textjournal article
Exploring the Room-Temperature Synthesis and Properties of Multifunctional Doped Tungstate Nanorods
Abstract
Uniform Mn-doped alkaline-earth metal tungstateAWO4 (A = Ca, Sr, Ba)nanorods of reproducible size, shape, and composition have been methodically prepared using a modified template-directed methodology under ambient, room-temperature conditions. The dopant ion distribution within the nanostructures does not appear to adversely affect either the structural or crystalline integrity of our as-prepared compounds, as determined by microscopy and diffraction studies. What is much more important is the fact that the presence of Mn2+ not only substantially increases the photoluminescent potential of a pristine tungstate material but also reinforces its versatility by adding a desirable magnetic component to its repertoire of properties. In so doing, we have created multifunctional one-dimensional nanorods with exciting opto-magnetic behavior, which should become important for the future incorporation of these materials into functional nanoscale devices, with various potential applications in a number of diverse fields- Text
- Journal contribution
- Biochemistry
- Medicine
- Pharmacology
- Biotechnology
- Evolutionary Biology
- Immunology
- Mental Health
- Chemical Sciences not elsewhere classified
- Physical Sciences not elsewhere classified
- presence
- dopant ion distribution
- ambient
- integrity
- Exploring
- Ba
- future incorporation
- photoluminescent
- nanoscale devices
- application
- methodology
- Tungstate
- tungstate material
- Synthesi
- Mn
- Sr
- diffraction studies
- component
- compound
- nanorod
- versatility
- NanorodsUniform
- repertoire
- multifunctional
- Doped
- microscopy
- Properties
- nanostructure
- Multifunctional