macrograph

简明释义

英[ˈmækrəʊɡrɑːf]美[ˈmækroɡræf]

n. 宏观图；肉眼图

英英释义

单词用法

同义词

反义词

例句

1.The research contents are included as follows: metallurgical effect of electromagnetic stirring; inclusion, macrograph, segregation of composition; properties of final rolled steel products.

其内容包括：电磁搅拌的冶金效果、铸坯的低倍组织、非金属夹杂物、成分偏析及钢材性能。

2.The research contents are included as follows: metallurgical effect of electromagnetic stirring; inclusion, macrograph, segregation of composition; properties of final rolled steel products.

其内容包括：电磁搅拌的冶金效果、铸坯的低倍组织、非金属夹杂物、成分偏析及钢材性能。

3.Analyzes from this kind of cigarette shredded tobacco moisture content different smoke appraises the similar total macrograph volatile chemical composition.

从该种卷烟烟丝含水率不同的烟支中都分析鉴定出同样的总粒相物挥发性化学成分。

4.The scientist presented a detailed macrograph 宏观图像 of the cell structure during the conference.

科学家在会议上展示了细胞结构的详细宏观图像。

5.Using a macrograph 宏观图像, researchers can analyze the patterns in large-scale geological formations.

研究人员可以使用宏观图像分析大规模地质构造中的模式。

6.The macrograph 宏观图像 revealed intricate details that are not visible to the naked eye.

该宏观图像揭示了肉眼看不到的复杂细节。

7.In the field of materials science, a macrograph 宏观图像 helps in understanding the material properties.

在材料科学领域，宏观图像有助于理解材料特性。

8.The artist created a stunning macrograph 宏观图像 of the urban landscape.

艺术家创作了一幅惊艳的城市景观宏观图像。

作文

In the world of science and technology, the term macrograph refers to a large-scale image or representation of an object, typically used in fields such as microscopy, photography, and materials science. A macrograph is essential for analyzing structures that are not visible to the naked eye, providing a detailed view that can reveal important information about the subject being studied. For instance, when scientists examine the surface of a material, they often rely on a macrograph to observe defects or irregularities that could affect its performance. This is particularly crucial in industries like aerospace or electronics, where even the smallest imperfection can lead to catastrophic failures. The process of creating a macrograph involves capturing images at a high magnification level, allowing for a comprehensive analysis of the sample. Various techniques can be employed to produce a macrograph, including digital imaging and traditional photography. The choice of method often depends on the specific requirements of the study and the nature of the material being examined. For example, in biological research, a macrograph may be used to document the intricate details of cellular structures, while in engineering, it might focus on the surface characteristics of metals or composites. One notable application of macrographs is in the field of forensic science. Investigators often use macrographs to analyze evidence collected from crime scenes, such as fingerprints or tool marks. By examining these images closely, forensic experts can identify unique patterns and features that may link a suspect to a crime. This highlights the importance of macrographs not only in scientific research but also in real-world applications that have significant implications for justice and security. Furthermore, the advancement of technology has greatly enhanced the quality and accessibility of macrographs. With the advent of high-resolution cameras and sophisticated imaging software, researchers can now create stunningly detailed images that were once unimaginable. This democratization of technology means that even small laboratories or individual researchers can produce professional-grade macrographs, fostering innovation and collaboration across various disciplines. In conclusion, the concept of a macrograph is integral to many scientific fields, serving as a powerful tool for visualization and analysis. Whether in materials science, biology, or forensic investigation, macrographs provide invaluable insights that enhance our understanding of complex systems and phenomena. As technology continues to evolve, the potential applications and significance of macrographs will undoubtedly expand, paving the way for new discoveries and advancements in science and beyond.

在科学和技术的世界中，术语macrograph指的是物体的大规模图像或表示，通常用于显微镜、摄影和材料科学等领域。macrograph对于分析肉眼无法看到的结构至关重要，提供了可以揭示被研究对象重要信息的详细视图。例如，当科学家检查材料的表面时，他们通常依赖于macrograph来观察可能影响其性能的缺陷或不规则性。这在航空航天或电子等行业尤为重要，因为即使是最小的缺陷也可能导致灾难性的故障。 创建macrograph的过程涉及以高放大倍率捕捉图像，从而允许对样本进行全面分析。可以采用各种技术来生成macrograph，包括数字成像和传统摄影。方法的选择通常取决于研究的具体要求和所检查材料的性质。例如，在生物研究中，macrograph可用于记录细胞结构的复杂细节，而在工程中，它可能侧重于金属或复合材料的表面特征。 macrograph的一个显著应用是在法医学领域。调查人员经常使用macrograph来分析从犯罪现场收集的证据，例如指纹或工具痕迹。通过仔细检查这些图像，法医专家可以识别可能将嫌疑人与犯罪联系起来的独特模式和特征。这突显了macrographs在科学研究以及对正义和安全具有重大影响的现实应用中的重要性。 此外，技术的进步极大地提高了macrographs的质量和可及性。随着高分辨率相机和复杂成像软件的出现，研究人员现在可以创建曾经不可想象的令人惊叹的详细图像。这种技术的民主化意味着，即使是小型实验室或个人研究者也可以制作专业级的macrographs，促进各学科之间的创新和合作。 总之，macrograph的概念在许多科学领域中是不可或缺的，作为可视化和分析的强大工具。无论是在材料科学、生物学还是法医调查中，macrographs提供了宝贵的见解，增强了我们对复杂系统和现象的理解。随着技术的不断发展，macrographs的潜在应用和重要性无疑将扩大，为科学及其他领域的新发现和进步铺平道路。