engine reactors, derived now, before we plan to begin testing for cold fusion.
KW - Experiment
KW - Pulse
KW - Reactor
KW - Simulation
KW - Supermulti-jets colliding
KW - Theory
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M3 - Conference article
AN - SCOPUS:85038810506
SN - 2227-3123
VL - 24
SP - 236
EP - 243
JO - Journal of Condensed Matter Nuclear Science
JF - Journal of Condensed Matter Nuclear Science
T2 - 20th International Conference on Condensed Matter Nuclear Science, ICCF 2016
Y2 - 2 October 2016 through 7 October 2016
ER -