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To Develop an Eco-Friendly Cold Nuclear Thermal Power Plant by Considering Iron-56 as a Fuel

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IGEC Transactions, Volume 1: Energy Conversion and Management (IAGE 2023)

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Abstract

In this contribution, we make an attempt to write a theoretical proposal for designing an eco friendly thermal power plant which runs with cold nuclear fusion technology at a temperature of 1500–2000 °C. In our recently published papers, we have proposed a clear cut mechanism for understanding and implementing cold nuclear fusion technique pertaining to fusion of hydrogen with metals of mass numbers starting from 50. In this context, we would like to stress the point that, fusion of hydrogen under controllable temperature and pressure can be understood as a phenomenon of fusing neutron to the nucleus of the base atom. Part of isotopic nuclear binding energy difference of final and base atomic nuclides can be seen in the form of safe thermal energy of the order of (1–3) MeV per atom against 200 MeV released in nuclear fission of one Uranium atom. Due to increased heaviness and weak interaction, sometimes fused neutron splits into proton and electron. Proton seems to be retained by the base atom’s nuclear core and electron seems to join with the electronic orbits of the base atom. In this way, increased mass of base atomic nuclide helps in eco friendly production of thermal energy in large quantity. For this purpose we consider Iron-56 as a fuel. In a simplified view, under strong nuclear attractive forces, Iron-56 absorbs hydrogen atom as a neutron and by emitting 1 MeV equivalent thermal energy transforms to Iron-57. Thus, one gram of Iron-56 can generate 1000 MJ of heat with 50% efficiency. In a shortcut approach, by bombarding powder and semi-liquid forms of Iron-56 with direct neutrons coming from neutron source, our proposal can be tried, understood and verified experimentally.

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Abbreviations

CNF:

Cold nuclear fusion

LENR:

Low energy nuclear reaction

HAN:

Heavy atomic nuclide

SEMF:

Semi empirical mass formula

SEWMF:

Strong and Electroweak mass formula

\(A\):

Mass number

\(A_{s}\):

Estimated mass number close to stability line

\(Z\):

Proton number

\(N\):

Neutron number

\(BE\):

Nuclear binding energy

\(B_{0}\):

Unified SEWMF binding energy coefficient

\(m_{u}\):

Mass of Up quark

\(m_{d}\):

Mass of Down quark

\(\left( {m_{\pi } } \right)^{ \pm }\):

Mass of charged pion

\(\left( {m_{\pi } } \right)^{0}\):

Mass of neutral pion

\(\left( {m_{W} } \right)^{ \pm }\):

Mass of charged weak boson

\(\left( {m_{Z} } \right)^{0}\):

Mass of neutral weak boson

\(a_{v}\):

Volume energy coefficient

\(a_{s}\):

Surface energy coefficient

\(T_{z}\):

Third component of Isospin \(= \frac{1}{2}\left( {Z - N} \right)\)

\(k_{v}\):

Volume energy coefficient pertaining to third component of Isospin

\(k_{s}\):

Surface energy coefficient pertaining to third component of Isospin

\(a_{c}\):

Coulombic energy coefficient

\(f_{p}\):

Energy coefficient pertaining to Proton form factor

\(E_{p}\):

Pairing energy coefficient

\(d_{n}\):

Pairing energy coefficient pertaining to Neutron

\(d_{p}\):

Pairing energy coefficient pertaining to Proton

\(d_{np}\):

Pairing energy coefficient pertaining to Neutron and Proton

\(X\):

Ratio of Coulombic energy term to Volume energy term of SEWMF

\(X_{s}\):

Ratio of Coulombic energy term to Volume energy term of SEWMF at stable mass number

\(Y\):

Ratio of Coulombic energy term to Volume energy term of SEMF

\(Y_{s}\):

Ratio of Coulombic energy term to Volume energy term of SEMF at stable mass number

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Acknowledgements

Authors are greatly inspired by Dr. Andera Rossi and other scientists for their dedicated experimental contributions in this most complicated and innovative field of nuclear research. Author Seshavatharam is indebted to professors shri M. Nagaphani Sarma, Chairman, shri K.V. Krishna Murthy, founder Chairman, Institute of Scientific Research in Vedas (I-SERVE), Hyderabad, India and Shri K.V.R.S. Murthy, former scientist IICT (CSIR), Govt. of India, Director, Research and Development, I-SERVE, for their valuable guidance and great support in developing this subject.

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Seshavatharam, U.V.S., Lakshminarayana, S. (2024). To Develop an Eco-Friendly Cold Nuclear Thermal Power Plant by Considering Iron-56 as a Fuel. In: Zhao, J., Kadam, S., Yu, Z., Li, X. (eds) IGEC Transactions, Volume 1: Energy Conversion and Management. IAGE 2023. Springer Proceedings in Energy. Springer, Cham. https://doi.org/10.1007/978-3-031-48902-0_5

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  • DOI: https://doi.org/10.1007/978-3-031-48902-0_5

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