Home / Articles / From spin-labelled fused polyaromatic compounds to magnetically active graphene nanostructures

From spin-labelled fused polyaromatic compounds to magnetically active graphene nanostructures

Yury Alekseevich Ten 1
Yury Alekseevich Ten
, 
Nadezhda Mikhailovna Troshkova 1
Nadezhda Mikhailovna Troshkova
, 
Eugene Viktorovich Tretyakov 1, 2
Eugene Viktorovich Tretyakov
1 N. N. Vorozhtsov Novosibirsk Institute of Organic Chemistryof the Siberian Branch of Russian Academy of Sciences
2 Novosibirsk State University
10.1070/RCR4923
Published 30 November 2019
Review , RCR4923, Volume 89, Issue 7, 693-712
28
Share
Cite this
GOST
 | 
Cite this
GOST
Copy cite
Ten Y. A., Troshkova N. M., Tretyakov E. V. From spin-labelled fused polyaromatic compounds to magnetically active graphene nanostructures // Russian Chemical Reviews. 2019. Vol. 89. No. 7. pp. 693-712.
GOST all authors (up to 50)
Copy cite
Ten Y. A., Troshkova N. M., Tretyakov E. V. From spin-labelled fused polyaromatic compounds to magnetically active graphene nanostructures // Russian Chemical Reviews. 2019. Vol. 89. No. 7. pp. 693-712.
RIS
 | 
Cite this
RIS
Copy cite
TY - JOUR
DO - 10.1070/RCR4923
UR - https://rcr.colab.ws/publications/10.1070/RCR4923
TI - From spin-labelled fused polyaromatic compounds to magnetically active graphene nanostructures
T2 - Russian Chemical Reviews
AU - Ten, Yury Alekseevich
AU - Troshkova, Nadezhda Mikhailovna
AU - Tretyakov, Eugene Viktorovich
PY - 2019
DA - 2019/11/30
PB - ANO Editorial Board of the journal Uspekhi Khimii
SP - 693-712
IS - 7
VL - 89
ER -
BibTex
 | 
Cite this
BibTex (up to 50 authors)
Copy cite
@article{2019_Ten,
author = {Yury Alekseevich Ten and Nadezhda Mikhailovna Troshkova and Eugene Viktorovich Tretyakov},
title = {From spin-labelled fused polyaromatic compounds to magnetically active graphene nanostructures},
journal = {Russian Chemical Reviews},
year = {2019},
volume = {89},
publisher = {ANO Editorial Board of the journal Uspekhi Khimii},
month = {Nov},
url = {https://rcr.colab.ws/publications/10.1070/RCR4923},
number = {7},
pages = {693--712},
doi = {10.1070/RCR4923}
}
MLA
Cite this
MLA
Copy cite
Ten, Yury Alekseevich, et al. “From spin-labelled fused polyaromatic compounds to magnetically active graphene nanostructures.” Russian Chemical Reviews, vol. 89, no. 7, Nov. 2019, pp. 693-712. https://rcr.colab.ws/publications/10.1070/RCR4923.
Views / Visits / Downloads
34 / 34 / 9

Keywords

Condensed polyaromatic compounds
Graphene nanoribbons
Graphene quantum dots
Magnetic edge states
Spin-labelled graphene nanostructures
Stable organic radicals

Abstract

Molecular design of magnetically active graphene nanoscale structures is an emerging field of research. The key goal of this research is to produce graphene nanoribbons and graphene quantum dots with specified electronic, optical and magnetic properties. The review considers methods for the synthesis of spin-labelled polycyclic aromatic hydrocarbons, which are homologous precursors of graphene nanostructures, and discusses the advances and prospects of the design of magnetically active graphene materials.

The bibliography includes 134 references.

Funders

Russian Science Foundation
18-13-00173

References

1.
rcr_89_7_693_bib1
Saslow
2002
2.
rcr_89_7_693_bib2
Bunch
2004
3.
rcr_89_7_693_bib3
Cullity
2011
4.
rcr_89_7_693_bib4
Caneschi
Prog. Inorg. Chem. , 1991
5.
rcr_89_7_693_bib5
Kahn
1993
7.
rcr_89_7_693_bib7
Volodarsky
1994
9.
Molecular ferromagnets
Ovcharenko V.I., Sagdeev R.Z.
Russian Chemical Reviews , 1999
10.
Organic- and molecule-based magnets
Miller J.S.
Materials Today , 2014
11.
rcr_89_7_693_bib11
Sieklucka
2016
12.
Molecular magnetism, quo vadis? A historical perspective from a coordination chemist viewpoint☆
Ferrando-Soria J., Vallejo J., Castellano M., Martínez-Lillo J., Pardo E., Cano J., Castro I., Lloret F., Ruiz-García R., Julve M.
Coordination Chemistry Reviews , 2017
13.
rcr_89_7_693_bib13
Halcrow
2013
14.
Organometallic Single-Molecule Magnets
Layfield R.A.
Organometallics , 2014
15.
Molecular magnetic hysteresis at 60 kelvin in dysprosocenium
Goodwin C.A., Ortu F., Reta D., Chilton N.F., Mills D.P.
Nature , 2017
16.
rcr_89_7_693_bib16
Donati
2016
18.
rcr_89_7_693_bib18
Makarova
2006
19.
Banister A.J., Bricklebank N., Lavender I., Rawson J.M., Gregory C.I., Tanner B.K., Clegg W., Elsegood M.R., Palacio F.
1996
20.
High-Temperature Magnetic Ordering in a New Organic Magnet
Palacio F., Antorrena G., Castro M., Burriel R., Rawson J., Smith J.N., Bricklebank N., Novoa J., Ritter C.
Physical Review Letters , 1997
21.
Magnetic carbon
Makarova T.L., Sundqvist B., Höhne R., Esquinazi P., Kopelevich Y., Scharff P., Davydov V.A., Kashevarova L.S., Rakhmanina A.V.
Nature , 2001
22.
rcr_89_7_693_bib22
Wood
J. Phys. , 2002
23.
Magnetic signals of proton irradiated spots created on highly oriented pyrolytic graphite surface
Han K.-., Spemann D., Esquinazi P., Höhne R., Riede V., Butz T.
Journal of Magnetism and Magnetic Materials , 2004
24.
rcr_89_7_693_bib24
Abbassi
25.
A Universal Length-Dependent Vibrational Mode in Graphene Nanoribbons
Overbeck J., Barin G.B., Daniels C., Perrin M.L., Braun O., Sun Q., Darawish R., De Luca M., Wang X., Dumslaff T., Narita A., Müllen K., Ruffieux P., Meunier V., Fasel R., et. al.
ACS Nano , 2019
26.
Electric Field Effect in Atomically Thin Carbon Films
Novoselov K.S., Geim A.K., Morozov S.V., Jiang D., Zhang Y., Dubonos S.V., Grigorieva I.V., Firsov A.A.
Science , 2004
27.
Determination of graphene's edge energy using hexagonal graphene quantum dots and PM7 method
Vorontsov A.V., Tretyakov E.V.
Physical Chemistry Chemical Physics , 2018
28.
Heteroatom-Doped Nanographenes with Structural Precision
Wang X., Yao X., Narita A., Müllen K.
Accounts of Chemical Research , 2019
29.
Dehydrative π-extension to nanographenes with zig-zag edges
Lungerich D., Papaianina O., Feofanov M., Liu J., Devarajulu M., Troyanov S.I., Maier S., Amsharov K.
Nature Communications , 2018
30.
Precision synthesis versus bulk-scale fabrication of graphenes
Wang X., Narita A., Müllen K.
Nature Reviews Chemistry , 2017
31.
Stability of edge states and edge magnetism in graphene nanoribbons
Kunstmann J., Özdoğan C., Quandt A., Fehske H.
Physical Review B , 2011
32.
Atomically precise bottom-up fabrication of graphene nanoribbons
Cai J., Ruffieux P., Jaafar R., Bieri M., Braun T., Blankenburg S., Muoth M., Seitsonen A.P., Saleh M., Feng X., Müllen K., Fasel R.
Nature , 2010
33.
Resolving Atomic Connectivity in Graphene Nanostructure Junctions
Dienel T., Kawai S., Söde H., Feng X., Müllen K., Ruffieux P., Fasel R., Gröning O.
Nano Letters , 2015
34.
Seamless Staircase Electrical Contact to Semiconducting Graphene Nanoribbons
Ma C., Liang L., Xiao Z., Puretzky A.A., Hong K., Lu W., Meunier V., Bernholc J., Li A.
Nano Letters , 2017
35.
Electronic components embedded in a single graphene nanoribbon
Jacobse P.H., Kimouche A., Gebraad T., Ervasti M.M., Thijssen J.M., Liljeroth P., Swart I.
Nature Communications , 2017
36.
Graphene nanoribbon field-effect transistors fabricated by etchant-free transfer from Au(788)
Ohtomo M., Sekine Y., Hibino H., Yamamoto H.
Applied Physics Letters , 2018
37.
Bright Electroluminescence from Single Graphene Nanoribbon Junctions
Chong M.C., Afshar-Imani N., Scheurer F., Cardoso C., Ferretti A., Prezzi D., Schull G.
Nano Letters , 2017
38.
Nitrogen-Doping Induced Self-Assembly of Graphene Nanoribbon-Based Two-Dimensional and Three-Dimensional Metamaterials
Vo T.H., Perera U.G., Shekhirev M., Mehdi Pour M., Kunkel D.A., Lu H., Gruverman A., Sutter E., Cotlet M., Nykypanchuk D., Zahl P., Enders A., Sinitskii A., Sutter P.
Nano Letters , 2015
39.
Electronic structure changes during the on-surface synthesis of nitrogen-doped chevron-shaped graphene nanoribbons
Maaß F., Utecht M., Stremlau S., Gille M., Schwarz J., Hecht S., Klamroth T., Tegeder P.
Physical Review B , 2017
40.
Laterally extended atomically precise graphene nanoribbons with improved electrical conductivity for efficient gas sensing
Mehdi Pour M., Lashkov A., Radocea A., Liu X., Sun T., Lipatov A., Korlacki R.A., Shekhirev M., Aluru N.R., Lyding J.W., Sysoev V., Sinitskii A.
Nature Communications , 2017
41.
Atomically precise graphene nanoribbon heterojunctions from a single molecular precursor
Nguyen G.D., Tsai H., Omrani A.A., Marangoni T., Wu M., Rizzo D.J., Rodgers G.F., Cloke R.R., Durr R.A., Sakai Y., Liou F., Aikawa A.S., Chelikowsky J.R., Louie S.G., Fischer F.R., et. al.
Nature Nanotechnology , 2017
42.
Hierarchical On-Surface Synthesis of Graphene Nanoribbon Heterojunctions
Bronner C., Durr R.A., Rizzo D.J., Lee Y., Marangoni T., Kalayjian A.M., Rodriguez H., Zhao W., Louie S.G., Fischer F.R., Crommie M.F.
ACS Nano , 2018
43.
On-Surface Synthesis and Characterization of 9-Atom Wide Armchair Graphene Nanoribbons
Talirz L., Söde H., Dumslaff T., Wang S., Sanchez-Valencia J.R., Liu J., Shinde P., Pignedoli C.A., Liang L., Meunier V., Plumb N.C., Shi M., Feng X., Narita A., Müllen K., et. al.
ACS Nano , 2017
44.
On-Surface Growth Dynamics of Graphene Nanoribbons: The Role of Halogen Functionalization
Di Giovannantonio M., Deniz O., Urgel J.I., Widmer R., Dienel T., Stolz S., Sánchez-Sánchez C., Muntwiler M., Dumslaff T., Berger R., Narita A., Feng X., Müllen K., Ruffieux P., Fasel R., et. al.
ACS Nano , 2017
45.
Chemical Vapor Deposition Synthesis and Terahertz Photoconductivity of Low-Band-Gap N = 9 Armchair Graphene Nanoribbons
Chen Z., Wang H.I., Teyssandier J., Mali K.S., Dumslaff T., Ivanov I., Zhang W., Ruffieux P., Fasel R., Räder H.J., Turchinovich D., De Feyter S., Feng X., Kläui M., Narita A., et. al.
Journal of the American Chemical Society , 2017
46.
Lateral Fusion of Chemical Vapor Deposited N = 5 Armchair Graphene Nanoribbons
Chen Z., Wang H.I., Bilbao N., Teyssandier J., Prechtl T., Cavani N., Tries A., Biagi R., De Renzi V., Feng X., Kläui M., De Feyter S., Bonn M., Narita A., Müllen K., et. al.
Journal of the American Chemical Society , 2017
47.
High Photoresponsivity in Graphene Nanoribbon Field-Effect Transistor Devices Contacted with Graphene Electrodes
Candini A., Martini L., Chen Z., Mishra N., Convertino D., Coletti C., Narita A., Feng X., Müllen K., Affronte M.
Journal of Physical Chemistry C , 2017
48.
Homochiral polymerization-driven selective growth of graphene nanoribbons
Sakaguchi H., Song S., Kojima T., Nakae T.
Nature Chemistry , 2016
49.
rcr_89_7_693_bib49
Ma
Chem. Commun. , 2019
51.
On-Surface Synthesis of Atomically Precise Graphene Nanoribbons
Talirz L., Ruffieux P., Fasel R.
Advanced Materials , 2016
53.
Stepwise Lateral Extension of Phenyl‐Substituted Linear Polyphenylenes
Hou I.C., Narita A., Müllen K.
Macromolecular Chemistry and Physics , 2019
54.
Synthesis of structurally well-defined and liquid-phase-processable graphene nanoribbons
Narita A., Feng X., Hernandez Y., Jensen S.A., Bonn M., Yang H., Verzhbitskiy I.A., Casiraghi C., Hansen M.R., Koch A.H., Fytas G., Ivasenko O., Li B., Mali K.S., Balandina T., et. al.
Nature Chemistry , 2013
55.
Bottom-Up Synthesis of Liquid-Phase-Processable Graphene Nanoribbons with Near-Infrared Absorption
Narita A., Verzhbitskiy I.A., Frederickx W., Mali K.S., Jensen S.A., Hansen M.R., Bonn M., De Feyter S., Casiraghi C., Feng X., Müllen K.
ACS Nano , 2014
56.
Tuning the deposition of molecular graphene nanoribbons by surface functionalization
Konnerth R., Cervetti C., Narita A., Feng X., Müllen K., Hoyer A., Burghard M., Kern K., Dressel M., Bogani L.
Nanoscale , 2015
57.
Role of Edge Engineering in Photoconductivity of Graphene Nanoribbons
Ivanov I., Hu Y., Osella S., Beser U., Wang H.I., Beljonne D., Narita A., Müllen K., Turchinovich D., Bonn M.
Journal of the American Chemical Society , 2017
58.
Bandgap Engineering of Graphene Nanoribbons by Control over Structural Distortion
Hu Y., Xie P., De Corato M., Ruini A., Zhao S., Meggendorfer F., Straasø L.A., Rondin L., Simon P., Li J., Finley J.J., Hansen M.R., Lauret J., Molinari E., Feng X., et. al.
Journal of the American Chemical Society , 2018
59.
One-shot K-region-selective annulative π-extension for nanographene synthesis and functionalization
Ozaki K., Kawasumi K., Shibata M., Ito H., Itami K.
Nature Communications , 2015
60.
RETRACTED ARTICLE: Living annulative π-extension polymerization for graphene nanoribbon synthesis
Yano Y., Mitoma N., Matsushima K., Wang F., Matsui K., Takakura A., Miyauchi Y., Ito H., Itami K.
Nature , 2019
61.
rcr_89_7_693_bib61
Jiang
J. Chem. Phys. , 2007
63.
Magnetic edge states and coherent manipulation of graphene nanoribbons
Slota M., Keerthi A., Myers W.K., Tretyakov E., Baumgarten M., Ardavan A., Sadeghi H., Lambert C.J., Narita A., Müllen K., Bogani L.
Nature , 2018
64.
Spinning on the edge of graphene
Luis F., Coronado E.
Nature , 2018
65.
The chemistry of nitroxide radicals in the molecular design of magnets
Tretyakov E.V., Ovcharenko V.I.
Russian Chemical Reviews , 2009
66.
rcr_89_7_693_bib66
Clar
1964
67.
rcr_89_7_693_bib67
Clar
1972
70.
Polycyclic aromatic hydrocarbons in the graphene era
Wang X., Yao X., Müllen K.
Science China Chemistry , 2019
71.
Structurally uniform and atomically precise carbon nanostructures
Segawa Y., Ito H., Itami K.
Nature Reviews Materials , 2016
72.
Graphene‐like Molecules with Four Zigzag Edges
Gu Y., Wu X., Gopalakrishna T.Y., Phan H., Wu J.
Angewandte Chemie , 2018
73.
Pyrene-Based Materials for Organic Electronics
Figueira-Duarte T.M., Müllen K.
Chemical Reviews , 2011
75.
rcr_89_7_693_bib75
Samori
J. Phys.: Condens. Matter , 2002
77.
An MCBJ case study: The influence of π-conjugation on the single-molecule conductance at a solid/liquid interface
Hong W., Valkenier H., Mészáros G., Manrique D.Z., Mishchenko A., Putz A., García P.M., Lambert C.J., Hummelen J.C., Wandlowski T.
Beilstein Journal of Nanotechnology , 2011
78.
Controlling charge transport in single molecules using electrochemical gate
Li X., Xu B., Xiao X., Yang X., Zang L., Tao N.
Faraday Discussions , 2006
79.
Single Molecule Electronic Devices
Song H., Reed M.A., Lee T.
Advanced Materials , 2011
80.
Molecular-Scale Electronics: From Concept to Function.
Xiang D., Wang X., Jia C., Lee T., Guo X.
Chemical Reviews , 2016
81.
Cotunneling current affected by spin-polarized wire molecules in networked gold nanoparticles
Sugawara T., Minamoto M., Matsushita M.M., Nickels P., Komiyama S.
Physical Review B , 2008
82.
Controlling Co-tunneling Currents in Nanoparticle Networks Using Spin-Polarized Wire Molecules
Nickels P., Matsushita M.M., Minamoto M., Komiyama S., Sugawara T.
Small , 2008
83.
Negative Magneto-resistance Observed on an Ion-radical Salt of a TTF-based Spin-polarized Donor
Matsushita M.M., Kawakami H., Kawada Y., Sugawara T.
Chemistry Letters , 2007
84.
Space‐Charge‐Limited Currents in Organic Crystals
Mark P., Helfrich W.
Journal of Applied Physics , 1962
85.
Relationship between electroluminescence and current transport in organic heterojunction light‐emitting devices
Burrows P.E., Shen Z., Bulovic V., McCarty D.M., Forrest S.R., Cronin J.A., Thompson M.E.
Journal of Applied Physics , 1996
86.
rcr_89_7_693_bib86
Matsushita
Phys. Rev. B , 2008
87.
Influence of Magnetic Field upon the Conductance of a Unicomponent Crystal of a Tetrathiafulvalene-Based Nitronyl Nitroxide
Komatsu H., Matsushita M.M., Yamamura S., Sugawara Y., Suzuki K., Sugawara T.
Journal of the American Chemical Society , 2010
88.
Synthesis and properties of TSF-based spin-polarized donor
Komatsu H., Mogi R., Matsushita M.M., Miyagi T., Kawada Y., Sugawara T.
Polyhedron , 2009
89.
Planar Benzo[1,2-b:4,5-b′]dithiophene Derivatives Decorated with Nitronyl and Imino Nitroxides
Kolanji K., Postulka L., Wolf B., Lang M., Schollmeyer D., Baumgarten M.
Journal of Organic Chemistry , 2018
90.
Synthesis, structure and properties of nitronyl nitroxide diradicals with fused-thiophene couplers
Tretyakov E., Okada K., Suzuki S., Baumgarten M., Romanenko G., Bogomyakov A., Ovcharenko V.
Journal of Physical Organic Chemistry , 2016
91.
Dithieno[2,3-d;2′,3′-d]benzo[2,1-b;3,4-b‘]dithiophene: a novel building-block for a planar copolymer
Keerthi A., An C., Li M., Marszalek T., Ricciardulli A.G., Radha B., Alsewailem F.D., Müllen K., Baumgarten M.
Polymer Chemistry , 2016
92.
rcr_89_7_693_bib92
Tretyakov
Chem. Open , 2017
93.
Controlling the π-Stacking Behavior of Pyrene Derivatives: Influence of H-Bonding and Steric Effects in Different States of Aggregation
Haedler A.T., Misslitz H., Buehlmeyer C., Albuquerque R.Q., Köhler A., Schmidt H.
ChemPhysChem , 2013
94.
Radicals organized by disk shaped aromatics – polymorphism and co-crystals that tune inter-electron exchange
Akpinar H., Mague J.T., Novak M.A., Friedman J.R., Lahti P.M.
CrystEngComm , 2012
95.
Tetramethoxypyrene-based biradical donors with tunable physical and magnetic properties.
Ravat P., Ito Y., Gorelik E., Enkelmann V., Baumgarten M.
Organic Letters , 2013
97.
Spin density in a nitronyl nitroxide free radical. Polarized neutron diffraction investigation and ab initio calculations
Zheludev A., Barone V., Bonnet M., Delley B., Grand A., Ressouche E., Rey P., Subra R., Schweizer J.
Journal of the American Chemical Society , 1994
98.
Evidence for Transmission of Ferromagnetic Interactions through Hydrogen Bonds in Alkyne-Substituted Nitroxide Radicals:  Magnetostructural Correlations and Polarized Neutron Diffraction Studies
Romero F.M., Ziessel R., Bonnet M., Pontillon Y., Ressouche E., Schweizer J., Delley B., Grand A., Paulsen C.
Journal of the American Chemical Society , 2000
99.
Air-stable Curved π-Radical Based on Corannulene: Dynamic Electronic-spin Structure Induced by Temperature-dependent Conformational Changes
Ueda A., Ogasawara K., Nishida S., Fukui K., Sato K., Takui T., Nakasuji K., Morita Y.
Australian Journal of Chemistry , 2010
101.
Organic Magnets
Veciana J., Iwamura H.
MRS Bulletin , 2000
102.
π-Topology and spin alignment in the photo-excited states of phenylanthracene-t-butylnitroxide radicals
Teki Y., Miyamoto S., Koide K.
Physical Chemistry Chemical Physics , 2015
103.
rcr_89_7_693_bib103
Sun
2016
104.
Controlling Electron Transfer Dynamics in Donor−Bridge−Acceptor Molecules by Increasing Unpaired Spin Density on the Bridge
Chernick E.T., Mi Q., Vega A.M., Lockard J.V., Ratner M.A., Wasielewski M.R.
Journal of Physical Chemistry B , 2007
105.
Ultrafast Intersystem Crossing and Spin Dynamics of Photoexcited Perylene-3,4:9,10-bis(dicarboximide) Covalently Linked to a Nitroxide Radical at Fixed Distances
Giacobbe E.M., Mi Q., Colvin M.T., Cohen B., Ramanan C., Scott A.M., Yeganeh S., Marks T.J., Ratner M.A., Wasielewski M.R.
Journal of the American Chemical Society , 2009
106.
Breaking the Semi-Quinoid Structure: Spin-Switching from Strongly Coupled Singlet to Polarized Triplet State
Ravat P., Teki Y., Ito Y., Gorelik E., Baumgarten M.
Chemistry - A European Journal , 2014
107.
Positional Isomers of Tetramethoxypyrene-based Mono- and Biradicals
Ravat P., Baumgarten M.
Journal of Physical Chemistry B , 2015
108.
“Tschitschibabin type biradicals”: benzenoid or quinoid?
Ravat P., Baumgarten M.
Physical Chemistry Chemical Physics , 2015
109.
Anomalous paramagnetism of copper acetate
Proceedings of the Royal Society A: Mathematical, Physical and Engineering Sciences , 1952
110.
Trinitroxide-Trioxytriphenylamine: Spin-State Conversion from Triradical Doublet to Diradical Cation Triplet by Oxidative Modulation of a π-Conjugated System
Suzuki S., Nagata A., Kuratsu M., Kozaki M., Tanaka R., Shiomi D., Sugisaki K., Toyota K., Sato K., Takui T., Okada K.
Angewandte Chemie - International Edition , 2012
111.
The classical and quantum dynamics of molecular spins on graphene
Cervetti C., Rettori A., Pini M.G., Cornia A., Repollés A., Luis F., Dressel M., Rauschenbach S., Kern K., Burghard M., Bogani L.
Nature Materials , 2015
112.
Half-metallic graphene nanoribbons
Son Y., Cohen M.L., Louie S.G.
Nature , 2006
113.
Unraveling the Electronic Structure of Narrow Atomically Precise Chiral Graphene Nanoribbons
Merino-Díez N., Li J., Garcia-Lekue A., Vasseur G., Vilas-Varela M., Carbonell-Sanromà E., Corso M., Ortega J.E., Peña D., Pascual J.I., de Oteyza D.G.
Journal of Physical Chemistry Letters , 2017
114.
rcr_89_7_693_bib114
Yan
Adv. Phys., X , 2019
115.
Regioselective Bromination and Functionalization of Dibenzo[ hi , st ]ovalene as Highly Luminescent Nanographene with Zigzag Edges
Chen Q., Wang D., Baumgarten M., Schollmeyer D., Müllen K., Narita A.
Chemistry - An Asian Journal , 2019
117.
Positive Magneto-LC Effect in Conjugated Spin-Bearing Hexabenzocoronene
Ravat P., Marszalek T., Pisula W., Müllen K., Baumgarten M.
Journal of the American Chemical Society , 2014
118.
Synthesis and Self-Assembly of Functionalized Hexa-peri-hexabenzocoronenes
Ito S., Wehmeier M., Brand J.D., Kübel C., Epsch R., Rabe J.P., Müllen K.
Chemistry - A European Journal , 2000
119.
Hexa-peri-hexabenzocoronene with Different Acceptor Units for Tuning Optoelectronic Properties
Keerthi A., Hou I.C., Marszalek T., Pisula W., Baumgarten M., Narita A.
Chemistry - An Asian Journal , 2016
120.
Photomodulation of Two-Dimensional Self-Assembly of Azobenzene–Hexa-peri-hexabenzocoronene–Azobenzene Triads
Hou I.C., Diez-Cabanes V., Galanti A., Valášek M., Mayor M., Cornil J., Narita A., Samorì P., Müllen K.
Chemistry of Materials , 2019
121.
DNA-Decorated Two-Dimensional Crystalline Nanosheets
Albert S.K., Sivakumar I., Golla M., Thelu H.V., Krishnan N., K. L. J.L., Ashish, Varghese R.
Journal of the American Chemical Society , 2017
122.
rcr_89_7_693_bib122
Chen
Macromolecules , 2010
123.
Systematic Studies on Structural Parameters for Nanotubular Assembly of Hexa-peri-hexabenzocoronenes
Jin W., Yamamoto Y., Fukushima T., Ishii N., Kim J., Kato K., Takata M., Aida T.
Journal of the American Chemical Society , 2008
124.
Self-Assembled Hexa- peri -hexabenzocoronene Graphitic Nanotube
Hill J.P., Jin W., Kosaka A., Fukushima T., Ichihara H., Shimomura T., Ito K., Hashizume T., Ishii N., Aida T.
Science , 2004
125.
A Glass Hook Allows Fishing of Hexa-peri-hexabenzocoronene Graphitic Nanotubes: Fabrication of a Macroscopic Fiber with Anisotropic Electrical Conduction
Yamamoto Y., Fukushima T., Jin W., Kosaka A., Hara T., Nakamura T., Saeki A., Seki S., Tagawa S., Aida T.
Advanced Materials , 2006
126.
Translation of the assembling trajectory by preorganisation: a study of the magnetic properties of 1D polymeric unpaired electrons immobilised on a discrete nanoscopic scaffold
Praveen V.K., Yamamoto Y., Fukushima T., Tsunobuchi Y., Nakabayashi K., Ohkoshi S., Kato K., Takata M., Aida T.
Chemical Communications , 2015
128.
Quantum Nature of Edge Magnetism in Graphene
Golor M., Wessel S., Schmidt M.J.
Physical Review Letters , 2014
129.
Spin polarization in graphene nanoribbons functionalized with nitroxide
Morozov V., Tretyakov E.
Journal of Molecular Modeling , 2019
130.
Spin Dynamics and Relaxation in Graphene Nanoribbons: Electron Spin Resonance Probing
Rao S.S., Stesmans A., van Tol J., Kosynkin D.V., Higginbotham-Duque A., Lu W., Sinitskii A., Tour J.M.
ACS Nano , 2012
132.
Spin Lifetimes Exceeding 12 ns in Graphene Nonlocal Spin Valve Devices
Drögeler M., Franzen C., Volmer F., Pohlmann T., Banszerus L., Wolter M., Watanabe K., Taniguchi T., Stampfer C., Beschoten B.
Nano Letters , 2016
133.
A micro-SQUID with dispersive readout for magnetic scanning microscopy
Foroughi F., Mol J.-., Müller T., Kirtley J.R., Moler K.A., Bluhm H.
Applied Physics Letters , 2018
134.
rcr_89_7_693_bib134
Martínez-Pérez
Phys. Sci. Rev. , 2017