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Nano-Engineered Qubit Architectures Using Self-Assembled Molecular Nanostructures

Bright Keswani, Sheng-Lung Peng, Deepen Banoriya, Hemant Upadhyay, Swapan Banerjee

Published Jan 1, 2025• 0 citations
Publisher
DOI
10.2139/ssrn.5415451

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Quantum Consciousness will play an important role in future Information Communication Technology (ICT) for its fast information processing requirement and the advancement of Nano-science and Technology radically explore the field recently. In this paper we present a mathematical formalism of nanoscale dynamics in the light of quantum consciousness. A parametric methodology for establishing self-organizing property of nanoscopic particle using deterministic quantum relativistic parameters instead of probabilistic quantum mechanical terms for energy and momentum has also been designed. The physical dynamics of the particle towards a common point (self-assembled) has been explained with the help of hidden consciousness parameter, avoiding uncertainty relations in a limiting range where the tiny nano particle 1-100nm, constitute an elementary unit of cognition. A brief study of the situations (multi particle dynamical system) in case of nanoparticles fabrication both in bottom-up and top-down has been performed. Self assembly as dynamic interacting pattern formation in multi particle dynamical system has also been presented.
The report is focused on the fabrication and characterization of nano-necklaces created from individual nanostructures namely heavily boron-doped superconducting nano-diamond grains and BIISCO whiskers. The production of nanostructures from individual nano-diamonds is done using 3D mechanical nano-manipulation and nano-assembling based on new generation shape memory alloy composite nanotweezers. Quantum transport of such nano-necklaces will be probed in order to study the confinement effects on superconductivity and other related quantum effects. This bottom-up nano-integration technique thus demonstrates a niche fabrication route for the realization of novel complex nanostructured quantum rings which may be of use for quantum information technologies.
This paper presents TS-Q-AMTRS, a future-oriented theoretical framework for quantum-assisted atomic matter reconstruction under thermodynamic stabilization constraints. Instead of treating teleportation as direct matter transport, the framework approaches reconstruction as an information-driven process involving atomic structure acquisition, molecular disassembly, quantum-assisted encoding, adaptive molecular self-assembly, and recursive stabilization. The proposed architecture combines concepts from quantum information theory, thermodynamics, nanotechnology, molecular engineering, and computational physics to explore the major physical, computational, and energetic challenges associated with large-scale non-living matter reconstruction systems.