Research paperComputational MDStructural and helix reversal defects of carbon nanospringsAlexander V. Savin, Elena A. Korznikova, Sergey V. DmitrievarXiv·2025·10.1021/cr900162q·arXiv:2508.04490AbstractThe structural transformations of carbon nanosprings derived from planar coronene and kekulene molecules are analyzed using molecular dynamics simulations. The work investigates axial compression, bending, twisting, structural defects, helix reversal defects, and thermal expansion. The simulations indicate stability over a wide temperature range and a large axial thermal expansion coefficient.Read more
Simulated helical carbon nanospring derived from l-kekulene with l = 3; spiral nanoribbon with an inner channel.2 properties(C(l2-1)H(l+1))NStudied MaterialExpand
Simulated helical carbon nanospring derived from l-kekulene with l = 4; spiral nanoribbon with an inner channel.2 properties(C(l2-1)H(l+1))NStudied MaterialExpand
Simulated helical carbon nanospring derived from l-coronene with l = 3; graphene helicoid without an inner channel.2 properties(Cl₂Hl)NStudied MaterialExpand
Simulated helical carbon nanospring derived from l-coronene with l = 4; graphene helicoid without an inner channel.2 properties(Cl₂Hl)NStudied MaterialExpand
Research paperComputational MDStructural and helix reversal defects of carbon nanospringsAlexander V. Savin, Elena A. Korznikova, Sergey V. DmitrievarXiv·2025·10.1021/cr900162q·arXiv:2508.04490AbstractThe structural transformations of carbon nanosprings derived from planar coronene and kekulene molecules are analyzed using molecular dynamics simulations. The work investigates axial compression, bending, twisting, structural defects, helix reversal defects, and thermal expansion. The simulations indicate stability over a wide temperature range and a large axial thermal expansion coefficient.Read more
Simulated helical carbon nanospring derived from l-kekulene with l = 3; spiral nanoribbon with an inner channel.2 properties(C(l2-1)H(l+1))NStudied MaterialExpand
Simulated helical carbon nanospring derived from l-kekulene with l = 4; spiral nanoribbon with an inner channel.2 properties(C(l2-1)H(l+1))NStudied MaterialExpand
Simulated helical carbon nanospring derived from l-coronene with l = 3; graphene helicoid without an inner channel.2 properties(Cl₂Hl)NStudied MaterialExpand
Simulated helical carbon nanospring derived from l-coronene with l = 4; graphene helicoid without an inner channel.2 properties(Cl₂Hl)NStudied MaterialExpand
Research paperComputational MDStructural and helix reversal defects of carbon nanospringsAlexander V. Savin, Elena A. Korznikova, Sergey V. DmitrievarXiv·2025·10.1021/cr900162q·arXiv:2508.04490AbstractThe structural transformations of carbon nanosprings derived from planar coronene and kekulene molecules are analyzed using molecular dynamics simulations. The work investigates axial compression, bending, twisting, structural defects, helix reversal defects, and thermal expansion. The simulations indicate stability over a wide temperature range and a large axial thermal expansion coefficient.Read more
Simulated helical carbon nanospring derived from l-kekulene with l = 3; spiral nanoribbon with an inner channel.2 properties(C(l2-1)H(l+1))NStudied MaterialExpand
Simulated helical carbon nanospring derived from l-kekulene with l = 4; spiral nanoribbon with an inner channel.2 properties(C(l2-1)H(l+1))NStudied MaterialExpand
Simulated helical carbon nanospring derived from l-coronene with l = 3; graphene helicoid without an inner channel.2 properties(Cl₂Hl)NStudied MaterialExpand
Simulated helical carbon nanospring derived from l-coronene with l = 4; graphene helicoid without an inner channel.2 properties(Cl₂Hl)NStudied MaterialExpand
Research paperComputational MDStructural and helix reversal defects of carbon nanospringsAlexander V. Savin, Elena A. Korznikova, Sergey V. DmitrievarXiv·2025·10.1021/cr900162q·arXiv:2508.04490AbstractThe structural transformations of carbon nanosprings derived from planar coronene and kekulene molecules are analyzed using molecular dynamics simulations. The work investigates axial compression, bending, twisting, structural defects, helix reversal defects, and thermal expansion. The simulations indicate stability over a wide temperature range and a large axial thermal expansion coefficient.Read more
Simulated helical carbon nanospring derived from l-kekulene with l = 3; spiral nanoribbon with an inner channel.2 properties(C(l2-1)H(l+1))NStudied MaterialExpand
Simulated helical carbon nanospring derived from l-kekulene with l = 4; spiral nanoribbon with an inner channel.2 properties(C(l2-1)H(l+1))NStudied MaterialExpand
Simulated helical carbon nanospring derived from l-coronene with l = 3; graphene helicoid without an inner channel.2 properties(Cl₂Hl)NStudied MaterialExpand
Simulated helical carbon nanospring derived from l-coronene with l = 4; graphene helicoid without an inner channel.2 properties(Cl₂Hl)NStudied MaterialExpand