Structural and helix reversal defects of carbon nanosprings

Alexander V. Savin; Elena A. Korznikova; Sergey V. Dmitriev

doi:10.1021/cr900162q

Paper details

Research paper

Computational MD

Structural and helix reversal defects of carbon nanosprings

Alexander V. Savin, Elena A. Korznikova, Sergey V. Dmitriev

arXiv·2025·10.1021/cr900162q·arXiv:2508.04490

Samples

Each sample groups how it was prepared, characterized, and measured. Click a card to expand.

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 Material

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 Material

Simulated helical carbon nanospring derived from l-coronene with l = 3; graphene helicoid without an inner channel.

2 properties

(Cl₂Hl)NStudied Material

Simulated helical carbon nanospring derived from l-coronene with l = 4; graphene helicoid without an inner channel.

2 properties

(Cl₂Hl)NStudied Material

Materials

kekulene-derived carbon nanospring

(C(l²-1)H(l+1))N

Studied Material

Also known as

spiral l-kekulene graphene nanoribbonspiral carbon nanospring

Variables

family= kekulene-derived

l_values= 3,4

studied material

Why these are connected

Related documents with shared materials, methods, properties, or citations.

Structural and helix reversal defects of carbon nanosprings | Matter42 Literature

Properties

Type	Label	Value	Material	Sample	Condition	Source
Thermal Expansion Coefficient	axial thermal expansion coefficient	0.00005K⁻¹	(C(l²-1)H(l+1))N (Cl₂Hl)N	Simulated helical carbon nanospring derived from l-kekulene Simulated helical carbon nanospring derived from l-kekulene Simulated helical carbon nanospring derived from l-coronene Simulated helical carbon nanospring derived from l-coronene		—
Length	ground-state length L₀	10.4nm	(C(l²-1)H(l+1))N (Cl₂Hl)N	Simulated helical carbon nanospring derived from l-kekulene Simulated helical carbon nanospring derived from l-kekulene Simulated helical carbon nanospring derived from l-coronene Simulated helical carbon nanospring derived from l-coronene		—

Properties

Type	Label	Value	Material	Sample	Condition	Source
Thermal Expansion Coefficient	axial thermal expansion coefficient	0.00005K⁻¹	(C(l²-1)H(l+1))N (Cl₂Hl)N	Simulated helical carbon nanospring derived from l-kekulene Simulated helical carbon nanospring derived from l-kekulene Simulated helical carbon nanospring derived from l-coronene Simulated helical carbon nanospring derived from l-coronene		—
Length	ground-state length L₀	10.4nm	(C(l²-1)H(l+1))N (Cl₂Hl)N	Simulated helical carbon nanospring derived from l-kekulene Simulated helical carbon nanospring derived from l-kekulene Simulated helical carbon nanospring derived from l-coronene Simulated helical carbon nanospring derived from l-coronene		—

Properties

Type	Label	Value	Material	Sample	Condition	Source
Thermal Expansion Coefficient	axial thermal expansion coefficient	0.00005K⁻¹	(C(l²-1)H(l+1))N (Cl₂Hl)N	Simulated helical carbon nanospring derived from l-kekulene Simulated helical carbon nanospring derived from l-kekulene Simulated helical carbon nanospring derived from l-coronene Simulated helical carbon nanospring derived from l-coronene		—
Length	ground-state length L₀	10.4nm	(C(l²-1)H(l+1))N (Cl₂Hl)N	Simulated helical carbon nanospring derived from l-kekulene Simulated helical carbon nanospring derived from l-kekulene Simulated helical carbon nanospring derived from l-coronene Simulated helical carbon nanospring derived from l-coronene		—

Properties

Type	Label	Value	Material	Sample	Condition	Source
Thermal Expansion Coefficient	axial thermal expansion coefficient	0.00005K⁻¹	(C(l²-1)H(l+1))N (Cl₂Hl)N	Simulated helical carbon nanospring derived from l-kekulene Simulated helical carbon nanospring derived from l-kekulene Simulated helical carbon nanospring derived from l-coronene Simulated helical carbon nanospring derived from l-coronene		—
Length	ground-state length L₀	10.4nm	(C(l²-1)H(l+1))N (Cl₂Hl)N	Simulated helical carbon nanospring derived from l-kekulene Simulated helical carbon nanospring derived from l-kekulene Simulated helical carbon nanospring derived from l-coronene Simulated helical carbon nanospring derived from l-coronene		—

Structural and helix reversal defects of carbon nanosprings

Samples

Simulated helical carbon nanospring derived from l-kekulene with l = 3; spiral nanoribbon with an inner channel.

Simulated helical carbon nanospring derived from l-kekulene with l = 4; spiral nanoribbon with an inner channel.

Simulated helical carbon nanospring derived from l-coronene with l = 3; graphene helicoid without an inner channel.

Simulated helical carbon nanospring derived from l-coronene with l = 4; graphene helicoid without an inner channel.

Materials

Why these are connected

Structural and helix reversal defects of carbon nanosprings

Samples

Simulated helical carbon nanospring derived from l-kekulene with l = 3; spiral nanoribbon with an inner channel.

Simulated helical carbon nanospring derived from l-kekulene with l = 4; spiral nanoribbon with an inner channel.

Simulated helical carbon nanospring derived from l-coronene with l = 3; graphene helicoid without an inner channel.

Simulated helical carbon nanospring derived from l-coronene with l = 4; graphene helicoid without an inner channel.

Materials

Why these are connected

Structural and helix reversal defects of carbon nanosprings

Samples

Simulated helical carbon nanospring derived from l-kekulene with l = 3; spiral nanoribbon with an inner channel.

Simulated helical carbon nanospring derived from l-kekulene with l = 4; spiral nanoribbon with an inner channel.

Simulated helical carbon nanospring derived from l-coronene with l = 3; graphene helicoid without an inner channel.

Simulated helical carbon nanospring derived from l-coronene with l = 4; graphene helicoid without an inner channel.

Materials

Why these are connected

Structural and helix reversal defects of carbon nanosprings

Samples

Simulated helical carbon nanospring derived from l-kekulene with l = 3; spiral nanoribbon with an inner channel.

Simulated helical carbon nanospring derived from l-kekulene with l = 4; spiral nanoribbon with an inner channel.

Simulated helical carbon nanospring derived from l-coronene with l = 3; graphene helicoid without an inner channel.

Simulated helical carbon nanospring derived from l-coronene with l = 4; graphene helicoid without an inner channel.

Materials

Why these are connected

Structural and helix reversal defects of carbon nanosprings

Samples

Simulated helical carbon nanospring derived from l-kekulene with l = 3; spiral nanoribbon with an inner channel.

Simulated helical carbon nanospring derived from l-kekulene with l = 4; spiral nanoribbon with an inner channel.

Simulated helical carbon nanospring derived from l-coronene with l = 3; graphene helicoid without an inner channel.

Simulated helical carbon nanospring derived from l-coronene with l = 4; graphene helicoid without an inner channel.

Materials

Why these are connected

Structural and helix reversal defects of carbon nanosprings

Samples

Simulated helical carbon nanospring derived from l-kekulene with l = 3; spiral nanoribbon with an inner channel.

Simulated helical carbon nanospring derived from l-kekulene with l = 4; spiral nanoribbon with an inner channel.

Simulated helical carbon nanospring derived from l-coronene with l = 3; graphene helicoid without an inner channel.

Simulated helical carbon nanospring derived from l-coronene with l = 4; graphene helicoid without an inner channel.

Materials

Why these are connected

Structural and helix reversal defects of carbon nanosprings

Samples

Simulated helical carbon nanospring derived from l-kekulene with l = 3; spiral nanoribbon with an inner channel.

Simulated helical carbon nanospring derived from l-kekulene with l = 4; spiral nanoribbon with an inner channel.

Simulated helical carbon nanospring derived from l-coronene with l = 3; graphene helicoid without an inner channel.

Simulated helical carbon nanospring derived from l-coronene with l = 4; graphene helicoid without an inner channel.

Materials

Why these are connected

Structural and helix reversal defects of carbon nanosprings

Samples

Simulated helical carbon nanospring derived from l-kekulene with l = 3; spiral nanoribbon with an inner channel.

Simulated helical carbon nanospring derived from l-kekulene with l = 4; spiral nanoribbon with an inner channel.

Simulated helical carbon nanospring derived from l-coronene with l = 3; graphene helicoid without an inner channel.

Simulated helical carbon nanospring derived from l-coronene with l = 4; graphene helicoid without an inner channel.

Materials

Why these are connected

Properties

Simulations

Properties

Simulations

Properties

Simulations

Properties

Simulations