total radiation

简明释义

总辐射

英英释义

Total radiation refers to the sum of all forms of electromagnetic radiation emitted by a source, including visible light, ultraviolet light, infrared radiation, and other wavelengths.

总辐射是指由一个源发出的所有形式的电磁辐射的总和,包括可见光、紫外线、红外线和其他波长。

例句

1.Scientists are studying the effects of total radiation 总辐射 on climate change.

科学家们正在研究总辐射对气候变化的影响。

2.Engineers need to calculate the total radiation 总辐射 exposure for safety assessments.

工程师需要计算安全评估的总辐射暴露量。

3.The total radiation 总辐射 emitted by the sun is crucial for life on Earth.

太阳发出的总辐射对地球上的生命至关重要。

4.The satellite measures the total radiation 总辐射 in the Earth's atmosphere.

卫星测量地球大气中的总辐射

5.The total radiation 总辐射 levels were higher than expected during the experiment.

实验期间的总辐射水平高于预期。

作文

The concept of total radiation is fundamental in the fields of physics and environmental science. It refers to the complete amount of radiant energy emitted by a source, which can include various forms of electromagnetic radiation such as visible light, ultraviolet light, and infrared radiation. Understanding total radiation is crucial for multiple applications, ranging from climate studies to solar energy utilization. In this essay, I will explore the significance of total radiation, its measurement, and its impact on both our environment and technology.One of the primary reasons why total radiation is important is its role in climate science. The Earth receives energy from the sun in the form of solar radiation. This energy drives weather patterns, ocean currents, and ultimately sustains life on our planet. Scientists measure total radiation to understand how much energy the Earth absorbs, reflects, and emits back into space. By analyzing these measurements, researchers can develop climate models that predict future changes in temperature and weather events. For instance, an increase in total radiation absorbed by the Earth may lead to global warming, affecting ecosystems and human societies.In addition to its importance in climate science, total radiation plays a significant role in renewable energy technologies, particularly solar power. Solar panels are designed to capture and convert sunlight into electricity. The efficiency of these panels depends on their ability to harness the total radiation they receive. Engineers and scientists continuously work on improving solar panel designs to maximize their energy conversion rates. By understanding the patterns of total radiation throughout the day and across different seasons, they can optimize the placement and orientation of solar panels to enhance energy production.Moreover, total radiation has implications for human health. Exposure to certain types of radiation, particularly ultraviolet (UV) radiation, can have detrimental effects on our skin and overall health. High levels of UV radiation can lead to skin cancer and other health issues. Therefore, it is essential to monitor total radiation levels, especially during peak sunlight hours, to inform public health guidelines and protect individuals from excessive exposure.Measuring total radiation involves sophisticated instruments and methodologies. Devices such as pyranometers and radiometers are used to quantify the amount of solar energy received over a specific area and time. These instruments help gather data that can be analyzed to understand trends in total radiation over time. Such data is invaluable for researchers studying climate change, solar energy efficiency, and even agricultural practices, as different crops require varying amounts of sunlight for optimal growth.In conclusion, the concept of total radiation is integral to our understanding of the natural world and our technological advancements. From its influence on climate systems and renewable energy development to its effects on human health, total radiation encompasses a wide range of applications and implications. As we continue to face challenges related to climate change and energy sustainability, a deeper comprehension of total radiation will be essential in guiding our efforts toward a more sustainable future. By investing in research and technology related to total radiation, we can better harness its potential benefits while mitigating its risks to health and the environment.

“总辐射”这一概念在物理学和环境科学领域中至关重要。它指的是一个源发出的全部辐射能量,包括可见光、紫外线和红外线等各种形式的电磁辐射。理解“总辐射”对于从气候研究到太阳能利用等多种应用都是至关重要的。在这篇文章中,我将探讨“总辐射”的重要性、测量方法以及它对我们环境和技术的影响。“总辐射”之所以重要,主要是因为它在气候科学中的作用。地球从太阳接收以太阳辐射形式存在的能量。这种能量驱动着天气模式、洋流,并最终维持着地球上的生命。科学家们测量“总辐射”,以了解地球吸收、反射和重新释放到太空中的能量。通过分析这些测量数据,研究人员可以开发出预测未来温度和天气事件变化的气候模型。例如,地球吸收的“总辐射”增加可能导致全球变暖,从而影响生态系统和人类社会。除了在气候科学中的重要性外,“总辐射”在可再生能源技术中也发挥着重要作用,尤其是在太阳能方面。太阳能电池板设计用于捕获并将阳光转化为电能。这些电池板的效率依赖于它们能够捕获的“总辐射”量。工程师和科学家们不断致力于改善太阳能电池板的设计,以最大化其能量转换率。通过了解一天内和不同季节“总辐射”的模式,他们可以优化太阳能电池板的放置和方向,从而提高能量生产。此外,“总辐射”对人类健康也有影响。暴露于某些类型的辐射,特别是紫外线(UV)辐射,可能对我们的皮肤和整体健康产生不利影响。高水平的紫外线辐射可能导致皮肤癌和其他健康问题。因此,监测“总辐射”水平尤其在阳光最强烈的时段是至关重要的,以便制定公共健康指南,保护个人免受过度暴露。测量“总辐射”需要复杂的仪器和方法。诸如辐射计和辐射仪等设备用于量化特定区域和时间内接收到的太阳能。这些仪器帮助收集数据,供分析以了解“总辐射”随时间变化的趋势。这些数据对于研究气候变化、太阳能效率甚至农业实践的研究人员而言都是无价的,因为不同的作物需要不同数量的阳光才能实现最佳生长。总之,“总辐射”这一概念对我们理解自然世界和技术进步至关重要。从它对气候系统和可再生能源发展的影响,到它对人类健康的影响,“总辐射”涵盖了广泛的应用和影响。随着我们继续面临与气候变化和能源可持续性相关的挑战,更深入地理解“总辐射”将在指导我们朝着更可持续的未来努力中发挥重要作用。通过投资与“总辐射”相关的研究和技术,我们可以更好地利用其潜在的好处,同时减轻其对健康和环境的风险。