Kartikeya Dixit

Dr. Kartikeya Dixit

Mechanical and Manufacturing Engineering, University of Calgary, Calgary, Alberta, Canada
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Research Focus & Metrics

Academic Career Length

8Years (2019-Present)

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

Representative Publications

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22 June 2020 in Journal of Materials Science
Verified
Journal Article
Closed access
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Kartikeya DixitKartikeya Dixit
Kartikeya Dixit
PGP. Gupta
P. Gupta
SKS. Kamle
S. Kamle
NSNiraj Sinha
Niraj Sinha

9 August 2021 in Journal of Engineering and Science in Medical Diagnostics and Therapy
Verified
Journal Article
Closed access
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Kartikeya DixitKartikeya Dixit
Kartikeya Dixit
NSNiraj Sinha
Niraj Sinha

13 November 2023 in ACS Applied Bio Materials
Verified
Journal Article
Closed access
ISIndrajeet Singh
Indrajeet Singh
Kartikeya DixitKartikeya Dixit
Kartikeya Dixit
PGPankaj Gupta
Pankaj Gupta
SGSuchi Mercy George
Suchi Mercy George
NSNiraj Sinha
Niraj Sinha
KBKantesh Balani
Kantesh Balani

1 May 2019 in Journal of Nanoscience and Nanotechnology
Verified
Journal Article
Closed access
Kartikeya DixitKartikeya Dixit
Kartikeya Dixit
NSNiraj Sinha
Niraj Sinha
45S5 Bioglass® has been used quite extensively in the form of particulate as synthetic bone graft. However, 45S5 glass has certain limitations such as difficulty in sintering and slow and partial conversion to hydroxy carbonated apatite. In pursuit of overcoming these limitations, bioactive glasses (13-93B1) containing increased amount of B2O3 by partial replacement of SiO2 have been prepared using sol–gel technique in this study. Since bioactive glasses are brittle in nature, therefore, they are unsuitable for load bearing sites. Consequently, 3D porous scaffolds by reinforcement with varying weight percent of carbon nanotubes (CNTs) have been fabricated in this work by physical mixing and polymer foam replication technique. Compared with pure 13-93B1 bioactive glasses, addition of 0.2 weight percent of CNT resulted in maximum increase in compressive strength from 1.80 MPa to 5.84 MPa (a 224% increase) and elastic modulus from 102 MPa to 269.4 MPa (a 164% increase), respectively. Bioactivity of these scaffolds was confirmed in vitro using simulated body fluid test for 28 days. The compressive strength post-SBF studies were within the range of compressive strength of trabecular bone. These results show potential of fabricating a 3D porous scaffold with sufficient strength and biocompatibility using CNT-1393B1 bioactive glasses.