Crossref Citations
This article has been cited by the following publications. This list is generated based on data provided by
Crossref.
Sunagawa, I
1963.
Slip lines due to distortion during crystal growth.
British Journal of Applied Physics,
Vol. 14,
Issue. 10,
p.
696.
Patel, A R
and
Goswami, K N
1963.
Optical and interferometric studies on the cleavages of synthetic diamonds and their etch patterns.
British Journal of Applied Physics,
Vol. 14,
Issue. 5,
p.
284.
Kleber, W.
and
Wilke, K.‐Th.
1969.
Synthese und Kristallchemie anorganischer Stoffe bei hohen Drücken und Temperaturen.
Kristall und Technik,
Vol. 4,
Issue. 2,
p.
165.
Baraniecki, C.
Pinchbeck, P.H.
and
Pickering, F.B.
1969.
Some aspects of graphitization induced by iron and ferro-silicon additions.
Carbon,
Vol. 7,
Issue. 2,
p.
213.
Woods, G. S.
1971.
Electron microscope observations of stacking faults and microtwins in synthetic diamond.
Philosophical Magazine,
Vol. 23,
Issue. 182,
p.
473.
Vavrda, J.
1976.
Über die Zerfallsstruktur des Ni‐Katalysators und die Ni(C)‐Phase des Diamanten bei der Diamantsynthese.
Kristall und Technik,
Vol. 11,
Issue. 10,
p.
1021.
Clarke, Roy
and
Uher, Ctirad
1984.
High pressure properties of graphite and its intercalation compounds.
Advances in Physics,
Vol. 33,
Issue. 5,
p.
469.
Agarwala, B.K.
Singh, B.P.
and
Singhal, S.K.
1986.
A study of graphite-diamond conversion using nickel, invar and monel as catalyst-solvents.
Journal of Crystal Growth,
Vol. 74,
Issue. 1,
p.
77.
Heimann, R. B.
and
Kleiman, J.
1988.
Superhard Materials, Convection, and Optical Devices.
Vol. 11,
Issue. ,
p.
1.
Pavel, E.
Băluţă, Gh.
Barb, D.
and
Lazăr, D.P.
1990.
The nature of the metallic inclusions in synthetic diamond crystals synthesized at ∼ 5.5 GPa in Fe C system.
Solid State Communications,
Vol. 76,
Issue. 4,
p.
531.
Perry, John
Nelson, Stephen
and
Hosomi, Satoru
1990.
Diamond formation in solid metal.
Materials Research Bulletin,
Vol. 25,
Issue. 6,
p.
749.
Wang, Siqing
Lu, Haibo
Ma, Fukang
and
Mu, Yufeng
1996.
Heterogeneous nucleation of diamond under high static pressure and high temperature.
Journal of Crystal Growth,
Vol. 162,
Issue. 1-2,
p.
69.
Sung, Chien-Min
and
Tai, Ming-Fong
1997.
Reactivities of transition metals with carbon: Implications to the mechanism of diamond synthesis under high pressure.
International Journal of Refractory Metals and Hard Materials,
Vol. 15,
Issue. 4,
p.
237.
Zhuk, A. Z.
Borodina, T. I.
Fortov, V. E.
Lash, A. A.
and
Val'iano, G. E.
1997.
Shock metamorphism of the graphite quasimonocrystal.
High Pressure Research,
Vol. 15,
Issue. 4,
p.
245.
Klyui, N.I.
1999.
Micro-Raman study of CNx composites subjected to high pressure treatment.
Semiconductor Physics, Quantum Electronics and Optoelectronics,
Vol. 2,
Issue. 4,
p.
13.
Kuznetsov, N. M.
2004.
High-Pressure Shock Compression of Solids VII.
p.
247.
Konyashin, I.
Khvostov, V.
Babaev, V.
Guseva, M.
Mayer, J.
and
Sirenko, A.
2006.
A new hard allotropic form of carbon: Dream or reality?.
International Journal of Refractory Metals and Hard Materials,
Vol. 24,
Issue. 1-2,
p.
17.
Kuandykov, R. R.
2021.
STRUCTURE AND PROPERTIES OF A NEW CARBON ALLOTROPE BASED ON LADENBURG BENZENE.
Journal of Structural Chemistry,
Vol. 62,
Issue. 10,
p.
1516.
Liu, Nian
Lei, Ling
Zhu, Jingming
Lu, Hao
Xiao, Junfeng
Zhang, Jianguo
Chen, Xiao
Xu, Jianfeng
and
Yamamura, Kazuya
2024.
An interior damage free approach for nanosecond pulsed laser ablation of single crystal diamond via metal film induced self-maintaining graphitization.
Journal of Manufacturing Processes,
Vol. 131,
Issue. ,
p.
958.