TY - JOUR
T1 - Halloysite clay nanotubes
T2 - Innovative applications by smart systems
AU - Fahimizadeh, Mohammad
AU - Wong, Liwen
AU - Baifa, Zhang
AU - Sadjadi, Samahe
AU - Auckloo, Sheik Ambarine Banon
AU - Palaniandy, Khanisya
AU - Pasbakhsh, Pooria
AU - Tan, Joash Ban Lee
AU - Singh, Raman R.K.
AU - Yuan, Peng
N1 - Funding Information:
This work was supported by the National Natural Science Foundation of China (Grant No. 52161145405 ). The authors sincerely thank Ms. Chew Kok Lynn and Ms. Febrianne Sukiato for their support throughout this endeavor.
Publisher Copyright:
© 2024 The Authors
PY - 2024/4
Y1 - 2024/4
N2 - Halloysite clay nanotubes (HNTs) are unique porous aluminosilicates that have assumed the role of a multiplex, adaptable, low-cost, and sustainably sourced nanocomposite across a vast array of applications. HNTs have presented diverse opportunities to researchers from different fields, leading to substantial advances in the applications and innovative uses of HNT as a multifaceted nanocomposite in smart system designs. This review focuses on the role of HNTs in intelligent systems that have wholly realized the potential of HNTs and discusses the important structural, chemical, and physical properties of HNTs concerning different applications and as a core element in complex systems. This review highlights the key challenges HNT-based nanocomposites address and provides prospects for the potential applications of HNTs. This review found that smart materials take advantage of the structure, composition, and morphology of HNTs simultaneously, achieving application-specific results due to the passive and active impact of the HNTs on other elements of the smart system and the surrounding environment. Pioneering efforts stemming from the assortment of performance-enhancing options HNTs can offer have revived the application potential of sustainable materials, which have conventionally suffered from low stability, retention, effectiveness, poor mechanical performance, or overall material incompatibility. Furthermore, the dynamic behavior of the HNTs rising from the structural stability of these natural nanotubes across various physical and chemical conditions has permitted researchers to design smart systems based on the operative contributions of HNTs to application-oriented material performance under fluctuating settings. This review highlighted how HNTs are poised to be a component of next-generation materials in sectors vital to sustainable development, ranging from biotechnology to energy storage.
AB - Halloysite clay nanotubes (HNTs) are unique porous aluminosilicates that have assumed the role of a multiplex, adaptable, low-cost, and sustainably sourced nanocomposite across a vast array of applications. HNTs have presented diverse opportunities to researchers from different fields, leading to substantial advances in the applications and innovative uses of HNT as a multifaceted nanocomposite in smart system designs. This review focuses on the role of HNTs in intelligent systems that have wholly realized the potential of HNTs and discusses the important structural, chemical, and physical properties of HNTs concerning different applications and as a core element in complex systems. This review highlights the key challenges HNT-based nanocomposites address and provides prospects for the potential applications of HNTs. This review found that smart materials take advantage of the structure, composition, and morphology of HNTs simultaneously, achieving application-specific results due to the passive and active impact of the HNTs on other elements of the smart system and the surrounding environment. Pioneering efforts stemming from the assortment of performance-enhancing options HNTs can offer have revived the application potential of sustainable materials, which have conventionally suffered from low stability, retention, effectiveness, poor mechanical performance, or overall material incompatibility. Furthermore, the dynamic behavior of the HNTs rising from the structural stability of these natural nanotubes across various physical and chemical conditions has permitted researchers to design smart systems based on the operative contributions of HNTs to application-oriented material performance under fluctuating settings. This review highlighted how HNTs are poised to be a component of next-generation materials in sectors vital to sustainable development, ranging from biotechnology to energy storage.
KW - Aluminosilicates
KW - General mineralogy
KW - Multifunctional materials
KW - Nanoclay
KW - Nanocomposite
KW - Sustainable development
UR - http://www.scopus.com/inward/record.url?scp=85186367009&partnerID=8YFLogxK
U2 - 10.1016/j.clay.2024.107319
DO - 10.1016/j.clay.2024.107319
M3 - Review Article
AN - SCOPUS:85186367009
SN - 0169-1317
VL - 251
JO - Applied Clay Science
JF - Applied Clay Science
M1 - 107319
ER -