scattered radiation

简明释义

散射辐射

英英释义

Scattered radiation refers to the portion of radiation that has been deflected or deviated from its original path due to interactions with matter, such as tissues or other materials, resulting in a spread of radiation in various directions.

散射辐射是指由于与物质(如组织或其他材料)的相互作用而偏离或改变其原始路径的辐射部分,导致辐射向多个方向扩散。

例句

1.The technician explained that the scattered radiation 散射辐射 from the X-ray machine can affect nearby patients.

技术人员解释说,X射线机产生的散射辐射 散射辐射可能会影响附近的病人。

2.The study measured the levels of scattered radiation 散射辐射 in different environments.

该研究测量了不同环境中散射辐射 散射辐射的水平。

3.The laboratory conducted experiments to analyze the effects of scattered radiation 散射辐射 on living tissues.

实验室进行了实验,以分析散射辐射 散射辐射对活组织的影响。

4.Protective gear is essential to shield against scattered radiation 散射辐射 during medical procedures.

在医疗程序中,保护装备对于抵御散射辐射 散射辐射至关重要。

5.In radiology, it's important to minimize scattered radiation 散射辐射 to ensure patient safety.

在放射学中,减少散射辐射 散射辐射以确保病人安全是很重要的。

作文

In the field of physics and medical imaging, the term scattered radiation refers to the radiation that has been deflected from its original path due to interactions with matter. This phenomenon is particularly significant in radiology and radiation therapy. Understanding scattered radiation is crucial for both the safety of patients and the efficacy of medical procedures.When X-rays or gamma rays are emitted from a source, they travel in straight lines until they encounter an object. Upon hitting this object, some of the radiation can be absorbed, while other portions may be scattered in different directions. The degree of scattering depends on various factors, including the energy of the radiation, the type of material it interacts with, and the angle of incidence. In a clinical setting, scattered radiation can pose challenges. For instance, during an X-ray examination, the primary beam is directed towards the area of interest, but some of the radiation may scatter into surrounding tissues. This scattering can lead to unwanted radiation exposure, which is a concern for both patients and healthcare providers. Therefore, understanding how to minimize scattered radiation is essential to enhance image quality and reduce unnecessary exposure.Additionally, in radiation therapy, scattered radiation plays a critical role in treatment planning. When targeting tumors, oncologists must account for the fact that scattered radiation can affect healthy tissues adjacent to the tumor. This necessitates precise calculations and adjustments to ensure that the therapeutic dose is concentrated on the tumor while minimizing exposure to surrounding healthy cells.To mitigate the effects of scattered radiation, various strategies can be employed. Shielding materials, such as lead aprons or barriers, can be used to protect both patients and healthcare workers from excessive exposure. Furthermore, advanced imaging techniques, such as digital radiography, have been developed to improve the detection and management of scattered radiation. These technologies allow for better visualization of the primary beam and help in distinguishing between useful diagnostic information and noise caused by scattered radiation.In summary, comprehending the implications of scattered radiation is vital in the fields of medical imaging and radiation therapy. It not only affects the quality of diagnostic images but also influences treatment outcomes. As technology continues to evolve, ongoing research into the behavior of scattered radiation will undoubtedly lead to improved methods for its management, ultimately enhancing patient safety and treatment efficacy. By prioritizing the understanding of scattered radiation, the medical community can continue to advance in providing effective care while minimizing risks associated with radiation exposure. Overall, the study of scattered radiation is an essential aspect of modern medicine, and further exploration in this area will contribute significantly to the safety and effectiveness of medical practices.

在物理学和医学成像领域,术语散射辐射指的是由于与物质的相互作用而偏离原始路径的辐射。这种现象在放射学和放射治疗中尤为重要。理解散射辐射对于患者的安全和医疗程序的有效性至关重要。当X射线或伽马射线从源头发射时,它们沿直线传播,直到遇到物体。在撞击这个物体后,一部分辐射可能被吸收,而其他部分可能会向不同方向散射。散射的程度取决于多种因素,包括辐射的能量、其与之相互作用的材料类型以及入射角度。在临床环境中,散射辐射可能带来挑战。例如,在X射线检查期间,主要束光被定向到感兴趣的区域,但一些辐射可能散射到周围组织。这种散射可能导致不必要的辐射暴露,这对患者和医疗提供者都是一个担忧。因此,理解如何最小化散射辐射对于提高图像质量和减少不必要暴露至关重要。此外,在放射治疗中,散射辐射在治疗计划中扮演着关键角色。当靶向肿瘤时,肿瘤科医生必须考虑到散射辐射可能影响邻近健康组织的事实。这需要精确的计算和调整,以确保治疗剂量集中在肿瘤上,同时尽量减少对周围健康细胞的暴露。为了减轻散射辐射的影响,可以采用各种策略。可以使用铅围裙或屏障等屏蔽材料来保护患者和医疗工作者免受过度暴露。此外,先进的成像技术,如数字放射摄影,已被开发出来以改善对散射辐射的检测和管理。这些技术允许更好地可视化主束光,并帮助区分有用的诊断信息和由散射辐射引起的噪声。总之,理解散射辐射的影响在医学成像和放射治疗领域至关重要。它不仅影响诊断图像的质量,还影响治疗结果。随着技术的不断发展,关于散射辐射行为的持续研究无疑将导致改进的管理方法,最终增强患者安全性和治疗有效性。通过优先理解散射辐射,医学界可以继续在提供有效护理的同时,最小化与辐射暴露相关的风险。总体而言,研究散射辐射是现代医学的重要方面,对这一领域的进一步探索将显著有助于医疗实践的安全性和有效性。

相关单词

scattered

scattered详解:怎么读、什么意思、用法