Two-dimensional silicene-based technologies in oncology: an emerging avenue.

Nanoscale

Department of Chemistry and Environmental Science, New Jersey Institute of Technology, Newark, 07102, New Jersey, USA.

Published: November 2024

AI Article Synopsis

  • - Silicene is a two-dimensional form of silicon that has unique electronic, mechanical, and biochemical properties, making it a focus of interest in cancer treatment.
  • - This review highlights the promising use of silicene in oncology, particularly due to its biocompatibility and surface reactivity, which could aid in cancer therapy and research.
  • - It also discusses the challenges facing the practical use of silicene, such as stability, toxicity, and production scalability, while outlining future research directions for its application in cancer treatments.

Article Abstract

Silicene, a two-dimensional allotrope of silicon, has attracted considerable attention due to its distinctive electronic, mechanical, and biochemical properties. This review critically examines the emerging applications of silicene in oncology, emphasising its potential roles in cancer therapy and research. Silicene exhibits exceptional biocompatibility and surface reactivity, positioning it as a promising candidate for oncological applications. This review addresses the current challenges and limitations in the clinical translation of silicene-based technologies, including issues of stability, toxicity, and scalable production. By synthesizing recent research findings, this review aims to provide an assessment of silicene's potential contributions to oncology and delineate future research trajectories in this innovative field.

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Source
http://dx.doi.org/10.1039/d4nr03565hDOI Listing

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  • - This review highlights the promising use of silicene in oncology, particularly due to its biocompatibility and surface reactivity, which could aid in cancer therapy and research.
  • - It also discusses the challenges facing the practical use of silicene, such as stability, toxicity, and production scalability, while outlining future research directions for its application in cancer treatments.
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