chronometry

简明释义

[krəˈnɒmətri][krəˈnɑːmətrɪ]

n. 测时法;时刻测定

英英释义

Chronometry is the science of measuring time with precision and accuracy.

计时学是精确和准确地测量时间的科学。

单词用法

precision in chronometry

计时法中的精确性

advancements in chronometry

计时法的进步

applications of chronometry

计时法的应用

chronometry measurements

计时法测量

chronometry and timekeeping

计时法与时间保持

chronometry instruments

计时法仪器

historical chronometry

历史计时法

chronometry standards

计时法标准

同义词

timekeeping

计时

Accurate timekeeping is essential for navigation.

准确的计时对于导航至关重要。

horology

钟表学

Horology is the art and science of designing and making timekeeping instruments.

钟表学是设计和制造计时仪器的艺术与科学。

temporal measurement

时间测量

Temporal measurement has advanced significantly with modern technology.

随着现代技术的发展,时间测量有了显著进步。

反义词

timelessness

永恒性

The concept of timelessness suggests that some experiences transcend the measurement of time.

永恒性的概念表明,一些经历超越了时间的测量。

indeterminacy

不确定性

In art, indeterminacy allows for a fluid interpretation that is not bound by chronological constraints.

在艺术中,不确定性允许一种流动的解释,不受时间顺序的限制。

例句

1.The paper chromatography-mottle elution chronometry is established which is a simple and convenient and accurate method of quantitatively determining L-leucine.

建立了一种比较简便、准确的定量测定发酵液中L-亮氨酸的“纸色谱—色斑洗脱比色法”。

2.The paper chromatography-mottle elution chronometry is established which is a simple and convenient and accurate method of quantitatively determining L-leucine.

建立了一种比较简便、准确的定量测定发酵液中L-亮氨酸的“纸色谱—色斑洗脱比色法”。

3.Her research focuses on the historical development of chronometry.

她的研究集中在计时学的历史发展上。

4.The precision of chronometry is crucial for scientific experiments.

对于科学实验来说,计时学的精确性至关重要。

5.The study of timekeeping devices is known as chronometry.

对计时设备的研究被称为计时学

6.Advancements in chronometry have led to more accurate GPS systems.

计时学方面的进步使得GPS系统更加准确。

7.He is an expert in chronometry and can calibrate clocks with ease.

他是计时学的专家,能够轻松校准时钟。

作文

Chronometry is the science of measuring time with precision and accuracy. This field has evolved significantly over the centuries, from ancient sundials to modern atomic clocks. The development of chronometry (计时法) has played a crucial role in various aspects of human life, including navigation, astronomy, and even daily activities. In this essay, I will explore the historical evolution of chronometry (计时法), its significance in contemporary society, and its future prospects.The earliest forms of chronometry (计时法) can be traced back to ancient civilizations. The Egyptians used sundials to track the passage of time during the day, while water clocks were developed by the Greeks and Chinese to measure time more accurately. These early devices laid the groundwork for more sophisticated timekeeping methods. The invention of mechanical clocks in the Middle Ages marked a significant advancement in chronometry (计时法). These clocks allowed for more precise time measurement, which was essential for scheduling religious activities and agricultural practices.As society progressed, the need for accurate timekeeping became increasingly important. The Age of Exploration in the 15th and 16th centuries highlighted the necessity of precise time measurement for navigation. Sailors relied on accurate clocks to determine their longitude at sea, which was critical for safe and efficient travel. The invention of the marine chronometer by John Harrison in the 18th century revolutionized navigation and significantly improved maritime safety. This breakthrough exemplified the importance of chronometry (计时法) in facilitating global exploration and trade.In the modern era, the advent of technology has transformed chronometry (计时法) into an exact science. Atomic clocks, which rely on the vibrations of atoms to measure time, are now the standard for precision timekeeping. These clocks are so accurate that they can lose or gain only one second over millions of years. The development of such advanced timekeeping devices has had a profound impact on various fields, including telecommunications, GPS technology, and scientific research. For instance, GPS satellites rely on synchronized atomic clocks to provide accurate positioning information, demonstrating the practical applications of chronometry (计时法) in our daily lives.Moreover, chronometry (计时法) plays a vital role in scientific research. Accurate time measurement is essential in experiments and observations in fields such as physics, chemistry, and astronomy. For example, the study of celestial bodies and their movements requires precise timing to understand their orbits and behaviors. The synchronization of time across different laboratories and institutions is also critical for collaborative research efforts, making chronometry (计时法) an indispensable tool in the scientific community.Looking ahead, the future of chronometry (计时法) appears promising. As technology continues to advance, we may see even more accurate and reliable timekeeping devices. Quantum clocks, which leverage the principles of quantum mechanics, are currently being developed and have the potential to surpass atomic clocks in precision. This could lead to new applications in various fields, further emphasizing the importance of chronometry (计时法) in our increasingly interconnected world.In conclusion, chronometry (计时法) is a vital science that has evolved over millennia, shaping the way we perceive and measure time. Its historical significance, contemporary applications, and future potential highlight the importance of accurate timekeeping in our lives. As we continue to innovate and explore the boundaries of technology, chronometry (计时法) will undoubtedly remain a cornerstone of scientific progress and human achievement.