Size dependence of energetic properties in nanowire-based energetic materials

L. Menon; D. Aurongzeb; S. Patibandla; K. Bhargava Ram; C. Richter; A. Sacco

doi:10.1063/1.2234551

Size dependence of energetic properties in nanowire-based energetic materials

L. Menon, D. Aurongzeb, S. Patibandla, K. Bhargava Ram, C. Richter, A. Sacco

Engineering

Research output: Contribution to journal › Article › peer-review

4 Scopus citations

Abstract

We prepared nanowire-array-based thin film energetic nanocomposites based on Al-Fe ₂O ₃. The ignition properties as a function of wire dimensions and interwire spacing have been investigated. We show significant variations in ignition behavior, which we relate to the kinetic and heat transfer dynamics of the various configurations studied. Our results indicate the possibility for nanoscale control of reaction parameters such as flame temperature and burn rate in such composites for optimized configurations (optimum wire size, interwire spacing, film thickness, etc.).

Original language	English
Article number	034317
Journal	Journal of Applied Physics
Volume	100
Issue number	3
DOIs	https://doi.org/10.1063/1.2234551
State	Published - 2006

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title = "Size dependence of energetic properties in nanowire-based energetic materials",

abstract = "We prepared nanowire-array-based thin film energetic nanocomposites based on Al-Fe 2O 3. The ignition properties as a function of wire dimensions and interwire spacing have been investigated. We show significant variations in ignition behavior, which we relate to the kinetic and heat transfer dynamics of the various configurations studied. Our results indicate the possibility for nanoscale control of reaction parameters such as flame temperature and burn rate in such composites for optimized configurations (optimum wire size, interwire spacing, film thickness, etc.).",

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AU - Menon, L.

AU - Aurongzeb, D.

AU - Patibandla, S.

AU - Ram, K. Bhargava

AU - Richter, C.

AU - Sacco, A.

PY - 2006

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AB - We prepared nanowire-array-based thin film energetic nanocomposites based on Al-Fe 2O 3. The ignition properties as a function of wire dimensions and interwire spacing have been investigated. We show significant variations in ignition behavior, which we relate to the kinetic and heat transfer dynamics of the various configurations studied. Our results indicate the possibility for nanoscale control of reaction parameters such as flame temperature and burn rate in such composites for optimized configurations (optimum wire size, interwire spacing, film thickness, etc.).

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