absolute system of measurement

简明释义

绝对测量制

英英释义

例句

1.The metric system serves as an absolute system of measurement 绝对测量系统 that is widely accepted around the world.

公制系统作为一个绝对测量系统在全球范围内被广泛接受。

2.When calibrating instruments, it is important to use an absolute system of measurement 绝对测量系统 to avoid discrepancies.

在校准仪器时，使用绝对测量系统以避免差异是很重要的。

3.Engineers often rely on an absolute system of measurement 绝对测量系统 to ensure precision in their designs.

工程师通常依赖绝对测量系统来确保设计的精确性。

4.In scientific research, using an absolute system of measurement 绝对测量系统 is crucial for obtaining accurate and reproducible results.

在科学研究中，使用绝对测量系统是获得准确和可重复结果的关键。

5.In physics, an absolute system of measurement 绝对测量系统 allows for the determination of fundamental constants.

在物理学中，绝对测量系统允许确定基本常数。

作文

The concept of an absolute system of measurement refers to a standardized framework that provides a consistent basis for quantifying physical properties. In science and engineering, having a reliable system of measurement is crucial for accurate communication and replication of experiments. The absolute system of measurement is often contrasted with relative systems, where measurements depend on arbitrary standards or units that can vary from one context to another.For instance, the metric system is widely regarded as an absolute system of measurement because it is based on universal constants. The meter, for example, is defined as the distance light travels in a vacuum in a specific fraction of a second. This definition does not change regardless of where or when the measurement is taken, making it an absolute reference point.In contrast, consider the imperial system, which includes units like feet and pounds. These units are less consistent because they can be influenced by regional variations and historical practices. In situations where precision is paramount, such as in scientific research or international trade, relying on an absolute system of measurement becomes essential. It ensures that all parties involved have a common understanding of measurements, reducing the risk of errors caused by misinterpretation.Moreover, the adoption of an absolute system of measurement facilitates advancements in technology and innovation. For example, engineers designing a new product must adhere to strict specifications that often rely on precise measurements. If different teams use varying systems, the final product may suffer from discrepancies that could lead to failures. Thus, an absolute system of measurement not only enhances collaboration but also drives efficiency in the production process.In education, teaching students about the importance of an absolute system of measurement lays the groundwork for future scientific inquiry. When students understand the significance of using standardized units, they are better equipped to engage in experiments and analyze data critically. This foundational knowledge is vital for nurturing the next generation of scientists and engineers who will contribute to solving complex global challenges.Furthermore, the role of technology in promoting an absolute system of measurement cannot be overlooked. With the rise of digital tools and software that utilize these standardized measurements, professionals across various fields can now perform calculations and simulations with unprecedented accuracy. This technological integration reinforces the importance of adhering to an absolute system of measurement, as it streamlines processes and minimizes human error.In conclusion, the absolute system of measurement serves as a cornerstone for effective communication and collaboration in science, engineering, and education. Its reliance on universal constants ensures consistency and precision, which are vital in today's interconnected world. As we continue to innovate and solve complex problems, embracing an absolute system of measurement will undoubtedly play a critical role in our collective success. By fostering a culture that values standardization and accuracy, we can pave the way for future advancements that benefit society as a whole.

绝对测量系统的概念指的是一个标准化框架，为量化物理属性提供一致的基础。在科学和工程中，拥有一个可靠的测量系统对于准确的沟通和实验的复制至关重要。绝对测量系统通常与相对系统形成对比，在相对系统中，测量依赖于任意标准或单位，这些单位可能因上下文而异。例如，公制系统被广泛认为是一个绝对测量系统，因为它基于普遍常数。米的定义，例如，是光在真空中以特定时间的一部分所传播的距离。这个定义无论在何时何地进行测量都不会改变，使其成为一个绝对的参考点。相比之下，考虑一下英制系统，其中包括英尺和磅。这些单位不那么一致，因为它们可能受到地区差异和历史惯例的影响。在需要高度精确的情况下，比如在科学研究或国际贸易中，依赖于绝对测量系统变得至关重要。它确保所有相关方对测量有共同的理解，减少了因误解而导致的错误风险。此外，采用绝对测量系统促进了技术和创新的进步。例如，设计新产品的工程师必须遵循严格的规格，这些规格通常依赖于精确的测量。如果不同团队使用不同的系统，最终产品可能会出现差异，导致失败。因此，绝对测量系统不仅增强了协作能力，还推动了生产过程的效率。在教育中，教导学生理解绝对测量系统的重要性为未来的科学探究奠定了基础。当学生理解使用标准化单位的重要性时，他们更能够参与实验并批判性地分析数据。这种基础知识对于培养下一代科学家和工程师至关重要，他们将为解决复杂的全球挑战做出贡献。此外，技术在促进绝对测量系统中的作用也不可忽视。随着数字工具和软件的兴起，这些工具和软件利用这些标准化的测量，来自各个领域的专业人士现在可以以前所未有的精确度进行计算和模拟。这种技术整合强化了遵循绝对测量系统的重要性，因为它简化了流程并最小化了人为错误。总之，绝对测量系统作为科学、工程和教育中有效沟通与合作的基石。它对普遍常数的依赖确保了一致性和精确性，这在当今相互关联的世界中至关重要。随着我们继续创新并解决复杂问题，拥抱绝对测量系统无疑将在我们的集体成功中发挥关键作用。通过培养一种重视标准化和准确性的文化，我们可以为未来的进步铺平道路，从而使整个社会受益。