artificial disintegration

简明释义

人工蜕变

英英释义

Artificial disintegration refers to the process of breaking down or dismantling a material or structure using man-made methods or technologies, often for purposes such as analysis, recycling, or destruction.

人工解体是指使用人造方法或技术对材料或结构进行分解或拆卸的过程,通常用于分析、回收或破坏等目的。

例句

1.The concept of artificial disintegration is gaining traction in environmental studies.

在环境研究中,人工解体的概念正在获得关注。

2.The researchers conducted an experiment to observe the effects of artificial disintegration on cellular structures.

研究人员进行了一项实验,以观察人工解体对细胞结构的影响。

3.The film showcased a dramatic scene involving artificial disintegration of a spaceship.

这部电影展示了一幕戏剧性的场景,涉及到宇宙飞船的人工解体

4.In the field of materials science, artificial disintegration can help in recycling processes.

在材料科学领域,人工解体可以帮助回收过程。

5.Engineers are exploring artificial disintegration techniques to improve waste management.

工程师们正在探索人工解体技术,以改善废物管理。

作文

In recent years, the term artificial disintegration has gained attention in various fields, particularly in science and technology. This concept refers to the deliberate breakdown of complex systems or materials into simpler components through artificial means. The implications of artificial disintegration can be profound, influencing everything from environmental sustainability to advanced manufacturing processes.One of the most notable applications of artificial disintegration is in the field of waste management. As the world grapples with increasing amounts of waste, researchers are exploring ways to efficiently break down plastics and other non-biodegradable materials. Through chemical processes, such as pyrolysis or hydrolysis, scientists can achieve artificial disintegration, converting waste into reusable raw materials. This not only helps reduce landfill usage but also promotes a circular economy where resources are continuously reused.Moreover, artificial disintegration plays a crucial role in the development of new materials. In nanotechnology, for instance, scientists often manipulate materials at the atomic level, breaking them down into nanoparticles. These smaller particles exhibit unique properties that can be exploited in various applications, from drug delivery systems in medicine to enhanced performance in electronics. By understanding and harnessing artificial disintegration, researchers can innovate and create materials that were previously unimaginable.In the realm of digital technology, artificial disintegration takes on a different meaning. Here, it can refer to the breakdown of large data sets into more manageable pieces for analysis. Big data analytics relies on the ability to dissect vast amounts of information to extract meaningful insights. Techniques such as clustering and classification enable data scientists to perform artificial disintegration, making it easier to identify trends and patterns that inform business decisions and strategies.However, the concept of artificial disintegration is not without its challenges and ethical considerations. For instance, the manipulation of materials at a molecular level raises questions about the safety and environmental impact of newly created substances. Additionally, in the context of data, privacy concerns arise when personal information is broken down and analyzed. It is essential for researchers and practitioners to navigate these issues responsibly, ensuring that advancements in artificial disintegration do not come at the expense of societal well-being.In conclusion, artificial disintegration is a multifaceted concept that holds significant potential across various domains. From enhancing waste management practices to fostering innovation in material science and data analysis, its applications are vast and varied. As we continue to explore the capabilities of artificial disintegration, it is imperative that we approach this powerful tool with caution and responsibility, balancing progress with ethical considerations. Ultimately, the future of artificial disintegration will depend on our ability to harness its benefits while mitigating its risks.

近年来,术语人工解体在各个领域,尤其是科学和技术中引起了关注。这个概念指的是通过人工手段故意将复杂系统或材料分解为更简单的组成部分。人工解体的影响可能是深远的,从环境可持续性到先进制造过程都受到影响。人工解体最显著的应用之一是在废物管理领域。随着世界面临日益增加的废物量,研究人员正在探索高效分解塑料和其他不可生物降解材料的方法。通过热解或水解等化学过程,科学家可以实现人工解体,将废物转化为可重复使用的原材料。这不仅有助于减少垃圾填埋场的使用,还促进了循环经济,在这种经济中,资源被不断重复使用。此外,人工解体在新材料的发展中也发挥着至关重要的作用。在纳米技术中,科学家们常常在原子水平上操纵材料,将其分解为纳米颗粒。这些较小的颗粒具有独特的性质,可以在各种应用中加以利用,从医学中的药物递送系统到电子设备的性能增强。通过理解和利用人工解体,研究人员可以创新并创造出以前无法想象的材料。在数字技术领域,人工解体则具有不同的含义。在这里,它可以指将大型数据集分解为更易于分析的更小部分。大数据分析依赖于对大量信息进行剖析以提取有意义的见解的能力。聚类和分类等技术使数据科学家能够进行人工解体,从而更容易识别趋势和模式,以指导商业决策和战略。然而,人工解体的概念并非没有挑战和伦理考量。例如,在分子水平上操纵材料引发了关于新创建物质的安全性和环境影响的问题。此外,在数据的背景下,当个人信息被分解和分析时,隐私问题也随之而来。研究人员和从业者必须负责任地应对这些问题,确保在人工解体的进步不以牺牲社会福祉为代价。总之,人工解体是一个多方面的概念,在各个领域具有重要潜力。从改善废物管理实践到促进材料科学和数据分析的创新,其应用广泛而多样。随着我们继续探索人工解体的能力,我们必须谨慎和负责任地对待这一强大工具,平衡进步与伦理考虑。最终,人工解体的未来将取决于我们在利用其优势的同时减轻其风险的能力。

相关单词

artificial

artificial详解:怎么读、什么意思、用法

disintegration

disintegration详解:怎么读、什么意思、用法