high resistivity region

简明释义

高电阻率区

英英释义

例句

1.Geologists use resistivity measurements to identify a high resistivity region that could indicate fossil fuel reserves.

地质学家利用电阻率测量来识别可能指示化石燃料储藏的高电阻率区域。

2.Electrical engineers study the high resistivity region to understand how it affects circuit design.

电气工程师研究高电阻率区域以理解它如何影响电路设计。

3.In semiconductor fabrication, we often need to isolate a high resistivity region to improve device performance.

在半导体制造中，我们常常需要隔离一个高电阻率区域以提高器件性能。

4.The high resistivity region found beneath the surface suggests a potential for mineral deposits.

在表面下发现的高电阻率区域暗示了矿藏的潜力。

5.The geophysical survey revealed a high resistivity region, indicating the presence of dry soil.

地球物理勘测显示出一个高电阻率区域，这表明存在干燥的土壤。

作文

In the study of materials and their electrical properties, the term high resistivity region refers to areas within a material that exhibit a significant resistance to the flow of electric current. This characteristic is crucial in various applications, especially in the fields of electronics and semiconductor technology. Understanding the behavior of materials in these high resistivity regions can lead to advancements in creating more efficient electronic devices. To elaborate, resistivity is a fundamental property of materials that quantifies how strongly they oppose the flow of electric current. In a high resistivity region, the material's electrons are tightly bound to their atoms, making it difficult for them to move freely. This phenomenon can be observed in certain types of semiconductors and insulators. For instance, silicon, which is widely used in the electronics industry, can exhibit high resistivity regions under specific conditions, such as doping with certain impurities or at particular temperatures. The implications of high resistivity regions are profound. In semiconductor design, engineers often manipulate these regions to create p-n junctions, which are essential for diodes and transistors. By controlling the resistivity in different parts of a semiconductor, they can enhance the performance of electronic components. For example, the junction between a high resistivity region and a low resistivity region allows for controlled current flow, enabling the functionality of devices such as solar cells and integrated circuits. Moreover, the presence of high resistivity regions can also impact the thermal properties of materials. When current flows through a material, it generates heat due to resistive losses. In regions with high resistivity, this heating effect can be more pronounced, leading to potential overheating issues in electronic devices. Therefore, understanding where these regions exist and how to manage them is critical for engineers seeking to improve device reliability and longevity. Another important aspect to consider is the role of high resistivity regions in the development of new materials. Researchers are continually exploring novel compounds that exhibit unique electrical properties, including high resistivity. These materials could pave the way for innovations in energy storage, such as batteries and supercapacitors, where controlling the flow of electricity is paramount. In conclusion, the concept of high resistivity regions is integral to the fields of materials science and electrical engineering. By understanding how these regions function and their implications for current flow, engineers and researchers can develop more efficient and reliable electronic devices. As technology continues to advance, the exploration of high resistivity regions will undoubtedly play a crucial role in shaping the future of electronics and materials innovation.

在材料及其电气性能的研究中，短语高电阻区指的是材料内部表现出对电流流动具有显著阻力的区域。这一特性在各种应用中至关重要，尤其是在电子学和半导体技术领域。理解材料在这些高电阻区中的行为可以促进更高效电子设备的开发。具体而言，电阻率是材料的一项基本属性，它量化了材料对电流流动的抵抗程度。在高电阻区，材料的电子紧密结合在原子上，使得它们难以自由移动。这种现象可以在某些类型的半导体和绝缘体中观察到。例如，硅广泛用于电子工业，在特定条件下（如掺杂某些杂质或在特定温度下）可以表现出高电阻区。高电阻区的影响深远。在半导体设计中，工程师常常操控这些区域以创建p-n结，这是二极管和晶体管的基础。通过控制半导体不同部分的电阻率，他们可以增强电子元件的性能。例如，高电阻区与低电阻区之间的结允许控制电流流动，从而实现太阳能电池和集成电路等设备的功能。此外，高电阻区的存在还会影响材料的热性能。当电流通过材料时，由于电阻损耗会产生热量。在电阻率高的区域，这种发热效应可能更加明显，从而导致电子设备可能出现过热问题。因此，理解这些区域的存在及其管理方式对于寻求提高设备可靠性和耐用性的工程师至关重要。另一个重要方面是高电阻区在新材料开发中的作用。研究人员不断探索展现独特电气性能的新型化合物，包括高电阻。这些材料可能为能源存储（如电池和超级电容器）的创新铺平道路，在这些应用中，控制电流流动至关重要。总之，高电阻区的概念是材料科学和电气工程领域的重要组成部分。通过理解这些区域的功能及其对电流流动的影响，工程师和研究人员可以开发出更高效、更可靠的电子设备。随着技术的不断进步，探索高电阻区无疑将在塑造电子学和材料创新的未来中发挥关键作用。