photolitho

简明释义

[ˌfoʊtəˈlɪθoʊ][ˌfoʊtəˈlɪθoʊ]

n. 照相平板印刷术(同 photolithography);用此技术印刷的图片(同 photolithograph)

adj. 照相平板印刷术的(同 photolithographic)

复 数 p h o t o l i t h o s

英英释义

A process in photolithography where light is used to transfer a pattern onto a substrate, typically used in semiconductor manufacturing.

一种光刻工艺,通过光线将图案转移到基材上,通常用于半导体制造。

单词用法

同义词

photolithography

光刻技术

Photolithography is widely used in semiconductor manufacturing.

光刻技术广泛应用于半导体制造。

photoengraving

光雕刻

Photoengraving allows for high precision in printing processes.

光雕刻在印刷过程中允许高精度。

反义词

digital

数字的

Digital printing has become more popular than photolitho in recent years.

近年来,数字印刷比光刻印刷更受欢迎。

analog

模拟的

Analog devices are often simpler and easier to use compared to photolitho processes.

与光刻工艺相比,模拟设备通常更简单且更易于使用。

例句

1.In semiconductor manufacturing, photolitho is crucial for defining patterns on silicon wafers.

在半导体制造中,光刻对硅晶圆上的图案定义至关重要。

2.Advancements in photolitho technology have led to smaller and more efficient devices.

光刻技术的进步使得设备更小更高效。

3.The photolitho process requires precise alignment to achieve the desired results.

光刻过程需要精确对齐以达到预期效果。

4.The process of making integrated circuits often involves techniques like photolitho.

制作集成电路的过程通常涉及像光刻这样的技术。

5.Engineers use photolitho to create microstructures on various materials.

工程师使用光刻在各种材料上创建微结构。

作文

In the world of modern technology, the term photolitho refers to a process that is fundamental in the manufacturing of integrated circuits and microdevices. This intricate technique combines photography and lithography, allowing for the precise transfer of intricate circuit designs onto semiconductor materials. The significance of photolitho cannot be overstated, as it plays a crucial role in the production of electronic components that power our daily lives, from smartphones to computers. The photolitho process begins with the creation of a photomask, which contains the desired pattern of the electronic circuit. This mask is then placed over a photosensitive material known as photoresist, which is applied to the surface of a silicon wafer. When exposed to ultraviolet light, the areas of the photoresist that are not covered by the photomask undergo a chemical change, allowing them to be either removed or retained during subsequent processing steps. This selective etching is what makes photolitho so effective in creating the tiny features required for modern electronics.One of the primary advantages of photolitho is its ability to produce extremely small features with high precision. As technology advances, the demand for smaller and more powerful devices has led to a continuous evolution of photolitho techniques. For instance, advancements in extreme ultraviolet (EUV) lithography have enabled manufacturers to create even finer patterns, pushing the limits of miniaturization in chip design.Additionally, the photolitho process is not limited to just silicon wafers; it can also be applied to other materials, such as glass and polymers, expanding its utility in various fields, including optics and microfluidics. This versatility makes photolitho a vital tool in many industries beyond electronics, demonstrating its wide-ranging impact on technology and innovation.However, the photolitho process is not without challenges. The increasing complexity of circuit designs requires constant innovation in photomask technology and photoresist materials. Moreover, as the feature sizes shrink, issues such as diffraction and pattern distortion become more pronounced, necessitating ongoing research to enhance the fidelity of the photolitho process.In conclusion, understanding photolitho is essential for anyone interested in the field of electronics and semiconductor manufacturing. This process is a cornerstone of modern technology, enabling the creation of the advanced devices we rely on every day. As we move towards an increasingly digital future, the importance of photolitho will only continue to grow, making it a key area of study for engineers and scientists alike. By mastering the principles and applications of photolitho, we can better appreciate the intricate processes that underpin the technology that shapes our world today.

在现代科技的世界中,术语photolitho指的是一种在集成电路和微设备制造中至关重要的工艺。这一复杂的技术结合了摄影和光刻,允许将复杂的电路设计精确地转移到半导体材料上。photolitho的重要性不容小觑,因为它在生产为我们日常生活提供动力的电子元件中发挥着关键作用,从智能手机到计算机。photolitho过程始于光掩模的创建,该光掩模包含所需的电子电路图案。然后将该掩模放置在一种称为光刻胶的光敏材料上,光刻胶涂覆在硅晶圆的表面。当暴露在紫外线光下时,未被光掩模覆盖的光刻胶区域会发生化学变化,允许它们在后续处理步骤中被去除或保留。这种选择性蚀刻使得photolitho在创建现代电子产品所需的小特征方面变得非常有效。photolitho的主要优点之一是其能够以高精度生产极小的特征。随着技术的进步,对更小、更强大设备的需求推动了photolitho技术的不断演变。例如,极紫外(EUV)光刻技术的进步使制造商能够创建更细的图案,推动芯片设计的微型化极限。此外,photolitho过程不仅限于硅晶圆;它还可以应用于其他材料,如玻璃和聚合物,扩展了其在光学和微流体等各个领域的实用性。这种多功能性使得photolitho成为许多行业的重要工具,展示了它对技术和创新的广泛影响。然而,photolitho过程并非没有挑战。电路设计的日益复杂要求在光掩模技术和光刻胶材料上不断创新。此外,随着特征尺寸的缩小,衍射和图案失真等问题变得更加明显,这需要持续研究以增强photolitho过程的保真度。总之,理解photolitho对于任何对电子和半导体制造领域感兴趣的人来说都是至关重要的。这一过程是现代技术的基石,使我们能够创造出我们每天依赖的先进设备。随着我们迈向一个越来越数字化的未来,photolitho的重要性只会继续增长,使其成为工程师和科学家研究的关键领域。通过掌握photolitho的原理和应用,我们可以更好地欣赏支撑塑造我们今天世界的技术背后的复杂过程。