ChemInform Abstract: 2,2,3,3‐Tetrafluoropropanol as Reagent for the Synthesis of Protected Isocyanates.

Bogolyubskii, A. V.; Lepekha, L. P.; Prokopenko, T. V.; Machul'skii, B. M.

doi:10.1002/chin.199407126

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“…In combination with deal.II the finite element library [20,21,22] MiTMoJCo becomes a powerful tool for modeling of realistic 2D Josephson junctions. The need to go beyond the 1D model arises in studies of transmission line intersections and networks [23,24,25,26,27,28,29,30], curved waveguides [31,32], radial soliton-like excitations [33,34,35,36,37,38], superconducting chaotic oscillators [18], beam splitters [39], 2D fluxon oscillations modes [40,41,42,43], fluxon qubits [44,45,46,47] and other systems.…”

Section: Dealii+mitmojco: 2d Models Of Josephson Junctionmentioning

confidence: 99%

MiTMoJCo: Microscopic Tunneling Model for Josephson Contacts

Gulevich

2020

Computer Physics Communications

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MiTMoJCo (Microscopic Tunneling Model for Josephson Contacts) is C code which aims to assist modeling of superconducting Josephson contacts based on the microscopic tunneling theory. The code offers implementation of a computationally demanding part of this calculation, that is evaluation of superconducting pair and quasiparticle tunnel currents from the given tunnel current amplitudes (TCAs) which characterize the junction material. MiTMoJCo comes with a library of pre-calculated TCAs for frequently used Nb-AlOx-Nb and Nb-AlN-NbN junctions, a Python module for developing custom TCAs, supplementary optimum filtration module for extraction of a constant component of a sinusoidal signal and examples of modeling few common cases of superconducting Josephson contacts. PROGRAM SUMMARY Program Title: MiTMoJCo: Microscopic Tunneling Model for Josephson Contacts Licensing provisions(please choose one): GPLv3 Programming language: C, Python Nature of problem: Modeling superconducting Josephson contacts based on the microscopic tunneling theory; calculation and fitting of the tunnel current amplitudes. Solution method: Computationally efficient Odintsov-Semenov-Zorin algorithm is used to account for the memory effects in pair and quasiparticle tunnel currents.

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Section: Dealii+mitmojco: 2d Models Of Josephson Junctionmentioning

confidence: 99%

MiTMoJCo: Microscopic Tunneling Model for Josephson Contacts

Gulevich

2020

Computer Physics Communications

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ChemInform Abstract: 2,2,3,3‐Tetrafluoropropanol as Reagent for the Synthesis of Protected Isocyanates.

Cited by 1 publication

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MiTMoJCo: Microscopic Tunneling Model for Josephson Contacts

MiTMoJCo: Microscopic Tunneling Model for Josephson Contacts

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