The design and development of nano-sized electrodes for lithium ion batteries appears to be one of the major thrust areas for research since nano-dimensional electrodes have abilities to deliver high power capacities [1-3].The synthetic routes adopted to arrive at such nanocrystalline electrode mate...
The design and development of nano-sized electrodes for lithium ion batteries appears to be one of the major thrust areas for research since nano-dimensional electrodes have abilities to deliver high power capacities [1-3].The synthetic routes adopted to arrive at such nanocrystalline electrode materials can be broadly classified into the solid-state and wet chemical methods. The former is performed at high temperatures wherein the formation of large crystallite sizes is inevitable. On the other hand, a majority of the low temperature-based wet chemical methods appear to be time consuming and involve tedious and prolonged post-synthesis processes. However, in order to facilitate immediate commercialization, the strategy to introduce new methods that are simple, cost-effective, reliable and less time-consuming for the production of nano-dimensional electrodes possessing excellent electrochemical performance is a significant challenge. The efficacy of these customized technologies largely depend on the synthetic methods adopted though development of routes that are simple, rapid and economical remain to be of envied interest as they favor easy and large scale commercialization. Anything by simplify process or synthesis exhibit inherent high efficiency and economic feasibility. If various functional nano-material production could be achieved with a simplify synthesis, the functional nano-material would be fine a greater number of applications, including a catalyst, microelectronics, battery, optical, and magnetic devices. So such simplify synthesis is expected to become an exciting playground for engineers and industrialists. Here this paper introduced a new method for synthesis of functional material aimed at all the three simplicity, high efficiency and versatility. Understanding how interaction between chemical factor and physical factor helps to design new rapid pyro-synthesis as various experimental conditions. Reported [4-8] among issue functional materials is selected noble metal, oxides, sulfides and phosphides. Their materials play important roles in different branches of science, such as chemical catalysis, applications in microelectronics, optical, electronic, and magnetic etc. we report a simple, cost-effective, reliable, rapid and highly efficient rapid pyro-synthetic method that result in effectively carbon wrapped nano-sized functional materials in reaction times of a few seconds or instantaneous. The new synthesis route performed in open-air atmosphere requires no post-synthesis treatments thereby creating large avenues to explore not only devices with high performances but also alternate materials for diverse various applications.
The design and development of nano-sized electrodes for lithium ion batteries appears to be one of the major thrust areas for research since nano-dimensional electrodes have abilities to deliver high power capacities [1-3].The synthetic routes adopted to arrive at such nanocrystalline electrode materials can be broadly classified into the solid-state and wet chemical methods. The former is performed at high temperatures wherein the formation of large crystallite sizes is inevitable. On the other hand, a majority of the low temperature-based wet chemical methods appear to be time consuming and involve tedious and prolonged post-synthesis processes. However, in order to facilitate immediate commercialization, the strategy to introduce new methods that are simple, cost-effective, reliable and less time-consuming for the production of nano-dimensional electrodes possessing excellent electrochemical performance is a significant challenge. The efficacy of these customized technologies largely depend on the synthetic methods adopted though development of routes that are simple, rapid and economical remain to be of envied interest as they favor easy and large scale commercialization. Anything by simplify process or synthesis exhibit inherent high efficiency and economic feasibility. If various functional nano-material production could be achieved with a simplify synthesis, the functional nano-material would be fine a greater number of applications, including a catalyst, microelectronics, battery, optical, and magnetic devices. So such simplify synthesis is expected to become an exciting playground for engineers and industrialists. Here this paper introduced a new method for synthesis of functional material aimed at all the three simplicity, high efficiency and versatility. Understanding how interaction between chemical factor and physical factor helps to design new rapid pyro-synthesis as various experimental conditions. Reported [4-8] among issue functional materials is selected noble metal, oxides, sulfides and phosphides. Their materials play important roles in different branches of science, such as chemical catalysis, applications in microelectronics, optical, electronic, and magnetic etc. we report a simple, cost-effective, reliable, rapid and highly efficient rapid pyro-synthetic method that result in effectively carbon wrapped nano-sized functional materials in reaction times of a few seconds or instantaneous. The new synthesis route performed in open-air atmosphere requires no post-synthesis treatments thereby creating large avenues to explore not only devices with high performances but also alternate materials for diverse various applications.
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