冷等离子体流和表面放电与 ns 激光烧蚀的智能集成,用于复合纳米材料。

0 MATERIALS SCIENCE, MULTIDISCIPLINARY
Hafiz Muhammad Akhtar, Muhammad Latif, Mahtab Ahmad Khan, M Abdullah, Taj Muhammad Khan
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引用次数: 0

摘要

本文介绍了在常压下将冷介质阻挡放电(DBD)等离子体以不同的几何排列与激光烧蚀智能集成在一起,用于纳米材料的研究。在气流中使用纳秒(ns)激光(波长:1064 nm,脉冲持续时间:30 ns)以 5 J-cm-2 的流量和 10 Hz 的重复频率烧蚀 Co:ZnO 复合靶。比较了在垂直和倾斜等离子体流、表面放电和气流条件下产生的纳米材料。通过改变表面固有行为、诱导预期的表面能量活化、化学变化和形成密集的固体结构,利用表面放电显著提高了材料的附着力。在所有条件下,材料始终保持其结晶性质、元素组成和紫外线发射特性。这些初步发现为进一步研究带来了希望,为在灵活环境中制造复杂材料提供了途径。这些新进展将有助于生物医学、催化、制药和外科手术设备领域的应用。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Smart integration of cold plasma stream and surface discharge with ns laser ablation for composite nanomaterial.

Smart integration of cold plasma stream and surface discharge with ns laser ablation for composite nanomaterial.

In this paper, smart integration of cold dielectric barrier discharge (DBD) plasma in various geometrical arrangements with laser ablation at atmospheric pressure for nanomaterial was described. A composite Co:ZnO target was ablated in an airflow by a nanosecond (ns) laser (wavelength: 1064 nm, pulse duration: 30 ns) using fluence of 5 J-cm-2 at a repetition rate of 10 Hz. The nanomaterial produced under vertical and oblique plasma streams, surface discharge and gas flow, were compared. Utilization surface discharge markedly improved the material adhesion by altering surface intrinsic behavior, inducing anticipated surface energy activation, chemical changes, and the formation of a densely packed solid structure. Under all conditions, the material consistently retained its crystalline nature, elemental composition, and ultraviolet emission characteristics. These preliminary findings hold promise for additional research, suggesting avenues for making complex materials in a flexible environment. Such new advancements could facilitate applications in the biomedical, catalysis, pharmaceutical, and surgical device domains.

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