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Published in:
General Data on Carbon Allotropes Read chapter Read first chapter

2019 | OriginalPaper | Chapter

5. Other Existing Carbon Forms

Authors : Boris Ildusovich Kharisov, Oxana Vasilievna Kharissova

Published in: Carbon Allotropes: Metal-Complex Chemistry, Properties and Applications

Publisher: Springer International Publishing

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Abstract

In this section, we show several other carbon allotropes, from those rare as, for example, lonsdaleite to common glassy carbon and “carbon black,” xerogels, or hydrogels. In case of carbide- and MOF-derived carbons (relatively new research areas, especially the last one), the production methods vary and structures of formed carbons can be distinct (carbon nanotubes, fullerene- or onion-like nanostructures, nanocrystalline graphitic carbon, amorphous carbon, nanodiamonds, etc.); this is not a special structural type of carbon.

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previous chapter Less-Common Carbon Nanostructures
next chapter Predicted Carbon Forms
Footnotes
1
The GC image above (left) is reproduced with permission of Taylor & Francis (P.J.F. Harris. Fullerene-related structure of commercial glassy carbons. Philosophical Magazine, 2004, 84(29), 3159–3167).
 
2
IUPAC: “Glass-like carbon cannot be described as amorphous carbon because it consists of two-dimensional structural elements and does not exhibit ‘dangling’ bonds” (IUPAC Goldbook, http://​goldbook.​iupac.​org/​html/​G/​G02639.​html).
 
3
The main reason for the impressive chemical resistance is a consequence of the disordered structure and the inability to form intercalation compounds. This gives rise to high resistance to corrosion by acid and alkaline agents and melts.
 
4
Indeed, polymer-derived pyrolytic carbons are highly desirable building blocks for high-strength low-density ceramic meta-materials (J. Mater. Sci. 2017, 52, 13799–13811).
 
5
See also the section below about carbon allotropes in the environment.
 
6
Reproduced with permission of MDPI (Gels, 2016, 2, 4).
 
7
This method is mentioned in a variety of reports on carbon aerogels. Other precursors of carbon aerogels are phenolic–furfural and melamine–formaldehyde aerogels, among others (Aerogels Handbook. Advances in Sol-Gel Derived Materials and Technologies. Springer, 2011, New York, NY.).
 
8
The image above is reproduced with permission of Wiley (Advanced Science, 2017, 4(7), 1700059).
 
9
For example, the hydrogen storage at ambient pressure for TiC-CDCs varied from 1.4 wt.% to 2.8 wt.%. The highest methane uptake was 46 cm3/g (3.1 wt.%) at 25 °C and atmospheric pressure (carbon, 44(12), 2489–2497 (2006)).
 
10
Graphane image is reproduced with permission of APS Physics (Phys. Rev. B, 2007, 75, 153,401).
 
11
Reproduced with permission of the Royal Society of Chemistry (RSC Adv., 2016, 6, 32,740–32,745).
 
12
Reproduced from https://​newatlas.​com/​q-carbon-new-phase-of-carbon/​40668/​ (Q-carbon film covered with microdiamonds).
 
Literature
1.
M.P. Manoharan, H. Lee, R. Rajagopalan, H.C. Foley, M.A. Haque, Elastic properties of 4–6 nm-thick glassy carbon thin films. Nanoscale Res. Lett. 5, 14 (2009)CrossRef
2.
K. Jurkiewicz, S. Duber, H.E. Fischerd, A. Burian, Modelling of glass-like carbon structure and its experimental verification by neutron and X-ray diffraction. J. Appl. Crystallogr. 50, 36–48 (2017)CrossRef
3.
O.J.A. Schueller, S.T. Brittain, G.M. Whitesides, Fabrication of glassy carbon microstructures by pyrolysis of microfabricated polymeric precursors. Adv. Mater. 9(6), 477–480 (1997)CrossRef
4.
J. Bauer, A. Schroer, R. Schwaiger, O. Kraft, Approaching theoretical strength in glassy carbon nanolattices. Nat. Mater. 15, 438–443 (2016)CrossRef
5.
C.M. Lentz, B.A. Samuel, H.C. Foley, M.A. Haque, Synthesis and characterization of glassy carbon nanowires. J. Nanomater 2011, (2011). Article ID 129298, 8 pp
6.
A.F. Goncharov, Graphite at high pressures: Pseudomelting at 44 GPa. Sov. Phys. JETP 71(5), 1025–1027 (1990)
7.
M. Yao, X. Fan, W. Zhang, et al., Uniaxial-stress-driven transformation in cold compressed glassy carbon. Appl. Phys. Lett. 111, 101901 (2017)CrossRef
8.
M. Hu, J. He, Z. Zhao, et al., Compressed glassy carbon: An ultrastrong and elastic interpenetrating graphene network. Sci. Adv. 3, e1603213 (2017)CrossRef
9.
J. Csontos, Z. Toth, Z. Pápa, et al., Periodic structure formation and surface morphology evolution of glassy carbon surfaces applying 35-fs–200-ps laser pulses. Appl. Phys. A Mater. Sci. Process. 122, 593 (2016)CrossRef
10.
M. Collaud Coen, Functionalization of graphite, glassy carbon, and polymer surfaces with highly oxidized sulfur species by plasma treatments. J. Appl. Phys. 92, 5077–5083 (2002)CrossRef
11.
I. Emahi, M.P. Mitchell, D.A. Baum, Electrochemistry of pyrroloquinoline quinone (PQQ) on multi-walled carbon nanotube-modified glassy carbon electrodes in biological buffers. J. Electrochem. Soc. 164(3), H3097–H3102 (2017)CrossRef
12.
F. Campanhã Vicentini, B.C. Janegitz, C.M.A. Brett, O. Fatibello-Filho, Tyrosinase biosensor based on a glassy carbon electrode modified with multiwalled carbon nanotubes and 1-butyl-3-methylimidazolium chloride within a dihexadecylphosphate film. Sens. Actuators B Chem. 188, 1101–1108 (2013)CrossRef
13.
F. Chekin, S. Bagheri, S. Bee Abd Hamid, Glassy carbon electrodes modified with gelatin functionalized reduced graphene oxide nanosheet for determination of gallic acid. Bull. Mater. Sci. 38(7), 1711–1716 (2015)CrossRef
14.
S. Robin Nxele, P. Mashazi, T. Nyokong, Surface functionalization of glassy carbon electrodes via adsorption, electrografting and click chemistry using quantum dots and alkynyl substituted phthalocyanines: a brief review. Fourth Conference on Sensors, MEMS, and Electro-Optic Systems, 2017, Proceedings Volume 10036, 100360D
15.
M.L. Valenzuela, R. Cisternas, P. Jara-Ulloa, L. Rodriguez, Electroanalytical analysis of glassy carbon electrode modified with COOH- and NO2- functionalized polyspyrophosphazenes. J. Chil. Chem. Soc. 62(2), 3515–3518 (2017)CrossRef
16.
I. Kocak, Characterization of the reduction of oxygen at anthraquinone-modified glassy carbon and highly oriented pyrolytic graphite electrodes. Anal. Lett. 50(9), 1448–1462 (2017)CrossRef
17.
J. Lv, Y. Tang, L. Teng, D. Tang, J. Zhang, Aminobenzene sulfonic acid-functionalized carbon nanotubes on glassy carbon electrodes for probing traces of mercury(II). J. Serb. Chem. Soc. 82(1), 73–82 (2017)CrossRef
18.
P. Actis, G. Caulliez, G. Shul, et al., Functionalization of glassy carbon with diazonium salts in ionic liquids. Langmuir 24(12), 6327–6333 (2008)CrossRef
19.
J. Liu, S. Dong, Grafting of diaminoalkane on glassy carbon surface and its functionalization. Electrochem. Commun. 2(10), 707–712 (2000)CrossRef
20.
M. Balooei, J. Bakhsh Raoof, F. Chekin, R. Ojani, Novel sensor based on 3-mercaptopropyltrimethoxysilane functionalized carbon nanotubes modified glassy carbon electrode for electrochemical determination of Cefixime. Anal. Bioanal. Electrochem. 9(3), 266–276 (2017)
21.
R. Sakthivel, S. Dhanalakshmi, S.-M. Chen, et al., A novel flakes-like structure of molybdenum disulphide modified glassy carbon electrode for the efficient electrochemical detection of dopamine. Int. J. Electrochem. Sci. 12, 9288–9300 (2017)CrossRef
22.
J. Marwan, T. Addou, D. Bélanger, Functionalization of glassy carbon electrodes with metal-based species. Chem. Mater. 17(9), 2395–2403 (2005)CrossRef
23.
24.
C. Canales, L. Gidi, G. Ramírez, Electrochemical activity of modified glassy carbon electrodes with covalent bonds towards molecular oxygen reduction. Int. J. Electrochem. Sci. 10, 1684–1695 (2015)
25.
J. Miliki, N. Markicevi, A. Jovic, R. Hercigonja, B. Šljuki, Glass-like carbon, pyrolytic graphite or nanostructured carbon for electrochemical sensing of bismuth ion? Process. Appl. Ceramics 10(2), 87–95 (2016)CrossRef
26.
Y.E. Seidel, R.W. Lindström, Z. Jusys, et al., Stability of nanostructured Pt/glassy carbon electrodes prepared by colloidal lithography. J. Electrochem. Soc. 155(3), K50–K58 (2008)CrossRef
27.
Y. Jalit, M.C. Rodríguez, M.D. Rubianes, S. Bollo, G.A. Rivas, Glassy carbon electrodes modified with multiwall carbon nanotubes dispersed in polylysine. Electroanalysis 20(15), 1623–1631 (2008)CrossRef
28.
S.E. Subramani, T.V. Vineesh, T. Priya, V. Kathikeyan, N. Thinakaran, Electrochemical detection of Pb(II) ions using glassy carbon electrode surface modified by functionalized mesoporous carbon. Sens. Lett. 15(4), 320–327 (2017)CrossRef
29.
C. Sun, L. Rotundo, C. Garino, Electrochemical CO2 reduction at glassy carbon electrodes functionalized by MnI and ReI organometallic complexes. ChemPhysChem 18(22), 3219–3229 (2017)CrossRef
30.
A. Braun, J. Ilavsky, S. Seifert, Highly porous activated glassy carbon film sandwich structure for electrochemical energy storage in ultracapacitor applications: Study of the porous film structure and gradient. J. Mater. Res. 25(8), 1532–1540 (2010)CrossRef
31.
V.D. Chekanova, A.S. Fialkov, Vitreous carbon (preparation, properties, and applications). Russ. Chem. Rev. 1971(40), 413–428 (1971)CrossRef
32.
C. Garion, Mechanical properties for reliability analysis of structures in glassy carbon. World J. Mech. 4, 79–89 (2014)CrossRef
33.
N. Komarevskiy, V. Shklover, L. Braginsky, C. Hafner, J. Lawson, Potential of glassy carbon and silicon carbide photonic structures as electromagnetic radiation shields for atmospheric re-entry. Opt. Express 20(13), 14189–14200 (2012)CrossRef
34.
J. Myalski, B. Hekner, A. Posmyk, The influence of glassy carbon on tribological properties in metal – ceramic composites with skeleton reinforcement. Additional Conferences (Device Packaging, HiTEC, HiTEN, & CICMT), 2015, Vol. 2015, No. CICMT, (2015) pp. 000121–000124CrossRef
35.
Y. Koval, A. Geworski, K. Gieb, I. Lazareva, P. Müller, Fabrication and characterization of glassy carbon membranes. Journal of Vacuum Science & Technology B, Nanotechnology and Microelectronics: Materials, Processing, Measurement, and Phenomena 32, 042001 (2014)CrossRef
36.
M. Vomero, E. Castagnola, F. Ciarpella, E. Maggiolini, N. Goshi, E. Zucchini, S. Carli, L. Fadiga, S. Kassegne, D. Ricci, Highly stable glassy carbon interfaces for long-term neural stimulation and low-noise recording of brain activity. Sci. Rep. 7, 40332 (2017)CrossRef
37.
38.
S. Dadkhah, E. Ziaei, A. Mehdinia, T. Baradaran Kayyal, A. Jabbari, A glassy carbon electrode modified with amino-functionalized graphene oxide and molecularly imprinted polymer for electrochemical sensing of bisphenol a. Microchim. Acta 183(6), 1933–1941 (2016)CrossRef
39.
J. Bakhsh Raoof, R. Ojani, M. Baghayeri, M. Amiri-Aref, Application of a glassy carbon electrode modified with functionalized multi-walled carbon nanotubes as a sensor device for simultaneous determination of acetaminophen and tyramine. Anal. Methods 4, 1579–1587 (2012)CrossRef
40.
41.
C.M. Long, M.A. Nascarella, P.A. Valberg, Carbon black vs. black carbon and other airborne materials containing elemental carbon: Physical and chemical distinctions. Environ. Pollut. 181, 271–286 (2013)CrossRef
42.
43.
44.
45.
N. Probst, E. Grivei, Structure and electrical properties of carbon black. Carbon 40, 201–205 (2002)CrossRef
46.
M. Ozawa, E. Ōsawa, Carbon blacks as the source materials for carbon nanotechnology. In: “Carbon Nanotechnology”, 2006, L. Dai. (Ed.), Chapt. 6, p. 127-151. Elsevier: DordrechtCrossRef
47.
48.
S. Lim, X. Faïn, P. Gino, et al., Black carbon variability since preindustrial times in the Eastern part of Europe reconstructed from Mt. Elbrus, Caucasus, icecores. Atmos. Chem. Phys. 17, 3489–3505 (2017)CrossRef
49.
C. Garland, S. Delapena, R. Prasad, C. L’Orange, D. Alexander, M. Johnson, Black carbon cookstove emissions: A field assessment of 19 stove/fuel combinations. Atmos. Environ. 169, 140–149 (2017)CrossRef
50.
A. Guha, B. De Kumar, P. Dha, et al., Seasonal characteristics of aerosol black carbon in relation to long range transport over Tripura in Northeast India. Aerosol Air Qual. Res. 15, 786–798 (2015)CrossRef
51.
W. Min Hao, A. Petkov, B.L. Nordgre, et al., Daily black carbón emissions from fires in northern Eurasia for 2002–2015. Geosci. Model Dev. 9, 4461–4474 (2016)CrossRef
52.
Ö. Gustafssona, V. Ramanathan, Convergence on climate warming by black carbon aerosols. PNAS 113(16), 4243–4245 (2016)CrossRef
53.
V. Ramanathan, G. Carmichael, Global and regional climate changes due to black carbon. Nat. Geosci. 1, 221–227 (2008)CrossRef
54.
O.A. Al-Hartomy, F. Al-Solamy, A. Al-Ghamdi, et al., Volume 2011. Article ID 521985, 8 pp (2011)
55.
56.
G. Datt, C. Kotabage, A.C. Abhyankar, Ferromagnetic resonance of NiCoFe2O4 nanoparticles and microwave absorption properties of flexible NiCoFe2O4–carbon black/poly(vinyl alcohol) composites. Phys. Chem. Chem. Phys. 19, 20699–20712 (2017)CrossRef
57.
Q. Zhang, B.-Y. Zhang, Z.-X. Guo, J. Yu, Tunable electrical conductivity of carbon-black-filled ternary polymer blends by constructing a hierarchical structure. Polymers 9, 404, 11 pp (2017)CrossRef
58.
S.K.H. Gulrez, S. Al-Assaf, G.O. Phillips. Hydrogels: methods of preparation, characterisation and applications. in Progress in Molecular and Environmental Bioengineering. From Analysis and Modeling to Technology Applications. ed. by A. Carpi, ISBN: 978-953-307-268-5 (InTech, London, UK, 2011)
59.
L. Zuo, Y. Zhang, L. Zhang, Y.-E. Miao, W. Fan, T. Liu, Polymer/carbon-based hybrid aerogels: Preparation, properties and applications. Materials 8, 6806–6848 (2015)CrossRef
60.
J. Shen, D.Y. Guan, Preparation and application of carbon aerogels, in Aerogels Handbook. Advances in Sol-Gel Derived Materials and Technologies, ed. by M. Aegerter, N. Leventis, M. Koebel, (Springer, New York, 2011)
61.
X. Yao, Y. Zhao, Three-dimensional porous graphene networks and hybrids for Lithium-ion batteries and supercapacitors. Chem 2, 171–200 (2017)CrossRef
62.
K.-S. Lin, Y.-J. Mai, S.-W. Chiu, J.-H. Yang, S.L I. Chan. Synthesis and rage. J. Nanomater. 2012, Article ID 201584, 9 pp (2012)
63.
K. Kreek, K. Kriis, B. Maaten, et al., Organic and carbon aerogels containing rare-earth metals: Their properties and application as catalysts. J. Non-Cryst. Solids 404, 43–48 (2014)CrossRef
64.
C. Macias, G. Rasines, T.E. García, et al., Synthesis of porous and mechanically compliant carbon aerogels using conductive and structural additives. Gels 2, 4 (2016)CrossRef
65.
B. Xue, M. Qin, J. Wu, et al., Electroresponsive supramolecular graphene oxide hydrogels for active Bacteria adsorption and removal. ACS Appl. Mater. Interfaces 8(24), 15120–15127 (2016)CrossRef
66.
C. Shen, E. Barrios, M. McInnis, J. Zuyus, L. Zhai, Fabrication of graphene aerogels with heavily loaded metallic nanoparticles. Micromachines 8, 47 (2017)CrossRef
67.
Y. Liu, H. Wang, D. Lin, J. Zhao, C. Liu, J. Xie, Y. Cui, A Prussian blue route to nitrogen-doped graphene aerogels as efficient electrocatalysts for oxygen reduction with enhanced active site accessibility. Nano Res. 10(4), 1213–1222 (2017)CrossRef
68.
H. Guo, T. Jiao, Q. Zhang, W. Guo, Q. Peng, X. Ya, Preparation of graphene oxide-based hydrogels as efficient dye adsorbents for wastewater treatment. Nanoscale Res. Lett. 10, 272 (2015)CrossRef
69.
Y. Hu, X. Tong, H. Zhuo, et al., 3D hierarchical porous N-doped carbon aerogel from renewable cellulose: An attractive carbon for high-performance supercapacitor electrodes and CO2 adsorption. RSC Adv. 6, 15788–15795 (2016)CrossRef
70.
M. Yu, Y. Han, J. Li, L. Wang, One-step synthesis of sodium carboxymethyl cellulose-derived carbon aerogel/nickel oxide composites for energy storage. Chem. Eng. J. 324, 287–295 (2017)CrossRef
71.
J. Štefelová, M. Mucha, T. Zelenka, Cellulose acetate-based carbon xerogels and cryogels. WIT Transactions on Engineering Sciences 77., WIT Press, 65–75 (2013)CrossRef
72.
P. Hao, Z. Zhao, J. Tian, et al., Hierarchical porous carbon aerogel derived from bagasse for high performance supercapacitor electrode. Nanoscale 6, 12120–12129 (2014)CrossRef
73.
A. Feaver, S. Sepehri, P. Shamberger, A. Stowe, T. Autrey, G. Cao, Coherent carbon Cryogel-ammonia borane nanocomposites for H2 storage. J. Phys. Chem. B 111, 7469–7472 (2007)CrossRef
74.
C. Alegre, D. Sebastián, E. Baquedano, et al., Tailoring Synthesis Conditions of Carbon Xerogels towards Their Utilization as Pt-Catalyst Supports for Oxygen Reduction Reaction (ORR). Catalysts 2, 466–489 (2012)CrossRef
75.
N. Mahata, A.R. Silva, M.F.R. Pereira, C. Freire, B. de Castro, J.L. Figueiredo, Anchoring of a [Mn(salen)Cl] complex onto mesoporous carbon xerogels. J. Colloid Interface Sci. 311, 152–158 (2007)CrossRef
76.
W. Kicinski, M. Szala, M. Nita, Structurally tailored carbon xerogels produced through a sol–gel process in a water–methanol–inorganic salt solution. J. Sol-Gel Sci. Technol. 58, 102–113 (2011)CrossRef
77.
W. Xia, B. Qiu, D. Xia, R. Zou, Facile preparation of hierarchically porous carbons from metal-organic gels and their application in energy storage. Sci. Rep. 3, 1935, 7 pp (2013)CrossRef
78.
E. Kowsari, High-performance supercapacitors based on ionic liquids and a graphene nanostructure, in Ionic Liquids – Current State of the Art, (Intech, London, UK, 2015), pp. 505–542
79.
G. Yushin, A. Nikitin, Y. Gogotsi, Carbide-derived carbon, in Nanomaterials Handbook, (Taylor & Francis Group, Boca Raton, 2006)
80.
V. Presser, M. Heon, Y. Gogotsi, Carbide-derived carbons – From porous networks to nanotubes and graphene. Adv. Funct. Mater. 21, 810–833 (2011)CrossRef
81.
P. Simon, Y. Gogotsi, Materials for electrochemical capacitors. Nat. Mater. 7(11), 845–854 (2008)CrossRef
82.
V. Presser, L. Zhang, J.J. Niu, J. McDonough, C. Perez, H. Fong, Y. Gogotsi, Flexible Nano-felts of carbide-derived carbon with ultra-high power handling capability. Adv. Energy Mater. 1(3), 423–430 (2011)CrossRef
83.
J. Chmiola, G. Yushin, Y. Gogotsi, C. Portet, P. Simon, P.L. Taberna, Anomalous Increase in Carbon Capacitance at Pore Sizes of Less Than 1 Nanometer. Science 313(5794), 1760–1763 (2006)CrossRef
84.
S.H. Yeon, P. Reddington, Y. Gogotsi, J.E. Fischer, C. Vakifahmetoglu, P. Colombo, Carbide-derived-carbons with hierarchical porosity from a preceramic polymer. Carbon 48, 201–210 (2010)CrossRef
85.
Y. Gogotsi, Not just graphene – The wonderful world of carbon and related nanomaterials. MRS Bull. 40, 1110–1120 (2015)CrossRef
86.
M. Rose, Y. Korenblit, E. Kockrick, L. Borchard, M. Oschatz, S. Kaskel, G. Yushin, Hierarchical micro-and mesoporous carbide-derived carbon as a high-performance electrode material in supercapacitors. Small 7(8), 1108–1117 (2011)CrossRef
87.
R. Dash, J. Chmiola, G. Yushin, Y. Gogotsi, G. Laudisio, J. Singer, J.E. Fischer, S. Kucheyev, Titanium carbide derived Nanoporous carbon for energy-related applications. Carbon 44(12), 2489–2497 (2006)CrossRef
88.
M. Sevilla, R. Mokaya, Activation of carbide derived carbons: A route to materials with enhanced gas and energy storage properties. J. Mater. Chem. 21, 4727–4732 (2011)CrossRef
89.
E.N. Hoffman, G. Yushin, B.G. Wendler, M.W. Barsouma, Y. Gogotsi, Carbide-derived carbon membrane. Mater. Chem. Phys. 112(2), 587–591 (2008)CrossRef
90.
C. Portet, D. Kazachkin, S. Osswald, Y. Gogotsi, E. Borguet, Impact of synthesis conditions on surface chemistry and structure of carbide-derived carbons. Thermochim. Acta 497, 137–142 (2010)CrossRef
91.
B. Krüner, C. Odenwald, A. Tolosa, A. Schreiber, M. Aslan, G. Kickelbick, V. Presser, Carbide-derived carbon beads with tunable nanopores from continuously produced polysilsesquioxanes for supercapacitor electrodes. Sustainable Energy Fuels 1, 1588–1600 (2017)CrossRef
92.
S. Ishikawa, T. Saito, K. Kuwahara, Carbon Materials with Nano-sized Pores Derived from Carbides. Sei Technical Review 82, 152–157 (2016)
93.
M.R. Lukatskaya, J. Halim, B. Dyatkin, M. Naguib, Y.S. Buranova, M.W. Barsoum, Y. Gogotsi, Room-temperature carbide-derived carbon synthesis by electrochemical etching of MAX phases. Angew. Chem. 126, 4977–4980 (2014)CrossRef
94.
H.S. Cheng, M.R. Shen, C.L. Mak, P.K. Lim. Liquid phase electrochemical route to carbon nanotubes at room temperature. Proceedings of the 1st IEEE International Conference on Nano/Micro Engineered and Molecular Systems, January 18–21, 2006, Zhuhai, China. pp.484–487 (2006)
95.
A. Shawky, S. Yasuda, K. Murakoshi, Room-temperature synthesis of single-wall carbon nanotubes by an electrochemical process. Carbon 50, 4184–4191 (2012)CrossRef
96.
S.K. Mandal, S. Hussain, A.K. Pal, Growth mechanism of carbon nanotubes deposited by electrochemical technique. Ind. J. Pure Appl. Phys. 43, 765–771 (2005)
97.
K. Yamagiwa, J. Kuwano, Synthesis of highly aligned carbon nanotubes by one-step liquid-phase process: Effects of carbon sources on morphology of carbon nanotubes. Jap. J. Appl. Phys. 56, 06GE05 (2017)CrossRef
98.
L. Zhang, X. Qina, G. Shaoa, Z. Ma, S. Liu, C. He, A new route for preparation of titanium carbide derived carbon and its performance for supercapacitors. Mater. Lett. 122, 78–81 (2014)CrossRef
99.
A.H. Farmahini, D.S. Sholl, S.K. Bhatia, Fluorinated carbide-derived carbon: More hydrophilic, yet apparently more hydrophobic. J. Am. Chem. Soc. 137(18), 5969–5979 (2015)CrossRef
100.
B. Li, H.-M. Wen, W. Zhou, J.Q. Xu, B. Chen, Porous metal-organic frameworks: Promising materials for methane storage. Chem 1, 557–580 (2016)CrossRef
101.
S.K. Bhatia, T.X. Nguyen, Potential of silicon carbide-derived carbon for carbon capture. Ind. Eng. Chem. Res. 50, 10380–10383 (2011)CrossRef
102.
Z. Zondaka, R. Valner, A. Aabloo, T. Tamm, R. Kiefer, Embedded carbide-derived carbon particles in polypyrrole for linear actuator. Proc. SPIE 9798, 97981H-7 (2016)
103.
W. Xing, C. Liu, Z. Zhou, J. Zhou, G. Wang, S. Zhuo, et al., Oxygen-containing functional group-facilitated CO2 capture by carbide-derived carbons. Nanoscale Res. Lett. 9, 189 (2014)CrossRef
104.
L. Borchardt, F. Hasche, M.R. Lohe, et al., Transition metal loaded silicon carbide-derived carbons with enhanced catalytic properties. Carbon 50, 1861–1870 (2012)CrossRef
105.
J. Gläsel, J. Diao, Z. Feng, M. Hilgart, T. Wolker, D. Sheng Su, B.J.M. Etzold, Mesoporous and graphitic carbide-derived carbons as selective and stable catalysts for the dehydrogenation reaction. Chem. Mater. 27, 5719–5725 (2015)CrossRef
106.
J. Tae Lee, H. Kim, M. Oschatz, D.-C. Lee, F. Wu, H.-T. Lin, et al., Micro- and mesoporous carbide-derived carbon–selenium cathodes for high-performance lithium selenium batteries. Adv. Energy Mater. 5, 1400981 (2014)CrossRef
107.
W. Nickel, M. Oschatz, M. von der Lehr, M. Leistner, et al., Direct synthesis of carbide-derived carbon monoliths with hierarchical pore design by hardtemplating. J. Mater. Chem. A 2, 12703 (2014)CrossRef
108.
P.-C. Gao, W.-Y. Tsai, B. Daffos, P.-L. Taberna, C.R. Pérez, Y. Gogotsi, P. Simon, F.G. Favier, Carbide derived carbon for high-power supercapacitors. Nano Energy 12, 197–206 (2015)CrossRef
109.
H. Wang, Q.-L. Zhu, R. Zou, Q. Xu, Metal-organic frameworks for energy applications. Chem 2, 52–80 (2017)CrossRef
110.
K. Shen, X. Chen, J. Chen, Y. Li, Development of MOF-derived carbon-based nanomaterials for efficient catalysis. ACS Catal. 6(9), 5887–5903 (2016)CrossRef
111.
Q. Ren, H. Wang, X.-F. Lu, Y.-X. Tong, G.-R. Li, Recent Progress on MOF-derived heteroatom-doped carbon-based Electrocatalysts for oxygen reduction reaction. Adv. Sci. 5(3), 1700515 (2018)CrossRef
112.
L. Lux, K. Williams, S. Ma, Heat-treatment of metal–organic frameworks for green energy applications. CrystEngComm 17, 10–22 (2015)CrossRef
113.
A. Dhakshinamoorthy, H. Garcia, Catalysis by metal nanoparticles embedded on metal–organic frameworks. Chem. Soc. Rev. 41, 5262–5284 (2012)CrossRef
114.
P. Silva, S.M.F. Vilela, J.P.C. Tome, F.A. Almeida Paz, Multifunctional metal–organic frameworks: From academia to industrial applications. Chem. Soc. Rev. 44, 6774–6803 (2015)CrossRef
115.
B. Liu, H. Shioyama, H. Jiang, X. Zhang, Q. Xu, Metal–organic framework (MOF) as a template for syntheses of nanoporous carbons as electrode materials for supercapacitor. Carbon 48, 456–463 (2010)CrossRef
116.
M. Yang, X. Hu, Z. Fang, et al., Bifunctional MOF-derived carbon photonic crystal architectures for advanced Zn–air and li–S batteries: Highly exposed graphitic nitrogen matters. Adv. Funct. Mater. 27(36), 1701971 (2017)CrossRef
117.
118.
B. Chen, G. Ma, D. Kong, Y. Zhu, Y. Xia, Atomically homogeneous dispersed ZnO/N-doped nanoporous carbon composites with enhanced CO2 uptake capacities and high efficient organic pollutants removal from water. Carbon 95, 113–124 (2015)CrossRef
119.
W. Zhang, Z.-Y. Wu, H.-L. Jiang, S.-H. Yu, Nanowire-directed templating synthesis of metal−organic framework nanofibers and their derived porous doped carbon nanofibers for enhanced Electrocatalysis. J. Am. Chem. Soc. 136, 14385–14388 (2014)CrossRef
120.
H.-L. Jiang, B. Liu, Y.-Q. Lan, et al., From metal-organic framework to Nanoporous carbon: Toward a very high surface area and hydrogen uptake. J. Am. Chem. Soc. 133(31), 11854–11857 (2011)CrossRef
121.
B. Ding, J. Wang, Z. Chang, G. Xu, et al., Self-sacrificial template-directed synthesis of metal–organic framework-derived porous carbon for energy-storage devices. Chem. Electro. Chem. 3(4), 668–674 (2016)
122.
R. Chen, T. Zhao, T. Tian, et al., Graphene-wrapped sulfur/metal organic framework-derived microporous carbon composite for lithium sulfur batteries. APL Materials 2, 124109 (2014)CrossRef
123.
H. Bin Wu, S. Wei, L. Zhang et al. Embedding Sulfur in MOF-Derived Microporous Carbon Polyhedrons for Lithium–Sulfur Batteries. Chemistry, a Eur. J., 2013, 9(33), 10804–10808CrossRef
124.
A. Banerjee, K.K. Upadhyay, et al., MOF-derived crumpled-sheet-assembled perforated carbon cuboids as highly effective cathode active materials for ultra-high energy density li-ion hybrid electrochemical capacitors (li-HECs). Nanoscale 6(8), 4387–4394 (2014)CrossRef
125.
126.
A. Li, Y. Tong, B. Cao, H. Song, et al. MOF-derived multifractal porous carbon with ultrahigh lithium-ion storage performance. Scientific Rep. 7, Article number: 40574 (2017)
127.
H. Li, L. Chi, C. Yang, L. Zhang, et al., MOF derived porous Co@C hexagonal-shaped prisms with high catalytic performance. J. Mater. Res. 31(19), 3069–3077 (2016)CrossRef
128.
S. Hoon Ahn, A. Manthiram, Self-templated synthesis of co- and N-doped carbon microtubes composed of hollow Nanospheres and nanotubes for efficient oxygen reduction reaction. Small 13(11), 1603437 (2017)CrossRef
129.
Y.-X. Zhou, Y.-Z. Chen, L. Cao, et al., Conversion of a metal–organic framework to N-doped porous carbon incorporating co and CoO nanoparticles: Direct oxidation of alcohols to esters. Chem. Commun. 51, 8292–8295 (2015)CrossRef
130.
K.-Y.A. Lin, H.-A. Chang, B.-J. Chen, Multi-functional MOF-derived magnetic carbon sponge. J. Mater. Chem. A 4, 13611–13625 (2016)CrossRef
131.
N.L. Torad, M. Hu, S. Ishihara, et al., Direct synthesis of MOF-derived nanoporous carbon with magnetic co nanoparticles toward efficient water treatment. Small 10(10), 2096–2107 (2014)CrossRef
132.
X. Liu, X. Quan, Fe-MOF derived ferrous hierarchically porous carbon used as EF cathode for PFOA degradation. Journal of Geoscience and Environment Protection 5(6), 9–14 (2017)CrossRef
133.
E.C. Walter, T. Beetz, M.Y. Sfeir, L.E. Brus, M.L. Steigerwald, Crystalline graphite from an organometallic solution-phase reaction. J. Am. Chem. Soc. 128(49), 15590–15591 (2006)CrossRef
134.
W. Sisi, Z. Yinggang, H. Yifeng, et al., Bimetallic organic frameworks derived CuNi/carbon nanocomposites as efficient electrocatalysts for oxygen reduction reaction. Sci. China Mater. 60(7), 654–663 (2017)CrossRef
135.
D.Z. Chen, C.Q. Chen, W.S. Shen, et al., MOF-derived magnetic porous carbon-based sorbent: Synthesis, characterization, and adsorption behavior of organic micropollutants. Adv. Powder Technol. 28(7), 1769–1779 (2017)CrossRef
136.
S. Hoon Ahn, M.J. Klein, A. Manthiram, 1D co- and N-doped hierarchically porous carbon nanotubes derived from bimetallic metal organic framework for efficient oxygen and tri-iodide reduction reactions. Adv. Energy Mater. 7(7), 1601979 (2017)CrossRef
137.
Q. Gan, K. Zhao, S. Liu, Z. He, MOF-derived carbon coating on self-supported ZnCo2O4–ZnO nanorod arrays as high-performance anode for lithium-ion batteries. J. Mater. Sci. 52(13), 7768–7780 (2017)CrossRef
138.
Z. Li, L. Yin, MOF-derived, N-doped, hierarchically porous carbon sponges as immobilizers to confine selenium as cathodes for li–se batteries with superior storage capacity and perfect cycling stability. Nanoscale 7, 9597–9606 (2015)CrossRef
139.
W. Chaikittisilp, K. Ariga, Y. Yamauchi, A new family of carbon materials: Synthesis of MOF-derived nanoporous carbons and their promising applications. J. Mater. Chem. A 1, 14–19 (2013)CrossRef
140.
M. Hui Yap, K. Loon Fow, G. Zheng Chen, Synthesis and applications of MOF-derived porous nanostructures. Green Energy Environ. 2(3), 218–245 (2017)CrossRef
141.
S. Fardindoost, S. Hatamie, A. Iraji Zad, F. Razi Astaraei, Hydrogen sensing properties of nanocomposite graphene oxide/co-based metal organic frameworks (co-MOFs@GO). Nanotechnology 29, 015501 (2018). (7 pp)CrossRef
142.
G. Cai, W. Zhang, L. Jiao, S.-H. Yu, H.-L. Jiang, Template-directed growth of well-aligned MOF arrays and derived self-supporting electrodes for water splitting. Chem 2(6), 791–802 (2017)CrossRef
143.
T. Nagy, L. Yunq, I. Shinsuke, et al., MOF-derived nanoporous carbon as intracellular drug delivery carriers. Chem. Lett. 43(5), 717–719 (2014)CrossRef
144.
L. Xiao, R. Xu, Q. Yuan, F. Wang, Highly sensitive electrochemical sensor for chloramphenicol based on MOF derived exfoliated porous carbon. Talanta 167, 39–43 (2017)CrossRef
145.
W. Li, S. Hu, X. Luo, et al., Confined amorphous red phosphorus in MOF-derived N-doped microporous carbon as a superior anode for sodium-ion battery. Adv. Mater. 29(16), 1605820 (2017)CrossRef
146.
S. Pandiaraj, H.B. Aiyappa, R. Banerjee, S. Kurungot, Post modification of MOF derived carbon via g-C3N4 entrapment for an efficient metal-free oxygen reduction reaction. Chem. Commun. 50, 3363–3366 (2014)CrossRef
147.
148.
A.G. Kvashnin, P.B. Sorokin, Lonsdaleite films with nanometer thickness. J. Phys. Chem. Lett. 5, 541–548 (2014)CrossRef
149.
150.
151.
P. Nemeth, L.A.J. Garvie, T. Aoki, N. Dubrovinskaia, L. Dubrovinsky, P.R. Buseck, Lonsdaleite is faulted and twinned cubic diamond and does not exist as a discrete material. Nat. Commun. 5, 5447, 5 pp (2014)CrossRef
152.
L. Qingkun, S. Yi, L. Zhiyuan, Z. Yu, Lonsdaleite – A material stronger and stiffer than diamond. Scr. Mater. 65, 229–232 (2011)CrossRef
153.
D. Kraus, A. Ravasio, M. Gauthier, D.O. Gericke, et al., Nanosecond formation of diamond and lonsdaleite by shock compression of graphite. Nat. Commun. 7, 10970, 6 pp (2016)CrossRef
154.
B. Kulnitskiy, I. Perezhogin, G. Dubitskya, V. Blank, Polytypes and twins in the diamond–lonsdaleite system formed by high-pressure and high-temperature treatment of graphite. Acta Cryst B69, 474–479 (2013)
155.
Y. Nakamuta, S. Toh, Transformation of graphite to lonsdaleite and diamond in the Goalpara ureilite directly observed by TEM. Am. Mineral. 98(4), 574–581 (2015)CrossRef
156.
S.V. Goryainov, A.Y. Likhacheva, S.V. Rashchenko, A.S. Shubin, V.P. Afanas’eva, N.P. Pokhilenko, Raman identification of lonsdaleite in Popigai impactites. J. Raman Spectrosc. 45, 305–313 (2014)CrossRef
157.
B. Qu, B. Zhang, L. Wang, R. Zhou, X. Cheng Zeng, L. Li, Persistent luminescence hole-type materials by design: Transition-metal-doped carbon allotrope and carbides. ACS Appl. Mater. Interfaces 8(8), 5439–5444 (2016)CrossRef
158.
A. Milani, M. Tommasini, V. Russo, et al., Raman spectroscopy as a tool to investigate the structure and electronic properties of carbon-atom wires. Beilstein J. Nanotechnol. 6, 480–491 (2015)CrossRef
159.
V.V. Sobolev, V.Y. Slobodskoy, S.N. Selyukov, A.A. Udoyev, Some conversions of chaoite to other carbon phases. Int. Geol. Rev. 28(6), 680–683 (1986)CrossRef
160.
J. Pola, A. Ouchi, S. Bakardjieva, et al., Laser photochemical etching of silica: Nanodomains of crystalline chaoite and silica in amorphous C/Si/O/N phase. J. Phys. Chem. C 112(34), 13281–13286 (2008)CrossRef
161.
A. Tembre, J. Henocque, M. Clin. Infrared and Raman spectroscopic study of carbon-cobalt composites. Int. J. Spectrosc. 2011, Article ID 186471, 6 pp (2011)
162.
S.K. Simakov, A.E. Kalmykov, L.M. Sorokin, et al., Chaoite formation from carbon-bearing fluid at low PT parameters. Dokl. Earth Sci. 399A(9), 1289–1290 (2004)
163.
S. Li, Z. Huang, et al., Ferromagnetic chaoite macrotubes prepared at low temperature and pressure. Appl. Phys. Lett. 90, 232507 (2007)CrossRef
164.
S. Li, G. Ji, Z. Huang, F. Zhang, Y. Du, Synthesis of chaoite-like macrotubes at low temperature and ambient pressure. Carbon 45, 2946–2950 (2007)CrossRef
165.
Q. Peng, A.K. Dearden, J. Crean, et al., New materials graphyne, graphdiyne, graphone, and graphane: Review of properties, synthesis, and application in nanotechnology. Nanotechnol. Sci. Appl. 7, 1–29 (2014)CrossRef
166.
J.O. Sofo, A.S. Chaudhari, G.D. Barber, Graphane: A two-dimensional hydrocarbon. Phys. Rev. B 75, 153401 (2007)CrossRef
167.
D.C. Elias, R.R. Nair, T.M.G. Mohiuddin, S.V. Morozov, P. Blake, M.P. Halsall, A.C. Ferrari, D.W. Boukhvalov, M.I. Katsnelson, A.K. Geim, K.S. Novoselov, Control of Graphene’s properties by reversible hydrogenation: Evidence for Graphane. Science 323(5914), 610–613 (2009)CrossRef
168.
H. Sahin, O. Leenaerts, S.K. Singh, F.M. Peeters. GraphAne: From synthesis to applications. arXiv:1502.05804 [cond-mat.mtrl-sci], (2015)
169.
H. Zhang, Y. Miyamoto, A. Rubio. Laser-induced preferential dehydrogenation of graphane. Phys. Rev. B. 85, 201409(R) (2012)
170.
C. Zhou, S. Chen, J. Lou, J. Wang, et al., Graphene’s cousin: The present and future of graphene. Nanoscale Res. Lett. 9, 26 (2014)CrossRef
171.
H. Sahin, O. Leenaerts, S.K. Singh, F.M. Peeters, Graphane. WIREs Comput. Mol. Sci. 5, 255–272 (2015)CrossRef
172.
A. Bhattacharya, S. Bhattacharya, C. Majumder, G.P. Das. Third conformer of graphane: A first-principles density functional theory study. Phys. Rev. B. 83, Article ID 033404 (2011)
173.
H. Einollahzadeh, S. Mahdi Fazeli, R. Sabet Dariani, Studying the electronic and phononic structure of penta-graphane. Sci. Technol. Adv. Mater. 17(1), 610–617 (2016)CrossRef
174.
D. Haberer, C.E. Guusca, Y. Wang, et al., Evidence for a new two-dimensional C4H-type polymer based on hydrogenated graphene. Adv. Mater. 23, 4497–4503 (2011)CrossRef
175.
V.E. Antonov, I.O. Bashkin, A.V. Bazhenov, et al., Multilayer graphane synthesized under high hydrogen pressure. Carbon 100, 465–473 (2016)CrossRef
176.
H. Peelaers, A.D. Hernández-Nieves, O. Leenaerts, B. Partoens, F.M. Peeters, Vibrational properties of graphene fluoride and graphene. Appl. Phys. Lett. 98, 051914 (2011)CrossRef
177.
M. Pumera, Z. Sofer, Towards stoichiometric analogues of graphene: Graphane, fluorographene, graphol, graphene acid and others. Chem. Soc. Rev. 46, 4450–4463 (2017)CrossRef
178.
B.-R. Wu, C.-K. Yang, Electronic structures of graphane with vacancies and graphene adsorbed with fluorine atoms. AIP Adv. 2, 012173 (2012)CrossRef
179.
M.Z.S. Flores, P.A.S. Autreto, S.B. Legoas, D.S. Galvao, Graphene to graphane: A theoretical study. Nanotechnology 20, 465704, 6 pp (2009)CrossRef
180.
W. Liu, F.-H. Meng, J.-H. Zhao, X.-H. Jiang, A first-principles study on the electronic transport properties of zigzag graphane/graphene nanoribbons. J. Theor. Comput. Chem. 16(4), 1750032, 12 pp (2017)CrossRef
181.
J.-H. Lee, J.C. Grossman, Magnetic properties in graphene-graphane superlattices. Appl. Phys. Lett. 97, 133102 (2010)CrossRef
182.
A.S. Barnarda, I.K. Snook, Size- and shape-dependence of the graphene to graphane transformation in the absence of hydrogen. J. Mater. Chem. 20, 10459–10464 (2010)CrossRef
183.
T. Hussain, P. Panigrahi, R. Ahuja, Sensing propensity of a defected graphane sheet towards CO, H2O and NO2. Nanotechnology 25(32), 325501 (2014)CrossRef
184.
J. Xiao, S. Sitamraju, M.J. Janik, CO2 adsorption thermodynamics over N-substituted/grafted Graphanes: A DFT study. Langmuir 30(7), 1837–1844 (2014)CrossRef
185.
T. Hussain, P. Panigrahi, R. Ahuja, Enriching physisorption of H2S and NH3 gases on a graphane sheet by doping with li adatoms. Phys. Chem. Chem. Phys. 16(17), 8100–8105 (2014)CrossRef
186.
E. Ventura-Macias, J. Guerrero-Sánchez, N. Takeuchi, Formaldehyde adsorption on graphane. Computational and Theoretical Chemistry 1117, 119–123 (2017)CrossRef
187.
T. Hussain, B. Pathak, M. Ramzan, T.A. Maark, R. Ahuja, Calcium doped graphane as a hydrogen storage material. Appl. Phys. Lett. 100, 183902 (2012)CrossRef
188.
S.C. Ray, N. Soin, T. Makgato, et al., Graphene supported Graphone/Graphane bilayer nanostructure material for Spintronics. Sci. Reports 4, 3862 (2014)CrossRef
189.
W. Zhao, J. Gebhardt, F. Spath, et al., Reversible hydrogenation of graphene on Ni(111)—Synthesis of “Graphone”. Chem. Eur. J. 21, 3347–3358 (2015)CrossRef
190.
L. Feng, W.X. Zhang, The structure and magnetism of graphone. AIP Adv. 2, 042138 (2012)CrossRef
191.
Q. Peng, A.K. Dearden, X.-J. Chen, et al., Peculiar pressure effect on Poisson ratio of graphone as a strain damper. Nanoscale 7, 9975–9979 (2015)CrossRef
192.
M. Neek-Amal, J. Beheshtian, F. Shayeganfar, S.K. Singh, J.H. Los, F.M. Peeters, Spiral graphone and one-sided fluorographene nanoribbons. Phys. Rev. B 87, 075448 (2013)CrossRef
193.
A.I. Podlivaev, L.A. Openov, On the thermal stability of Graphone. Semiconductors 45(7), 958–961 (2011)CrossRef
194.
D.W. Boukhvalov, Stable antiferromagneticgraphone. Physica E43, 199–201 (2010)CrossRef
195.
Q. Li, Y. Ma, A.R. Oganov, et al., Superhard monoclinic polymorph of carbon. Phys. Rev. Lett. 102, 175506 (2009)CrossRef
196.
M.J. Xing, B.H. Li, Z.T. Yu, Q. Chen, Monoclinic C2/m-20 carbon: a novel superhard sp3 carbon allotrope. RSC Adv. 6, 32740–32745 (2016)CrossRef
197.
M. Amsler, J.A. Flores-Livas, M.A.L. Marques, S. Botti, S. Goedecker, Prediction of a novel monoclinic carbon allotrope. The European Physical Journal B 86, 383 (2013)CrossRef
198.
J. Narayan, A. Bhaumik, Novel phase of carbon, ferromagnetism, and conversion into diamond. J. Appl. Phys. 118, 215303 (2015)CrossRef
199.
J. Narayan, A. Bhaumik, Q-carbon discovery and formation of single-crystal diamond nano- and microneedles and thin films. Mater. Res. Lett. 4(2), 118–126 (2016)CrossRef
200.
J. Pandey, R. Khare, S. Khare, Q-carbon: A new, inexpensive and affordable diamond in Everyones hand. International Journal for Research in Applied Science & Engineering 5(V), 89–91 (2017)
201.
202.
X.-L. Sheng, Q.-B. Yan, F. Ye, Q.-R. Zheng, G.S. T-Carbon, A novel carbon allotrope. Phys. Rev. Lett. 106, 155703 (2011)CrossRef
203.
J. Zhang, R. Wang, X. Zhu, et al. Pseudo-topotactic conversion of carbon nanotubes to T-carbon nanowires under picosecond laser irradiation in methanol. Nat. Commun. 8, Article number 683 (2017)
204.
D. Li, F. Tian, D. Duan, Z. Zhao, et al., Modulated T carbon-like carbon allotropes: An ab initio study. RSC Adv. 4, 17364–17369 (2014)CrossRef
205.
J.Q. Wang, C.X. Zhao, C.Y. Niu, Q. Sun, Y. Jia, C20-T carbon: A novel superhard sp3 carbon allotrope with large cavities. J. Phys. Condens. Matter 28(47), 475402 (2016)CrossRef
206.
Aegerter, Michel A., Leventis, Nicholas, Koebel, Matthias M. (Eds.), Aerogels Handbook. Advances in Sol-Gel Derived Materials and Technologies. (Springer, New York, 2011)
Metadata
Title
Other Existing Carbon Forms
Authors
Boris Ildusovich Kharisov
Oxana Vasilievna Kharissova
Copyright Year
2019
Book
Carbon Allotropes: Metal-Complex Chemistry, Properties and Applications

Print ISBN: 978-3-030-03504-4

Electronic ISBN: 978-3-030-03505-1

Copyright Year: 2019

DOI
https://doi.org/10.1007/978-3-030-03505-1_5

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