irruptive

简明释义

英[ɪˈrʌptɪv]美[ɪˈrʌptɪv]

adj. 突入的；爆发的；急剧增加的

英英释义

单词用法

同义词

反义词

例句

1.The main types of goldmine are metamorphic-rock & kataclastic-rock goldmine and irruptive rock goldmine.

金矿类别主要为变质火山岩及碎屑岩型金矿和侵入岩有关类型金矿。

2.Traditionally various subphase belts for irruptive rock body are studied and analyzed by mainly drilling well and coring.

传统上对侵入岩体各亚相带的研究和判断，主要通过钻井取心来认识。

3.The former mainly is the pyrite silky mica-quartzite, it is discovered in internal connection belt of compound irruptive rock and forms a closed mineral belt in space;

前者以黄铁绢英岩化为主，产于牛心山复式侵入体的内接触带，空间上形成一个近于闭合的含矿带；

4.Four important item that this part is on the definition the concept's foundation of the offense of illegal and irruptive calculator information system, proceeds to that offense treatise.

本部分在定义非法侵入计算机信息系统罪的概念的基础上，对该罪的四个要件进行了论述。

5.Four important item that this part is on the definition the concept's foundation of the offense of illegal and irruptive calculator information system, proceeds to that offense treatise.

本部分在定义非法侵入计算机信息系统罪的概念的基础上，对该罪的四个要件进行了论述。

6.In the context of climate change, some species exhibit irruptive migrations to find suitable habitats.

在气候变化的背景下，一些物种表现出突发性的迁徙，以寻找适宜的栖息地。

7.The scientist observed an irruptive behavior in the animal population after the introduction of a new predator.

科学家观察到在引入新捕食者后，动物种群出现了突然涌现的行为。

8.His irruptive laughter during the serious meeting caught everyone off guard.

他在严肃会议中突发性的大笑让所有人都感到意外。

9.The irruptive growth of the algae in the lake was alarming to environmentalists.

湖中藻类的突发性增长让环保人士感到担忧。

10.The irruptive nature of the volcanic eruption surprised the geologists.

火山喷发的突发性让地质学家感到惊讶。

作文

In the realm of geology, the term irruptive refers to a specific type of volcanic activity characterized by sudden and explosive eruptions. These events can dramatically alter landscapes and ecosystems, leaving behind a lasting impact on the environment. Understanding the nature of irruptive eruptions is crucial for both scientists and the general public, especially in regions prone to volcanic activity.For instance, the infamous eruption of Mount St. Helens in 1980 serves as a prime example of an irruptive event. This catastrophic eruption not only reshaped the mountain itself but also caused widespread destruction across the surrounding area. The force of the explosion was so powerful that it flattened forests, altered river courses, and created a massive crater where the summit once stood. Such irruptive eruptions remind us of the Earth's dynamic nature and the potential hazards associated with living near active volcanoes.The effects of irruptive eruptions extend beyond immediate physical changes. They can also have profound ecological consequences. For example, after the Mount St. Helens eruption, scientists observed how life gradually returned to the devastated landscape. This phenomenon highlighted the resilience of nature and the ability of ecosystems to recover from seemingly catastrophic events. The study of these recovery processes provides valuable insights into ecological succession and the adaptability of various species.Moreover, irruptive eruptions can influence climate patterns. Volcanic ash and gases released during such events can enter the atmosphere, leading to temporary cooling periods globally. The 1991 eruption of Mount Pinatubo in the Philippines is another significant case study, as it resulted in a noticeable drop in global temperatures for several years due to the vast amounts of sulfur dioxide released into the stratosphere. This illustrates how irruptive volcanic activity can have far-reaching effects that transcend local boundaries.Understanding the mechanisms behind irruptive eruptions is essential for predicting future volcanic activity. Scientists utilize various tools, including seismographs and satellite imagery, to monitor signs of unrest in volcanoes. By studying past eruptions and their characteristics, researchers aim to develop models that can forecast potential irruptive events, ultimately enhancing public safety and preparedness.In conclusion, the concept of irruptive eruptions encompasses not only the explosive nature of volcanic activity but also its broader implications for the environment, climate, and ecology. As we continue to learn about these powerful geological phenomena, it becomes increasingly clear that understanding irruptive eruptions is vital for mitigating risks and fostering a deeper appreciation for the natural world. Through ongoing research and monitoring efforts, we can better prepare for the unpredictable forces of nature that shape our planet.

在地质学领域，术语irruptive指的是一种特定类型的火山活动，其特点是突然和爆炸性的喷发。这些事件可以显著改变地貌和生态系统，对环境留下持久的影响。理解irruptive喷发的性质对科学家和公众尤其重要，特别是在易发生火山活动的地区。例如，1980年圣海伦斯山的臭名昭著的喷发就是一个irruptive事件的典型例子。这次灾难性的喷发不仅重塑了山体本身，还造成了周围地区的大规模破坏。爆炸的力量如此强大，以至于摧毁了森林，改变了河流的走向，并在原本的山顶上形成了一个巨大的火山口。这类irruptive喷发提醒我们地球的动态特性以及居住在活火山附近所面临的潜在危险。irruptive喷发的影响超越了直接的物理变化。它们还可能对生态产生深远的后果。例如，在圣海伦斯山喷发后，科学家观察到生命如何逐渐回归到被毁灭的景观中。这一现象突显了自然的韧性以及生态系统从看似灾难性事件中恢复的能力。对这些恢复过程的研究提供了关于生态演替和各种物种适应能力的宝贵见解。此外，irruptive喷发还可以影响气候模式。在此类事件中释放的火山灰和气体可以进入大气层，导致全球暂时的降温期。1991年菲律宾的皮纳图博火山喷发是另一个重要的案例，因为它导致全球气温在数年内显著下降，这归因于大量二氧化硫释放到平流层中。这表明irruptive火山活动能够产生超越地方边界的深远影响。理解irruptive喷发背后的机制对于预测未来的火山活动至关重要。科学家利用各种工具，包括地震仪和卫星影像，监测火山活动的不安迹象。通过研究过去的喷发及其特征，研究人员旨在开发可以预测潜在irruptive事件的模型，最终增强公众安全和准备工作。总之，irruptive喷发的概念不仅涵盖了火山活动的爆炸性特征，还包括其对环境、气候和生态的更广泛影响。随着我们对这些强大地质现象的了解不断加深，越来越清楚的是，理解irruptive喷发对于减轻风险和培养对自然世界的更深刻欣赏至关重要。通过持续的研究和监测工作，我们可以更好地为塑造我们星球的不可预测自然力量做好准备。