Honey-CNT based Resistive Switching Device for Neuromorphic Computing Applications

Tanim, Md Mehedi Hasan; Vicenciodelmoral, Abdi Yamil; Templin, Zoe; Zhao, Xinghui; Zhao, Feng

doi:10.1109/bdcat56447.2022.00034

Cited by 1 publication

(1 citation statement)

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“…Researchers use the quantum properties of individual CNTs to create qubits, which are the basic units of quantum information (Gao et al, 2018;Cubaynes et al, 2019;Khivrich and Ilani, 2020;Pistolesi et al, 2021;Baydin et al, 2022). Neuromorphic computing is based on the structure of the human brain, (Kim et al, 2017;Tanaka et al, 2018;Tanim et al, 2022;Xia et al, 2022;Liu et al, 2023). Combining the both methods could lead to more advanced AI systems that use quantum computing to speed up processing and neuromorphic structures to learn and adapt quickly.…”

Section: Cnts-based Device Applicationsmentioning

confidence: 99%

Recent advances in carbon nanotube patterning technologies for device applications

Kim,

Kuljanishvili

2023

Front. Carbon

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Carbon nanotubes (CNTs) have gained significant attention in the scientific and technology sectors due to their exceptional physical, chemical, and electronic properties. These qualities make them excellent candidates for several electronic applications, such as ballistic conduction, high current densities, low power consumption, outstanding single-photon capacity, and excellent nano-mechanical resonators. However, incorporating CNTs into specific micro- and nano-architectures and hybrid structures remains challenging. Developing fabrication and patterning technologies, involving CNTs, that can scale up while utilizing their exceptional properties has received significant attention in the last two decades. Various approaches have been investigated, including top-down and bottom-up methods, and new techniques have been used to achieve selective CNTs production through patterning. The continued developments of patterning technologies is critical for fully exploiting CNTs’ practical applicability. This mini-review looks at recent advances in fabrication and patterning of CNTs with micro- and nanoscale resolution, such as using pre-patterned substrates, dielectrophoresis, oxidative etching, and selective production and growth for CNTs, or direct printing of CNT-containing inks, etc. Article discusses advantages and limitations of various approaches for achieving accurate and scalable CNT patterning. Overcoming fabrication challenges will pave the way for a widespread use of CNTs in various applications including electronics, photonics, mechanical and biomedical devices and hybrid systems, etc.

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