Md Habibullah Dalal

Dr. Md Habibullah Dalal

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Research Focus & Metrics

Academic Career Length

14Years (2013-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 October 2013 in Journal of Hazardous Materials
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Journal Article
Closed access
NBNarasimha Murthy Bandaru
Narasimha Murthy Bandaru
NRNekane Reta
Nekane Reta
Md Habibullah DalalMd Habibullah Dalal
Md Habibullah Dalal
AEAmanda Ellis
Amanda Ellis
JSJoe Shapter
Joe Shapter
NVNicolas Voelcker
Nicolas Voelcker

2 November 2020 in Journal of Materials Science
Verified
Journal Article
Closed access
PDF file
Md Habibullah DalalMd Habibullah Dalal
Md Habibullah Dalal
Chong-Yong LeeChong-Yong Lee
Chong-Yong Lee
GWGordon G. Wallace
Gordon G. Wallace

7 October 2013 in The Journal of Physical Chemistry C
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Journal Article
Closed access
AEAmanda Ellis
Amanda Ellis
AAAltaf Al-Deen
Altaf Al-Deen
Md Habibullah DalalMd Habibullah Dalal
Md Habibullah Dalal
GAGunther G. Andersson
Gunther G. Andersson


17 December 2022 in Materials Today Chemistry
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Journal Article
Closed access
Md Habibullah DalalMd Habibullah Dalal
Md Habibullah Dalal
SSS. Sayyar
S. Sayyar
Chong-Yong LeeChong-Yong Lee
Chong-Yong Lee
GWG.G. Wallace
G.G. Wallace

28 July 2025 in Molecules
Verified
Journal Article
Open access
PDF file
Md Habibullah DalalMd Habibullah Dalal
Md Habibullah Dalal
NANuwan Hegoda Arachchi
Nuwan Hegoda Arachchi
Chong-Yong LeeChong-Yong Lee
Chong-Yong Lee
GWGordon G. Wallace
Gordon G. Wallace
Cathodic exfoliation of graphite has emerged as an attractive method to synthesize high-quality and lo- defect graphene. Here, it is demonstrated that the type of starting graphite material influences the properties of exfoliated graphene. Graphite foil, natural graphite, and graphite rods were examined in the exfoliation processes performed in 3.0 M KCl at −15 V. The use of a graphite foil facilitates the rapid cathodic exfoliation process in comparison with structurally more compact natural graphite and graphite rods. For the graphite foil, the cathodically exfoliated graphene exhibits a low defect density (ID/IG of 0.09, a C/O ratio of 35) with graphite exfoliation yield of 92.8%. In contrast, the exfoliated graphene from natural graphite exhibits an ID/IG of 0.15, a C/O ratio of 28, and a graphite exfoliation yield of 30.5%, whereas graphene from graphite rod exhibits an ID/IG of 0.86, a C/O ratio of 30, and a graphite exfoliation yield of 19.5%. The dense structure of natural graphite and graphite rods led to longer exfoliation times. Exfoliation of graphite rods produced few-layer graphene with the smallest sheet size, whereas natural graphite and graphite foil yielded multilayer graphene with larger sheets. This study demonstrates the feasibility of using aqueous-based cathodic exfoliation to produce graphene from various graphite sources, leading to variations in sheet thickness, size, defect density, and solvent dispersibility.