Nickel Nanorods
Nickel Nanorods - Related Videos
10:39
Preparation of ZnO Nanorod/Graphene/ZnO Nanorod Epitaxial Double Heterostructure for Piezoelectrical Nanogenerator by Using Preheating Hydrothermal
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Cited by 4 •
2016
One-step fabrication method for obtaining freestanding epitaxial double heterostructure is presented. This approach could achieve ZnO coverage with a higher number density than that of the epitaxial single heterostructure, leading to a piezoelectric nanogenerator with an increased output electrical performance.
08:55
Hydroquinone Based Synthesis of Gold Nanorods
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Cited by 11 •
2016
This paper describes a protocol for the synthesis of gold nanorods, based on the use of hydroquinone as reducing agent, plus the different mechanisms for controlling their size and aspect ratio.
04:06
Stimulating Neuronal Cell Differentiation Using Gold Nanorods
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2025
This video demonstrates a technique to promote neuronal differentiation by exposing nerve cells to gold nanorods and laser light, which forms cell projections supported by the βIII-tubulin. Staining and observing tubulin and the cell nucleus with epifluorescence microscopy reveals the cell outgrowths, indicating the nanorods' efficacy in neuronal differentiation.
08:40
Gyroid Nickel Nanostructures from Diblock Copolymer Supramolecules
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Cited by 3 •
2014
This article describes the preparation of well-ordered nickel nanofoams via electroless metal deposition onto nanoporous templates obtained from self-assembled diblock copolymer based supramolecules.
10:46
Preparation and Photoacoustic Analysis of Cellular Vehicles Containing Gold Nanorods
0 Views •
Cited by 5 •
2016
We show the preparation and address the feasibility of cellular vehicles containing gold nanorods for the photoacoustic imaging of cancer.
FAQs
The elongated geometry makes shape a central design variable because it contributes to shape-dependent magnetic behavior and influences how the nanorods can be arranged at an interface. Controlling aspect ratio may therefore affect the spatial organization and functional response of a nanoscale neural platform, supporting efforts to improve the precision of interactions with neural cells and tissues.
Surface chemistry governs how the nanorods interact with their surrounding cellular or tissue environment, while conductivity supports their role in electrically relevant interfaces. Together, these properties connect material design with signal exchange at neural interfaces. Their influence is important when developing platforms intended to monitor neuronal activity or integrate nanoscale materials with bioelectronic systems.
Combining magnetic responsiveness with electrical conductivity gives nickel nanorods more than one functional pathway within a neural platform. Magnetic behavior can support responsive nanoscale systems, whereas electrical properties are relevant to neural electrodes and activity monitoring. This combination helps researchers investigate interfaces that connect physical material cues with neuronal signaling and bioelectronic measurements.
Template-assisted electrodeposition provides a route for organizing nickel nanorods while controlling important structural features, including rod dimensions and arrangement. The template helps guide where material forms, and electrodeposition supplies the nickel within that structure. Such control is useful because nanoscale geometry and organization directly influence the magnetic, electrical, and interfacial behavior of the resulting platform.
Research is exploring these nanorods as components of neural electrodes, biosensors, and magnetically responsive platforms. In electrode and sensor designs, their electrical and surface-related properties support interaction with neural systems. Magnetically responsive configurations are investigated for platforms that may influence or monitor neuronal activity, extending nanoscale material engineering into studies of neural function.
Their relevance to neuroscience comes from linking nanoscale design with cellular signaling and bioelectronic engineering. Researchers can examine how controlled geometry, magnetic behavior, conductivity, and surface chemistry contribute to interfaces with neural cells and tissues. The broader goal is to develop tools with improved spatial precision, sensitivity, and functionality for studying neural circuits and advancing neurotechnologies.