anatectic granite

简明释义

1. 深溶花岗岩; 2. 再生花岗岩;

英英释义

Anatectic granite is a type of granite that forms from the partial melting of pre-existing rocks, typically in a tectonically active environment, resulting in a melt that crystallizes into a coarse-grained igneous rock.

变质花岗岩是一种由先前存在的岩石部分熔融形成的花岗岩,通常在构造活动的环境中形成,熔融物结晶成粗粒状的火成岩。

例句

1.The presence of anatectic granite can indicate past tectonic activity in an area.

在某个地区发现熔融花岗岩可能表明该地区曾经发生过构造活动。

2.The anatectic granite exposed in this quarry is a valuable resource for construction.

这个采石场暴露出的熔融花岗岩是建筑的重要资源。

3.The study of anatectic granite reveals important insights into the geological processes that lead to its formation.

熔融花岗岩的研究揭示了导致其形成的地质过程的重要见解。

4.In the laboratory, we analyzed samples of anatectic granite to understand its mineral composition.

在实验室中,我们分析了熔融花岗岩的样本,以了解其矿物成分。

5.Geologists often find anatectic granite in regions with a history of intense metamorphism.

地质学家常常在具有强烈变质作用历史的地区发现熔融花岗岩

作文

Anatectic granite is a fascinating geological term that refers to a specific type of granite formed from the partial melting of pre-existing rocks. The process of anatexis involves the transformation of solid rock into molten material, which then cools and crystallizes to form granite. This phenomenon typically occurs in high-temperature environments, such as those found in continental crust where tectonic activity is prevalent. Understanding anatectic granite (再熔融花岗岩) is essential for geologists who study the Earth's crust and its evolution over millions of years.The formation of anatectic granite (再熔融花岗岩) is a complex process that begins with the heating of existing rocks, often sedimentary or igneous in nature. As temperatures rise, minerals within these rocks begin to melt at different rates, leading to a mixture of solid and liquid phases. This partial melting results in a granitic composition characterized by a high silica content, which gives anatectic granite (再熔融花岗岩) its distinctive light color and coarse-grained texture.One of the key aspects of anatectic granite (再熔融花岗岩) is its relationship with tectonic processes. In regions where continental plates converge or collide, immense pressure and heat are generated, creating the ideal conditions for anatexis to occur. This is particularly evident in mountain ranges, where the crust is thickened and subjected to intense geological forces. The resulting anatectic granite (再熔融花岗岩) can be found in many famous geological formations around the world, serving as a testament to the dynamic nature of our planet.The study of anatectic granite (再熔融花岗岩) also has significant implications for understanding the history of the Earth’s crust. By examining the mineralogy and geochemistry of these granites, scientists can gain insights into the conditions under which they formed, including the temperature and pressure of their environment. This information can help reconstruct past tectonic events and provide clues about the movement of continental plates over geological time.Moreover, anatectic granite (再熔融花岗岩) plays a crucial role in the economic geology of certain regions. The minerals associated with this type of granite, such as feldspar and quartz, are valuable resources used in various industries, including construction and manufacturing. Additionally, the presence of anatectic granite (再熔融花岗岩) can indicate potential sites for mineral exploration, making it an important focus for geologists and mining companies alike.In conclusion, anatectic granite (再熔融花岗岩) is not just a term confined to the realm of geology; it represents a significant process that shapes our planet's surface and contributes to its diverse landscape. From its formation through the partial melting of rocks to its implications for tectonic activity and economic resources, the study of anatectic granite (再熔融花岗岩) offers invaluable insights into the Earth's dynamic systems. As we continue to explore and understand these processes, we deepen our appreciation for the intricate workings of our planet and the geological history that has led us to where we are today.

再熔融花岗岩是一个迷人的地质术语,指的是一种特定类型的花岗岩,它是由已有岩石的部分熔化形成的。再熔融过程涉及将固体岩石转变为熔融物质,然后冷却并结晶形成花岗岩。这种现象通常发生在高温环境中,如大陆地壳中,构造活动盛行的地方。理解再熔融花岗岩anatectic granite)对研究地球地壳及其数百万年演化的地质学家来说至关重要。再熔融花岗岩anatectic granite)的形成是一个复杂的过程,始于加热现有岩石,这些岩石通常是沉积岩或火成岩。随着温度的升高,这些岩石中的矿物质以不同的速率开始熔化,导致固体和液体相的混合。这种部分熔化导致了富含硅的花岗岩成分,使得再熔融花岗岩anatectic granite)具有独特的浅色和粗颗粒结构。再熔融花岗岩anatectic granite)的一个关键方面是它与构造过程的关系。在大陆板块汇聚或碰撞的地区,会产生巨大的压力和热量,创造出理想的条件使再熔融发生。这在山脉中特别明显,因为地壳被增厚并受到强烈的地质力量。由此产生的再熔融花岗岩anatectic granite)可以在世界各地许多著名的地质构造中找到,作为我们星球动态本质的证明。对再熔融花岗岩anatectic granite)的研究也对理解地球地壳的历史具有重要意义。通过检查这些花岗岩的矿物学和地球化学,科学家可以深入了解它们形成时的条件,包括环境的温度和压力。这些信息可以帮助重建过去的构造事件,并提供关于大陆板块在地质时间上的运动线索。此外,再熔融花岗岩anatectic granite)在某些地区的经济地质中也扮演着至关重要的角色。与这种类型的花岗岩相关的矿物,例如长石和石英,是用于建筑和制造等各个行业的宝贵资源。此外,再熔融花岗岩anatectic granite)的存在可能表明潜在的矿产勘探地点,使其成为地质学家和采矿公司关注的重要焦点。总之,再熔融花岗岩anatectic granite)不仅仅是一个局限于地质领域的术语;它代表了塑造我们星球表面并促进其多样化景观的重要过程。从通过岩石的部分熔化形成,到对构造活动和经济资源的影响,再熔融花岗岩anatectic granite)的研究提供了对地球动态系统的宝贵见解。随着我们继续探索和理解这些过程,我们加深了对我们星球复杂运作的欣赏,以及导致我们今天所处位置的地质历史。

相关单词

granite

granite详解:怎么读、什么意思、用法