Happy Thanksgiving to all our friends in the USA and Canada!
Enjoy the time with family and friends and don’t forget to visit us @NanoAndMore USA booth no. 311 @Materials_MRS MRS Fall 2022 after the holidays if you are planning to travel to Boston to participate in the conference. We’re looking forward to seeing you there.
The NanoWorld AFM probes professor and robot wish everyone a happy Thanksgiving holiday
It’s the second day @Materials_MRS Fall Exhibit 2021. NanoWorld CEO Manfred Detterbeck is @NanoAndMore USA booth no 609 today. We are presenting #AFMprobes in many shapes and sizes, including giant inflatable #AFMtips. Have you already visited NanoAndMore USA booth no 609 to find out more?
NanoWorld CEO Manfred Detterbeck is at NanoAndMore USA booth no. 609 at MRS Fall Exhibit 2021 today
Nanostructured electrodes and their flexible integrated systems have great potential for many applications, including electrochemical energy storage, electrocatalysis and solid-state memory devices, given their ability to improve faradaic reaction sites by large surface area. Although many processing techniques have been employed to fabricate nanostructured electrodes on to flexible substrates, these present limitations in terms of achieving flexible electrodes with high mechanical stability.*
In the study “Flexible 3D Electrodes of Free-Standing TiN Nanotube Arrays Grown by Atomic Layer Deposition with a Ti Interlayer as an Adhesion Promoter” by Seokjung Yun, Sang-Joon Kim, Jaesung Youn, Hoon Kim, Jeongjae Ryu, Changdeuck Bae, Kwangsoo No and Seungbum Hong, the adhesion, mechanical properties and flexibility of TiN nanotube arrays on a Pt substrate were improved using a Ti interlayer. Highly ordered and well aligned TiN nanotube arrays were fabricated on a Pt substrate using a template-assisted method with an anodic aluminum oxide (AAO) template and atomic layer deposition (ALD) system.*
The authors show that with the use of a Ti
interlayer between the TiN nanotube arrays and Pt substrate, the TiN nanotube
arrays could perfectly attach to the Pt substrate without delamination and
faceted phenomena. Furthermore, the I-V curve measurements confirmed that
the electric contact between the TiN nanotube arrays and substrate for use
as an electrode was excellent, and its flexibility was also good for use in
flexible electronic devices. Future efforts will be directed toward the
fabrication of embedded electrodes in flexible plastic substrates by employing
the concepts demonstrated in this study.*
The presented strategy
provides a new class of nanostructured 3D electrodes to overcome
critical mechanical stability, thus providing a great potential platform for application
in a flexible integrated device.*
Topography and transport properties were investigated using a conductive atomic force microscope with NanoWorld Pointprobe®EFM AFM probes ( Pt-coated conductive AFM tips).*
Figure 5 from “Flexible 3D Electrodes of Free-Standing TiN Nanotube Arrays Grown by Atomic Layer Deposition with a Ti Interlayer as an Adhesion Promoter” by Seokjung Yun et al.: Analysis of TiN NTs/ Ti / Pt samples (a) XRD, (b) schematic of C-AFM setup, (c) AFM height image, and (d) local I-V curve by C-AFM.
*Seokjung Yun, Sang-Joon Kim, Jaesung Youn, Hoon Kim, Jeongjae Ryu, Changdeuck Bae, Kwangsoo No and Seungbum Hong Flexible 3D Electrodes of Free-Standing TiN Nanotube Arrays Grown by Atomic Layer Deposition with a Ti Interlayer as an Adhesion Promoter Nanomaterials 2020, 10, 409 DOI: 10.3390/nano10030409
Open Access
The article “Flexible 3D Electrodes of Free-Standing TiN Nanotube Arrays
Grown by Atomic Layer Deposition with a Ti Interlayer as an Adhesion Promoter“
by Seokjung Yun, Sang-Joon Kim, Jaesung Youn, Hoon Kim, Jeongjae Ryu,
Changdeuck Bae, Kwangsoo No and Seungbum Hong is licensed under a Creative
Commons Attribution 4.0 International License, which permits use, sharing,
adaptation, distribution and reproduction in any medium or format, as long as
you give appropriate credit to the original author(s) and the source, provide a
link to the Creative Commons license, and indicate if changes were made. The
images or other third party material in this article are included in the
article’s Creative Commons license, unless indicated otherwise in a credit line
to the material. If material is not included in the article’s Creative Commons
license and your intended use is not permitted by statutory regulation or
exceeds the permitted use, you will need to obtain permission directly from the
copyright holder. To view a copy of this license, visit
http://creativecommons.org/licenses/by/4.0/.