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Journal of Research in Environmental Science and Toxicology

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Case Study - Journal of Research in Environmental Science and Toxicology ( 2023) Volume 12, Issue 2

A Case Report on the Outer Atmosphere and its Effects

Jasmine Wilson*
 
Graduate School of Information Science and Technology, Osaka University, Osaka 565-0871, Japan
 
*Corresponding Author:
Jasmine Wilson, Graduate School of Information Science and Technology, Osaka University, Osaka 565-0871, Japan, Email: WilsonJas@edu.in

Received: 03-Mar-2023, Manuscript No. Jrest-23-92690; Editor assigned: 06-Mar-2023, Pre QC No. Jrest-23-92690; Reviewed: 20-Mar-2023, QC No. Jrest-23-92690; Revised: 27-Mar-2023, Manuscript No. Jrest-23-92690; Published: 31-Mar-2023, DOI: 10.14303/2315-5698.2023.21

Abstract

The Earth's outer atmosphere, also known as the exosphere, is a crucial part of our planet's environment. It is where satellites and other man-made objects orbit, and it shields us from harmful solar radiation. However, this outer space environment is not immune to pollution and human activities. As space exploration and commercialization continue to expand, it becomes more important than ever to keep our outer atmosphere clean and free from debris. In this article, we will discuss some ways to accomplish this goal. Rockets and space satellites have played a significant role in our exploration of space and have been vital to the development of the modern world. However, as we continue to launch these machines into the outer atmosphere, there are concerns about their impact on the environment

INTRODUCTION

The outer atmosphere of the Earth is made up of a layer of gases, including oxygen and nitrogen, which are essential for life on Earth. This layer also contains the ozone layer, which protects us from the harmful UV rays of the sun (de Jonge P et al., 2018). Any damage to this layer can have serious consequences for our planet and its inhabitants. One of the major concerns with rockets and space satellites is the release of exhaust gases into the atmosphere. Rockets use a mixture of fuel and oxidizer to power their engines, which creates a significant amount of exhaust gases, including carbon dioxide, watervapor, and nitrogen oxides (Park C et al., 2013). These gases can have a significant impact on the composition of the atmosphere, leading to the formation of greenhouse gases and other pollutants. The effects of these gases are not limited to the outer atmosphere. In fact, they can also have an impact on the air quality on the ground. The nitrogen oxides released by rockets and satellites can lead to the formation of smog, which can cause respiratory problems for people living in the area. Another concern with rockets and space satellites is their impact on the ozone layer. The ozone layer is a thin layer of gas that absorbs harmful UV radiation from the sun. However, the release of chemicals, such as chlorofluorocarbons (CFCs) used in older rockets, can damage the ozone layer and lead to its depletion (Sarris J et al., 2014).

DISCUSSION

The impact of rockets and space satellites on the outer atmosphere is not just limited to their exhaust gases. The debris generated by rocket launches and satellite collisions can also have an impact. This debris can damage satellites in orbit, creating more debris and potentially leading to a cascade of collisions known as the Kessler Syndrome. This can lead to the formation of a debris field around the Earth, which can impact future space missions and potentially threaten life on Earth. The advent of space exploration and satellite technology has undoubtedly revolutionized the way we communicate, navigate, and study our planet (Liem A et al., 2017) . However, with the increase in the number of rockets and satellites being launched into space, there is growing concern about the impact of space debris on the Earth's outer atmosphere. In this article, we will discuss how rockets and space satellites may cause damage to the Earth's outer atmosphere and what we can do to get rid of space waste. Space debris is defined as any human-made object in space that no longer serves any useful purpose. This includes abandoned satellites, spent rocket stages, and other fragments resulting from collisions and explosions in space. Over time, space debris can accumulate and pose a serious threat to operational spacecraft and satellites, as well as to the Earth's outer atmosphere (Vohra S et al., 2005) (Grace S et al., 2005).

One of the most significant risks of space debris is the potential damage it can cause to operational spacecraft and satellites. When debris collides with these objects, it can cause serious damage or even complete destruction. This not only poses a threat to the spacecraft or satellite itself but also to the mission it is supporting. For example, a damaged satellite may not be able to transmit important data, leading to potential communication breakdowns or even loss of life. Another risk associated with space debris is the potential impact it can have on the Earth's outer atmosphere. As debris falls back to Earth, it can cause atmospheric heating, leading to changes in atmospheric chemistry and circulation. This, in turn, can affect the Earth's climate and weather patterns, with potentially serious consequences (Templeman K et al., 2011) (Lake J et al., 2012).

So, what can we do to get rid of space waste and reduce the risks associated with space debris? There are several strategies being pursued by space agencies and private companies, including the following:

Active debris removal: This involves using specialized spacecraft to capture and remove space debris from orbit. These spacecraft can use a variety of methods, including nets, tethers, and robotic arms, to capture debris and bring it back to Earth for disposal.

Orbital decay: This involves designing spacecraft and satellites to naturally decay and re-enter the Earth's atmosphere at the end of their operational lifespan. This reduces the amount of debris left in orbit and reduces the risk of collisions with other spacecraft.

Space traffic management: This involves tracking and monitoring the movement of spacecraft and satellites in orbit and adjusting their trajectories to avoid collisions. This can help to reduce the risk of collisions and limit the amount of debris generated in the first place (Pengpid S et al., 2018) (Stepleman LM et al., 2015).

Impacts

Firstly, one of the most effective ways to keep our outer atmosphere clean is to reduce the amount of space debris that we produce. Space debris refers to man-made objects that are no longer in use or have lost contact with the Earth. These objects can range in size from a tiny screw to a decommissioned satellite, and they can pose a significant threat to active satellites and space missions. To reduce the amount of space debris, space agencies and private companies need to adopt responsible practices in space, including designing satellites to be less prone to breaking up, de-orbiting satellites at the end of their useful life, and reducing the number of objects sent into orbit.

Secondly, we can also actively remove space debris from the outer atmosphere. This process, known as space debris mitigation, involves using technologies such as nets, tethers, and harpoons to capture and remove debris from orbit. Some of these technologies are already in use, and their effectiveness is being studied by space agencies around the world. While the removal of large objects like defunct satellites is challenging, it is essential to mitigate the risks associated with space debris and preserve the usability of the outer atmosphere.

Thirdly, we can ensure that space missions and exploration are conducted in a responsible manner that takes into account the impact on the outer atmosphere. This includes adopting best practices for spacecraft design, launch, and operations, as well as taking measures to prevent accidental collisions or other disturbances to the outer atmosphere. Space agencies and private companies should collaborate and share knowledge to develop common guidelines and procedures to ensure that all missions are conducted in a sustainable manner.

Finally, educating the public about the importance of a clean outer atmosphere is essential. Raising awareness about the dangers of space debris and the need for responsible space practices can encourage individuals and organizations to take action to reduce the amount of debris in space. By understanding the impact of human activities on the outer atmosphere, we can collectively take steps to protect it for future generations.

CONCLUSION

In conclusion, while rockets and space satellites have been vital to our understanding of space, their impact on the outer atmosphere of the Earth is a cause for concern. The release of exhaust gases, the impact on the ozone layer, and the generation of debris can all have significant consequences for our planet and its inhabitants. As we continue to explore space, it is important that we consider the environmental impact of our actions and take steps to minimize any damage we may cause, keeping the outer atmosphere clean is crucial for the continued success of space exploration and commercialization. By reducing the amount of space debris, actively removing debris from orbit, promoting responsible space practices, and educating the public, we can preserve the usability of the outer atmosphere for generations to come, while space exploration and satellite technology have brought many benefits to our society, they also pose a significant risk to the Earth's outer atmosphere. To mitigate these risks, we need to take action to reduce the amount of space debris and develop effective strategies for removing it from orbit. By doing so, we can ensure that future generations can continue to benefit from the many advantages of space exploration and satellite technology without putting the Earth's atmosphere at risk.

ACKNOWLEDGEMENT

None

CONFLICT OF INTEREST

None

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