parasiticidal

简明释义

英[ˌpærəˈsɪtɪˌsaɪdəl]美[ˌpærəˈsɪtɪˌsaɪdəl]

杀寄生物的

杀寄生虫的

英英释义

单词用法

同义词

反义词

例句

1.The parasiticidal effects of superhigh pressure were studied for Trichinella Spiralis larvae.

应用超高压技术，对旋毛虫肌幼虫进行杀灭作用研究。

2.The parasiticidal effects of superhigh pressure were studied for Trichinella Spiralis larvae.

应用超高压技术，对旋毛虫肌幼虫进行杀灭作用研究。

3.The parasiticidal 杀寄生虫的 properties of this herbal remedy have been well-documented.

这种草药疗法的parasiticidal 杀寄生虫的特性已被充分记录。

4.Research indicates that this parasiticidal 杀寄生虫的 compound can effectively eliminate parasites in fish.

研究表明，这种parasiticidal 杀寄生虫的化合物可以有效消灭鱼类中的寄生虫。

5.Veterinarians recommend a parasiticidal 杀寄生虫的 treatment plan for pets with severe infestations.

兽医建议对严重寄生虫感染的宠物制定parasiticidal 杀寄生虫的治疗方案。

6.Farmers are using parasiticidal 杀寄生虫的 treatments to protect their livestock from infections.

农民们正在使用parasiticidal 杀寄生虫的治疗来保护他们的牲畜免受感染。

7.The new medication has shown strong parasiticidal 杀寄生虫的 effects in clinical trials.

这种新药在临床试验中显示出强大的parasiticidal 杀寄生虫的效果。

作文

In the field of medicine and biology, understanding the various mechanisms by which organisms interact with one another is crucial. One such interaction is the parasitic relationship, where one organism benefits at the expense of another. This can lead to a variety of health issues in the host organism, making it essential to find effective treatments. Among these treatments, substances that are specifically designed to eliminate parasites are known as parasiticidal agents. The term parasiticidal refers to any compound or method that is capable of killing parasites, thereby alleviating the burden they place on their hosts. These agents can be found in numerous forms, including medications, natural extracts, and chemical compounds. The importance of parasiticidal treatments cannot be overstated, particularly in regions where parasitic infections are prevalent. For instance, malaria, caused by the Plasmodium parasite, remains a significant health threat in many tropical and subtropical areas. The development and distribution of parasiticidal drugs such as artemisinin have been pivotal in reducing the incidence of this disease. By targeting the life cycle of the parasite, these drugs not only help in treating infected individuals but also play a role in preventing the spread of the disease. Moreover, the use of parasiticidal agents is not limited to human health. In agriculture, farmers often face challenges from pests that can damage crops and reduce yields. The implementation of parasiticidal pesticides helps to control these pests, ensuring food security and economic stability for farming communities. However, the use of such chemicals must be managed carefully to avoid negative environmental impacts and the development of resistance among pest populations. In addition to synthetic parasiticidal agents, there is a growing interest in natural alternatives. Many plants possess inherent properties that can effectively combat parasites. For example, the use of neem oil, derived from the seeds of the neem tree, has shown promise as a parasiticidal agent against various agricultural pests and even some human parasites. This highlights the potential for integrating traditional knowledge with modern science to develop sustainable parasiticidal solutions. Despite the advancements in parasiticidal treatments, challenges remain. Resistance to parasiticidal drugs is a growing concern, particularly in the context of human health. Just as bacteria can become resistant to antibiotics, parasites can adapt to survive exposure to parasiticidal agents. This necessitates ongoing research and development to discover new compounds and treatment strategies that can effectively target resistant strains. In conclusion, the role of parasiticidal agents in both human health and agriculture is vital. They serve as essential tools in combating the adverse effects of parasitic infections and infestations. As we continue to explore the complexities of these relationships, it is imperative to focus on sustainable practices and innovative solutions that ensure the effectiveness of parasiticidal treatments while minimizing potential risks. Through collaboration between researchers, healthcare providers, and agricultural experts, we can enhance our understanding and application of parasiticidal methods to improve overall health and well-being.

在医学和生物学领域，理解生物体之间相互作用的各种机制至关重要。其中一种相互作用是寄生关系，其中一个生物体以另一个生物体为代价获益。这可能导致宿主生物体出现多种健康问题，因此寻找有效的治疗方法显得尤为重要。在这些治疗方法中，专门设计用于消灭寄生虫的物质被称为杀寄生虫剂。术语杀寄生虫指的是任何能够杀死寄生虫的化合物或方法，从而减轻它们对宿主造成的负担。这些剂型可以有多种形式，包括药物、天然提取物和化学化合物。杀寄生虫治疗的重要性不容小觑，特别是在寄生虫感染流行的地区。例如，疟疾由疟原虫引起，仍然是许多热带和亚热带地区的重大健康威胁。杀寄生虫药物如青蒿素的开发和分发在减少该疾病的发生率方面发挥了关键作用。通过针对寄生虫的生命周期，这些药物不仅帮助治疗感染者，还在预防疾病传播中发挥了作用。此外，杀寄生虫剂的使用并不限于人类健康。在农业中，农民经常面临害虫的挑战，这些害虫会损害作物并减少产量。实施杀寄生虫农药有助于控制这些害虫，确保农业社区的粮食安全和经济稳定。然而，必须谨慎使用这些化学品，以避免对环境产生负面影响以及害虫种群产生抗药性。除了合成的杀寄生虫剂外，人们对天然替代品的兴趣日益增长。许多植物具有内在的特性，可以有效对抗寄生虫。例如，来自印度楝树种子的印度楝油的使用已显示出作为杀寄生虫剂对各种农业害虫甚至一些人类寄生虫的潜力。这突显了将传统知识与现代科学相结合以开发可持续的杀寄生虫解决方案的潜力。尽管在杀寄生虫治疗方面取得了进展，但仍然存在挑战。对杀寄生虫药物的抗药性正日益成为一个令人担忧的问题，尤其是在公共卫生背景下。正如细菌可能对抗生素产生抗药性一样，寄生虫也可能适应以生存于杀寄生虫剂的暴露之下。这就需要持续的研究和开发，以发现新的化合物和治疗策略，能够有效地针对耐药株。总之，杀寄生虫剂在人类健康和农业中的作用至关重要。它们作为对抗寄生虫感染和侵扰的不利影响的重要工具。随着我们继续探索这些关系的复杂性，必须关注可持续实践和创新解决方案，以确保杀寄生虫治疗的有效性，同时最大限度地降低潜在风险。通过研究人员、医疗提供者和农业专家之间的合作，我们可以增强对杀寄生虫方法的理解和应用，从而改善整体健康和福祉。