area of abnormal variation
简明释义
磁差异常区
英英释义
A specific region or range within a dataset or observation where the values deviate significantly from the expected or normal patterns. | 在数据集或观察中,值显著偏离预期或正常模式的特定区域或范围。 |
例句
1.The research team identified an area of abnormal variation 异常变异区域 in the temperature data collected over the past decade.
研究团队在过去十年收集的温度数据中识别出一个异常变异区域。
2.The meteorologist reported an area of abnormal variation 异常变异区域 in rainfall patterns that could affect local agriculture.
气象学家报告称降雨模式中存在一个异常变异区域,这可能会影响当地农业。
3.During the quality control process, we noticed an area of abnormal variation 异常变异区域 in the product dimensions.
在质量控制过程中,我们注意到产品尺寸中存在一个异常变异区域。
4.The scientist focused on the area of abnormal variation 异常变异区域 in the genetic data to understand the mutation effects.
科学家专注于基因数据中的异常变异区域以理解突变的影响。
5.In the financial report, there was an area of abnormal variation 异常变异区域 in the quarterly earnings that raised concerns among investors.
在财务报告中,季度收益中存在一个异常变异区域,引起了投资者的担忧。
作文
In the field of science and statistics, understanding the concept of an area of abnormal variation is crucial for accurate data analysis and interpretation. This term refers to a specific range within a dataset where values deviate significantly from the expected norm or average. Identifying such areas can provide valuable insights into anomalies that may indicate underlying issues or unique phenomena. For instance, in environmental studies, researchers might observe an area of abnormal variation in temperature readings that could signal climate change effects or local disturbances. Similarly, in healthcare, monitoring patient vitals may reveal an area of abnormal variation that prompts further investigation into a potential health crisis.The identification of an area of abnormal variation often begins with the establishment of a baseline. This baseline is derived from historical data or established norms within a specific context. Once this standard is set, any deviations can be analyzed. For example, in manufacturing, if a production line typically yields items within a certain weight range, any significant deviations from this range would constitute an area of abnormal variation. Such discrepancies could indicate malfunctioning equipment, changes in material quality, or even shifts in operational procedures.Moreover, recognizing these areas is not merely an academic exercise; it has real-world implications. In business, identifying an area of abnormal variation in sales data could alert management to potential problems, such as a declining product line or emerging competition. By addressing these variations promptly, companies can adapt their strategies to mitigate risks and capitalize on opportunities. In addition, the concept of an area of abnormal variation is applicable in various fields beyond science and business. For instance, in education, standardized testing results may reveal an area of abnormal variation among student performance, prompting educators to investigate disparities in teaching methods or resource allocation. By understanding and addressing these variations, educational institutions can strive for equity and improve overall student outcomes.Furthermore, the analysis of areas of abnormal variation can lead to innovation. In technology development, engineers often encounter unexpected results during testing phases. Recognizing these variations can inspire new approaches and solutions that may not have been considered otherwise. Thus, rather than viewing an area of abnormal variation as a setback, it can be seen as an opportunity for growth and improvement.In conclusion, the area of abnormal variation is a significant concept across numerous disciplines, serving as a marker for anomalies that require attention. Whether in science, business, education, or technology, understanding and analyzing these areas can lead to better decision-making and enhanced outcomes. Therefore, it is essential for professionals in all fields to develop the skills necessary to identify and interpret these variations, ultimately fostering a culture of continuous improvement and adaptability.
在科学和统计学领域,理解“异常变异区域”的概念对于准确的数据分析和解释至关重要。这个术语指的是数据集中值显著偏离预期标准或平均值的特定范围。识别这样的区域可以提供有价值的见解,揭示可能指示潜在问题或独特现象的异常情况。例如,在环境研究中,研究人员可能会观察到温度读数的“异常变异区域”,这可能表明气候变化的影响或局部干扰。同样,在医疗保健中,监测患者生命体征可能会揭示一个“异常变异区域”,促使进一步调查潜在的健康危机。识别“异常变异区域”通常始于建立基线。这个基线是从历史数据或特定背景下的既定标准中得出的。一旦设定了这个标准,任何偏差都可以进行分析。例如,在制造业中,如果生产线通常产生在某一重量范围内的物品,那么任何显著偏离该范围的情况都将构成一个“异常变异区域”。这种差异可能表明设备故障、材料质量变化,甚至操作程序的变化。此外,识别这些区域不仅仅是学术上的练习;它具有现实世界的影响。在商业中,识别销售数据中的“异常变异区域”可以提醒管理层注意潜在问题,例如产品线的下降或新兴竞争。通过及时处理这些变异,公司可以调整其策略,以减轻风险并利用机会。此外,“异常变异区域”的概念不仅适用于科学和商业。例如,在教育中,标准化测试结果可能会揭示学生表现的“异常变异区域”,促使教育工作者调查教学方法或资源配置的差异。通过理解和解决这些变异,教育机构可以努力实现公平,提高整体学生成绩。此外,“异常变异区域”的分析可以引领创新。在技术开发中,工程师在测试阶段常常会遇到意想不到的结果。识别这些变异可以激发新的方法和解决方案,这些方法和解决方案可能之前未曾考虑。因此,与其将“异常变异区域”视为挫折,不如将其视为成长和改进的机会。总之,“异常变异区域”是众多学科中的一个重要概念,作为需要关注的异常标志。无论是在科学、商业、教育还是技术领域,理解和分析这些区域都可以导致更好的决策和更好的结果。因此,各个领域的专业人士都应发展识别和解释这些变异所需的技能,最终培养持续改进和适应能力的文化。