nebulium

简明释义

英[ˈnɛb.jə.lɪəm]美[ˈnɛb.jə.lɪəm]

n. 过去假设星云中的化学元素

英英释义

单词用法

同义词

反义词

例句

1.Musashi then saw a bunch of enemies from the Bridges that lead to Nebulium tower.

这时武藏看到一堆一堆的敌人布满联络桥。

2.Musashi then saw a bunch of enemies from the Bridges that lead to Nebulium tower.

这时武藏看到一堆一堆的敌人布满联络桥。

3.We fear they plan to build more outposts like Nebulium Tower.

我恐怕他们打算建筑更多如“星岩之塔”一样的前哨站。

4.What makes you think shes at Nebulium Tower?

你为何觉得她在“星岩之塔”？

5.I "m sure she" s at Nebulium Tower!

我肯定她在“星岩之塔”！

6.The discovery of nebulium 星云素 in the spectrum of a distant nebula was a breakthrough in astrophysics.

在遥远星云的光谱中发现了nebulium 星云素，这是天体物理学的一次突破。

7.Researchers are still trying to understand the properties of nebulium 星云素 and its role in stellar formation.

研究人员仍在努力理解nebulium 星云素的特性及其在恒星形成中的作用。

8.In the lab, scientists recreated conditions to study nebulium 星云素 and its interaction with other elements.

在实验室中，科学家们重现了条件以研究nebulium 星云素及其与其他元素的相互作用。

9.The presence of nebulium 星云素 in various celestial bodies indicates complex chemical processes at work.

不同天体中存在的nebulium 星云素表明复杂的化学过程正在进行。

10.Astronomers used advanced telescopes to detect traces of nebulium 星云素 in the light from ancient stars.

天文学家使用先进的望远镜探测古老恒星光线中的nebulium 星云素痕迹。

作文

In the realm of astrophysics, the study of celestial bodies and their compositions has always fascinated scientists. One of the intriguing concepts that emerged from early astronomical studies is the element known as nebulium, a term that refers to a hypothetical element thought to exist in nebulae. The name itself derives from the Latin word 'nebula,' meaning 'mist' or 'cloud,' which aptly describes the gaseous formations found in space where stars are born. Understanding nebulium provides insights not only into the composition of these celestial clouds but also into the broader processes that govern stellar evolution. Historically, the existence of nebulium was proposed in the late 19th century when astronomers observed spectral lines that could not be attributed to any known elements at the time. These mysterious lines were detected in the spectra of certain nebulae, leading scientists to hypothesize the presence of a new element. This speculation sparked intense debates within the scientific community, as researchers sought to identify the nature of nebulium and its role in the cosmos. The significance of nebulium lies in its association with the emission spectra of ionized gases. When electrons in these gases transition between energy levels, they emit light at specific wavelengths, creating the distinctive spectral lines observed by astronomers. The peculiar lines attributed to nebulium suggested that it might be an ionized form of a known element, possibly oxygen or nitrogen, but with unique properties that set it apart from its terrestrial counterparts. As research progressed, the concept of nebulium evolved. With advancements in spectroscopy and a better understanding of atomic structure, scientists eventually concluded that the lines previously associated with nebulium were actually due to the ionization states of existing elements under extreme conditions found in nebulae. This revelation underscored the complexity of the universe and the importance of studying celestial phenomena to unravel the mysteries of matter. Today, while nebulium itself may not be recognized as a distinct element, the legacy of its study continues to influence astrophysics. It serves as a reminder of the scientific process—how hypotheses are formulated, tested, and refined over time. Moreover, the exploration of nebulae remains a vibrant field of research, as scientists strive to understand the life cycles of stars and the chemical processes that occur in these vast clouds of gas and dust. In conclusion, the journey of nebulium from a hypothetical element to a concept rooted in the complexities of astrophysical studies illustrates the dynamic nature of scientific inquiry. As we continue to explore the universe, the lessons learned from the study of nebulium remind us of the importance of curiosity, critical thinking, and the relentless pursuit of knowledge. The cosmos holds many secrets, and each discovery brings us one step closer to understanding our place in it. Whether through the lens of a telescope or the analysis of spectral data, the quest to comprehend the elements that make up our universe will undoubtedly lead to more astonishing revelations in the future.

在天体物理学的领域，研究天体及其组成一直吸引着科学家们。一个有趣的概念是被称为nebulium的元素，这个术语指的是一种假设存在于星云中的元素。这个名字源自拉丁词“nebula”，意为“雾”或“云”，恰如其分地描述了宇宙中形成恒星的气体结构。了解nebulium不仅提供了对这些天体云组成的洞察，而且对支配恒星演化的更广泛过程也有启示。 历史上，nebulium的存在是在19世纪晚期提出的，当时天文学家观察到一些光谱线无法归因于当时已知的任何元素。这些神秘的线条在某些星云的光谱中被检测到，导致科学家们假设存在一种新元素。这一猜想在科学界引发了激烈的辩论，因为研究人员试图确定nebulium的性质及其在宇宙中的作用。 nebulium的重要性在于它与电离气体的发射光谱相关。当这些气体中的电子在能级之间跃迁时，它们会以特定波长发出光，从而形成天文学家观察到的独特光谱线。之前与nebulium相关的奇特光谱线表明，它可能是已知元素（可能是氧或氮）的电离形式，但具有与其地球对应物不同的独特性质。 随着研究的进展，nebulium的概念不断演变。随着光谱学的进步和对原子结构的更好理解，科学家们最终得出结论，之前与nebulium相关的光谱线实际上是由于在星云中发现的极端条件下已知元素的电离状态。这一启示凸显了宇宙的复杂性以及研究天体现象的重要性，以揭开物质的奥秘。 如今，尽管nebulium本身可能不被视为一个独特的元素，但其研究的遗产继续影响着天体物理学。它提醒我们科学过程的重要性——假设是如何形成、测试和逐步完善的。此外，星云的探索仍然是一个充满活力的研究领域，科学家们努力理解恒星的生命周期和这些巨大的气体和尘埃云中发生的化学过程。 总之，nebulium从一个假设元素到根植于天体物理研究复杂性的概念的旅程，展示了科学探究的动态特性。随着我们继续探索宇宙，从nebulium的研究中获得的教训提醒我们好奇心、批判性思维和不懈追求知识的重要性。宇宙蕴藏着许多秘密，每一次发现都使我们更接近理解我们在其中的位置。无论是通过望远镜的镜头还是光谱数据的分析，理解构成我们宇宙的元素的探索无疑将在未来带来更多惊人的启示。