Study On Evolution Of Space Tourism And Its Mutilation On Environment

Author: LawSphereX

Category: Environmental Law

Published: 2026-08-23T21:10:33.569738+00:00

Updated: 2026-08-30T07:07:22.240Z

STUDY ON EVOLUTION OF SPACE TOURISM AND ITS

MUTILATION ON ENVIRONMENT

Haribalakumar K, LLM, School of Excellence in Law, Chennai

ABSTRACT

The inventions and exploration of humans have increased tremendously in various fields over the past few decades. This applies to the outer space exploration also. The enormous growth in any sector will create a demand for the new rules and regulations to satisfy the contemporary issues and also to avoid illicit activities. No state can expose sovereign rights over outer space. This in turn shall not be an advantage for the states to exploit the space region, as outer space is a common heritage of mankind. There are five major treaties which are there to govern the space activities of states. But the field of space exploration is not the sector which is only having the limited scope, this is the fastest developing sector at present. The outer space exploration has reached further step now and the concept of space tourism is evolving in the field of outer space.

Outer space is now slowly becoming the area of commercialization. But at the same time, the launching of space vehicle create a negative impact on the Environment of the Earth as well as space in some cases. In this paper, we will take a look at how International law governs space activities, International liability of the state and what are the conventions and provisions that speaks about space activities and Environment.

CHAPTER I –

INTRODUCTION

1.1 INTRODUCTION

Space tourism may have detrimental effects on the ecosystem. These effects include increasing Earth and space pollution, soot and other small particle emissions that can have a negative influence on the atmosphere, high resource and funding demands, and soot emissions from hybrid rocket motors used for space tourism1. Scientists are concerned that an increase in rocket launches and the popularity of space tourism could affect the atmosphere of Earth and hasten the process of climate change. Recent technical developments have increased the affordability and accessibility of space tourism. Space tourism is being pioneered by businesses like SpaceX, Blue Origin, and Virgin Galactic, giving tourists the opportunity to experience the wonders of space. Many industry professionals think that space tourism has the potential to be the most successful area of space tourism.

The viability of space tourism is still debatable, though. The price of space tourism is expected to be high for some time because space tourism is an expensive effort. Moreover, little is known about how space tourism may affect the ecosystem. Space tourism's potential for popularity is the major factor that might make it environmentally damaging.

1.2 OBJECTS OF STUDY

1. To study about the liability concept of states under International Law.

2. To study about the environmental impact of space tourism.

3. To analyze about the state liability for causing damage to the environment as a result of

space tourism.

1.3. RESEARCH QUESTIONS

1. Whether there is sufficient regulations to govern space tourism?

2. What is the legal status of space tourists?

1 David Shiga, “Space tourism could have big impact on climate” New Scientist, Oct. 26, 2010, available at https://www.newscientist.com/article/dn19626-space-tourism-could-have-big-impact-on-climate/ (Oct. 2, 2023)

3. Whether state has the liability and responsibility for the negative impact on

environmental caused by its national space activities? CHAPTER II – HISTORY OF SPACE EXPLORATION

2.1. WHAT IS OUTER SPACE?

The comparatively empty areas of the cosmos outside the atmospheres of celestial bodies are known as outer space, or just space. It is distinguished from airspace and terrestrial areas by the term "outer space." Since the density of the atmosphere steadily decreases with altitude, there is no distinct barrier between Earth's atmosphere and space. The Karman line, located at an elevation of 100 kilometers (62 mi), has been created by the Federation Aeronautique Internationale (FAI) as a useful criterion for the distinction between aeronautics and astronautics.H. G. Wells used the phrase "outer space" for the first time in his

1901 book First Men in the Moon. The earlier term space, which is shorter, was originally used

in John Milton's Paradise Lost in 1667 to refer to the area beyond Earth's sky. CHAPTER III – OUTER SPACE AND INTERNATIONAL LAW

3.1. INTERNATIONAL LAW OF OUTER SPACE

International law now includes a distinct corpus of law known as the law of space. This process of evolution has advanced very quickly since the USSR launched Sputnik 1 in October 1957, in large part because laws must be established to govern operations in this new "frontier" of space. The usage and exploration of space is covered by a sizable set of international and state legal rules, though not all of them. The principles are mostly found in multilateral agreements, resolutions of the UNGA, a variety of national laws, rulings by national courts, bilateral agreements, and decisions made by intergovernmental organizations.

3.2. MAJOR TREATIES AND CONVENTIONS ON OUTER SPACE FOR

ESTABLISHING RIGHTS AND LIABILITIES

3.2.1. OUTER SPACE TREATY 19672

2 S. Bhatt, Vol.26, No. 4, Legal Controls of Outer Space pp. 323-334 (S. Chand and Co., Delhi, 1973).

A Charter for Space Law and Exploration is what the Outer Space Treaty is known as. All human goals that propelled humanity into space were given form by it. The rights, responsibilities, and obligations of States for a just international order in outer space are in fact outlined in the numerous sections of this treaty. For instance, the outer space treaty speaks about International state responsibility for their national space activities3 and makes the states internationally liable for the damage caused to another state party by the objects launched by former4.

3.2.2. AGREEMENT ON RESCUE OF ASTRONAUTS

The Agreement on the Rescue of Astronauts was ratified a year after the Outer Space Treaty5. It demands that every aid be provided to astronauts in the event of a crisis, accident, or emergency and that astronauts and spacecraft be promptly returned to the country that sent them into space. The State receiving the information must notify the State that launched the rocket of the mishap or disaster, care for the astronauts, and assist the State that launched the rocket with search and rescue efforts. The launching State is responsible for covering the costs of such work6.

3.2.3. CONVENTION ON INTERNATIONAL LIABILITY FOR DAMAGE CAUSED

BY SPACE OBJECTS7 The Liability Convention, which assures that States are accountable for damage inflicted in space or on Earth by space debris, is the third most significant convention8. Damage is defined under Article I. Article II establishes absolute culpability for harm done to an aircraft while it is in flight or on the surface of the Earth. According to Article III, damage done by a launching State to a space object belonging to another State as a result of the launching State's error. Article IV establishes shared liability for harm two independently launched States would cause

3 Outer space treaty, 1967, Art VI

4 Outer space treaty, 1967, Art VII

5 Outer space treaty, 1967, available at

https://www.unoosa.org/oosa/en/ourwork/spacelaw/treaties/outerspacetreaty.html (Oct. 4, 2023) 6 P. Abdurrasyid, “Agreement on Rescue of Astronauts” N. Jaesntuliyana (Ed.), Maintaining Outer Space for Peaceful purposes at p. 99 (The United Nations University, Tokyo 1984).

7 Convention on international liability for damage caused by space, 1972, available at:

https://www.unoosa.org/oosa/en/ourwork/spacelaw/treaties/liability-convention.html ( Oct. 4, 2023) 8 R.F. Stoowe,”The 1972 Convention on International Liability for Damage caused by Space Objects”, N. Jaesntuliyana (Ed.), Maintaining Outer Space for Peaceful purposes at p. 104 (The United Nations University, Tokyo 1984) to a third State. For a joint launch by two or more States, joint and several liability is provided for under Article V.

3.2.4. MOON AGREEMENT9.

The Moon Agreement ensures that the environments of the Moon and other celestial bodies are protected. It also asks the States to have international agreements regarding liability on the Moon and other celestial bodies in an effort to reform the liability regime. Additionally, it foresees that the Moon and other celestial bodies shall only be used for peaceful reasons, foreclosing militarization and weaponization of those bodies. A significant step toward establishing a reasonable and peaceful international order in space is the Moon Agreement.

3.2.5. REGISTRATION CONVENTION10

A principle of customary international law that is applicable to all spacefaring states is the registration of space objects. There are two levels of registration: national and international. The State Party creates a national registry for its space objects, and such registrations must be transmitted to the UN Register of space objects through diplomatic channels. The UN Office for Outer Space Affairs (UNOOSA), which manages this UN Register, provides free access to information about space objects all throughout the world. The so-called launching status of the appropriate space object is related to registration. Although there may be multiple launching states for a given launch event, only one state actor is able to register a given space object. CHAPTER IV – SPACE TOURISM AND INTERNATIONAL LAW

4.1. SPACE TOURISM AND ITS DEVELOPMENT

4.1.1 IN 2000s

SPACE TOURISM TAKES OFF Space tourism started to exist, albeit slowly and steadily, as the century went on. In the 2000s, space tourism as an industry began in earnest, adding a new chapter to the history of the industry. 9 Agreement governing the activities of states on the moon and other celestial bodies, 1979, available at: https://www.unoosa.org/oosa/en/ourwork/spacelaw/treaties/moon-agreement.html (Oct 5,2023)

10 Convention on registration of objects launched into outer space, 1976, available at:

https://www.unoosa.org/oosa/en/ourwork/spacelaw/treaties/registration-convention.html (Oct 5, 2023) A ticket to the Mir space station was bought by rich American Dennis Tito in 2001 through MirCorp, a Russian commercial spaceflight enterprise. Tito negotiated with Space Adventures to transfer his $20 million ticket to the International Space Station after Mir was deactivated in

2001. Tito started his nearly eight-day stint on the ISS in April 2001. He was the first private

civilian to launch into space thanks to this. Six further private individuals visited the International Space Station throughout the ensuing years: Ø 2002: Mark Shuttle worth, a billionaire South African computer programmer Ø American millionaire sensing hardware in 2005 Andrew Olson Ø American-Iranian software millionaire in 2006 By Anousheh Ansari Ø Software millionaire Charles Simonyi, an American-Hungarian, visited in 2007. Ø American-British video game millionaire in 2008 John Garriott Guy Laliberté, a Canadian wealthy artist, in 2009. The majority of these people booked their flights through Space Adventures; all of them traveled to space on Soyuz spacecraft because NASA forbade tourists from traveling on space shuttles after the 2003 Columbia accident.

4.1.2. EMERGENCE OF COMMERCIAL SPACE TOURISM INDUSTRY

The vast majority of people wanted to see more space exploration as the second decade of the 2000s got underway. Sadly, after a few years, things started to go backwards, and by the middle of 2011, the U. S. Space Shuttle program had made its final flight. After that, Russian Soyuz rockets flew the crews to the International Space Station. A number of players continued to make minor moves in the market over the course of the next years. Others joined the game as well: Ø In the decade of 2010, Virgin Galactic enjoyed both success and failure. The business recovered from a tragic setback in October 2014 when the VSS Enterprise broke apart during a human test flight because to early success in guide flights. Virgin Galactic resumed glide test flights before the end of 2017. Ø Blue Origin had a peaceful ten years.

However, by the end of 2017, they had made progress with crew capsule unmanned test flights and testing new engine designs. Ø The long-awaited first successful test flight by Rocket Lab, a U. S. -based business that launches from New Zealand, occurred in the beginning of 2018. Ø Both the American balloon company World View Enterprises and the Spanish balloon company Zero2Infinity started forming strategic alliances. Ø SpaceX isn't only a space tourism business. However, even they joined the sector in late 2017 when they agreed to transport two private individuals around the moon. They are also contracted to transport paying visitors to the ISS. XCOR Aerospace and Armadillo Aerospace were two more businesses that made an attempt to break into the industry. However, they discovered that the aircraft industry's financial and technical challenges were insurmountable.

4.2 LEGAL STATUS OF SPACE TOURISTS

Although "tourists" are not officially included in international space law, it does allow for the passage of "astronauts" and "personnel of a spacecraft." Moreover, "Any person" on the Moon is to be regarded-at least by signatories to that treaty-as an astronaut, according to the Moon Agreement. It's uncertain if a commercial space tourist would fit this description given the special status given to an astronaut. However, it is likely that space tourists would qualify as "personnel of a spacecraft" and be subject to the rescue and return requirements of the Rescue Agreement. The Agreement does not go so far as to force these participants to sign a code of conduct, but it will be necessary for them to adopt some minimal level of care because they will be traveling in space with non-professionals like tourists.

CHAPTER V – SPACE TOURISM AND ENVIRONMENT POLLUTION

5.1. ENVIRONMENTAL IMPACTS DUE TO SPACE TOURISM

Space travel has historically received little environmental concern, and for good reason. For starters, the sector has historically been limited, with just a few launches each year, making any environmental effects insignificant in comparison to those of other industries11. Second, like national security and military, the space industry has a long history of being seen as being heavily influenced by the government It is crucial to keep in mind that several rocket engines use different propellants to operate, which means that their environmental consequences vary, before digging further into the implications on the environment. For instance, Blue Origin's New Shepard uses liquid propellants made of liquid hydrogen and liquid oxygen, while SpaceX's Falcon series of orbitcapable reusable rockets uses liquid kerosene and liquid oxygen.

Virgin Galactic's VSS Unity uses a hybrid propellant made of "solid carbon-based fuel, hydroxyl-terminated polybutadiene (HTPB), and nitrous oxide12. " These various propellants' diverse chemical compositions result in diverse emissions. Table 1: Approximate Emissions Given as the Mass Fraction of Each Component13 PROPELLANT TYPE EMISSION Solid (NH4CIO4/AI)

0.08 0.27 0.48 0.1 0.15 0.33 Cryogenic --- --- 1.24 0.02 --- ---

(LOX/H2 O) Kerosene (LOX/RP-1) --- 0.88 0.30 0.02 --- 0.05 Hypergolic 2O4)

0.29 0.63 0.25 --- ---

TRACE (UDMH/N Table 1, which is taken from Limits on the Space Launch Market Related to Stratospheric Ozone Depletion and is supplied below, illustrates some of the differences in emissions. The chart lists popular propellant types used in rocket engines along with the anticipated emissions for each use. The majority of rocket engines will launch using either one kind or a combination of these propellants. For each propellant, the emissions are given as a mass fraction. The assumption that air entered the plum oxides CO and H2 caused the overall mass fraction to exceed unity14.

5.1.1. CLIMATE IMPACTS

Launch exhaust is one effect of more frequent rocket launches. Exhaust can include alumina and black carbon particles, as well as greenhouse gases including CO2 and H2O. These emissions contribute to climate change and warming by absorbing sunlight and trapping heat. Black carbon is especially worrisome. Scientists estimate that some rockets can produce about 14 Sylvie Durrieu, Ross F. Nelson, “Earth Observation from Space – The Issue of Environmental Sustainability”, Vol 29, Space Policy, 238, 241 (2013).

10,000 times as much black carbon as current turbine engines used in aircraft and jets15. To put things in perspective, researchers found that in 2018, the amount of black carbon sent into the stratosphere by rockets was comparable to the amount released by the whole aviation sector16. This industry should raise concerns as regulators concentrate on issues of social justice and environmental justice. Even while rockets currently release only a small amount of greenhouse gases, it may be vital to consider these possible effects as the industry develops.

5.1.2. OZONE DEPLETION

Ozone depletion is a further effect of rocket launches on the environment. Nitrogen in the air can be converted into nitrogen oxides during launch and re-entry events, which can reduce the amount of ozone in the stratosphere. Since there is less water vapor in the stratosphere than in the troposphere, the composition of the stratosphere, which houses the ozone layer, is more sensitive to the effects of water vapor emissions. Additionally, according to scientific research, rockets could cause an ozone depletion at "an upper limit acceptable to the international community that established the Montreal protocol" even with fewer launches, such weekly launches. By 2050, rocket emissions, if unchecked, could have destroyed more ozone than Ozone-Depleting Substances (ODSs)17 ever had.

It is crucial to take into account higher launches' possible impact on ozone depletion while evaluating environmental impacts. Even while ozone depletion is currently at a very low level, it may be vital to take into account as the business develops, just like with climate consequences.

5.1.3. SPACE DEBRIS

Millions of pieces of man-made objects make up space debris, which is already an issue in Earth's orbit. Astronomy, navigation, and satellite communications may be hampered by this 15 Martin N. Ross & Patti M. Sheaffer, “Radiative Forcing Caused by Rocket Engine Emissions”, Vol 2 Issue 4, Earth’s Future, p: 177 (2014).

16 M. N. Ross & D. W. Toohey, “The Coming Surge of Rocket Emissions”, Eos (Sept. 24, 2019)

https://eos. org/features/the-coming-surge-of-rocket-emissions (Oct 17, 2023) 17 Ozone-depleting Substance (ODS) is a compound that contributes to stratospheric ozone depletion recognized under the Montreal Protocol including “chlorofluorocarbons, hydrochlorofluorocarbons, halons, methyl, bromide, carbon tetrachloride, hydrobromofluorocarbons, chlorobromomethane, and methyl chloroform”. Ozone-Depleting Substances, EPA, https://www. epa. gov/ozone-layer-protection/ozone-depleting-substances (Oct 17, 2023) material. If it penetrates the atmosphere, it can possibly result in harm and even death. When there is more debris, there is a significantly higher danger of collision. Space tourism is becoming more popular, which could lead to increased space debris and further clog Earth's orbit. More items will be left in orbit as a result of more people traveling to space.

This debris may consist of satellites that have been abandoned, used rocket fuel, or remaining spacecraft parts. United Nations Office for Outer Space Affairs (UNOOSA) includes making attempts to lessen the quantity of junk in orbit and suggesting policies to stop new debris from accumulating. The international regulations, known as the Inter-Agency Space Debris Coordination Committee (IADC), outline suggestions for avoiding further debris from entering the environment as well as rules for lowering the amount of junk in orbit. In order to prevent collisions between craft and trash, the European Space Agency (ESA) has also devised a system to track and monitor all objects in orbit. Additionally, they have created a framework for responsible space tourism, which outlines rules for visitors' safe and responsible usage of space.

5.1.4. NOISE POLLUTION

According to Rodney Rocha, a former chief structural engineer at NASA's Johnson Space Center in Houston, "when the [space] shuttle lifts off, the main engines roar so loudly that a person standing near the pad would be killed — not by the heat of the exhaust, but by the sound of the engines," in a 2005 interview with the space agency. Such effects will be seen more widely as the number of rocket launches each year rises. According to a Nature study released in January, the year 2022 saw 180 successful liftoffs, a record set by SpaceX, who launched a rocket into orbit on average once every six days. On the ground, there is little information about how these launches affect the local fauna, particularly vulnerable species. CHAPTER VI - STATE RESPONSIBILITY AND LIABILITY

6.1 STATE RESPONSIBILITY

Due to the structure of the international legal system and the theories of state sovereignty and state equality, state accountability is a fundamental principle of international law. It stipulates that anytime one state violates another state's international law, there is an international obligation between the two. A violation of an international agreement results in the need for compensation. State responsibility is the term for a nation-state's culpability for any transgression of international law. State accountability is the legal obligation that an international law-abiding state has to answer for its deeds or omissions that violate international law or hurt other states or people. Key principles of state responsibility include: Ø Attribution Ø Breach of International Obligations. The gravity of the breach: Not all breaches of international law result in state liability.

A substantial enough breach must have occurred to justify responsibility. Ø Causation Ø Reparation

6.2. ELEMENTS OF STATE RESPONSIBILITY

The following three conditions or factors must be present for such an act or omission to result in state responsibility:

1. Violating international agreements

2. State attribution under international law

3. Absence of a legitimate defense claimed by the state

6.3. STATE RESPONSIBILITY UNDER INTERNATIONAL ENVIRONMENTAL

LAW According to international environmental law, nations have a responsibility to safeguard and preserve the environment and to answer for their actions or inactions that harm the environment, deplete natural resources, or have an adverse effect on the global commons. The rights and obligations of states with regard to environmental preservation and protection are covered by a subset of public international law known as international environmental law.

The following are important tenets of state accountability in international environmental law: Ø Duty to Prevent Trans boundary harm Ø Exercise due Ø Common But Differentiated Responsibilities (CBDR) Ø Prevention and Precaution Ø State Liability for Environmental Harm Ø International Cooperation Various treaties and accords addressing particular environmental challenges, such as climate change, biodiversity preservation, trans boundary pollution, and marine pollution, are included in international environmental law. Several notable examples include the Basel Convention on the Control of Trans boundary Movements of Hazardous Wastes and Their Disposal18, the Convention on Biological Diversity19, and the United Nations Framework Convention on Climate Change (UNFCCC)20.

International courts or tribunals, arbitration, diplomatic discussions, and other dispute resolution processes are frequently used in the enforcement of state duty under international environmental law. These processes seek to settle environmental disputes and guarantee adherence to global environmental obligations. 6. 4. STATE’S SPACE RESPONSIBILITY AND LIABILITY UNDER INTERNATIONAL LAW 18 Basel Convention on the Control of Trans boundary Movements of Hazardous Wastes and Their Disposal, 1992, Art I.

19 Convention on Biological Diversity, 1993, Art I.

20 United Nations Framework Convention on Climate Change, 1994, Art II.

According to international law, space responsibility refers to the regulatory system that controls state acts and their space operations to guarantee the responsible and peaceful use of space. Under space law, states are accountable for important factors like: 1. International Liability for Space Objects: States are responsible for any harm that their space objects cause to aircraft that are in flight or to the surface of the Earth. The 1972-adopted Liability Convention (a treaty on international liability for damage caused by space objects) established this principle. The state is strictly liable, which means that regardless of culpability, it must pay for any losses21. 2.

Registration of Space Objects: States are required to register space objects they launch into Earth orbit or beyond under the 1976-adopted Convention on Registration of Objects Launched into Outer Space (Registration Convention)22. 3. Space Debris Mitigation: This entails minimizing the production of trash while planning space missions and satellites, removing obsolete satellites from orbit, and properly handling end-of-life satellite disposal. 4. Harmful pollution Prevention: States must take steps to stop harmful pollution of celestial bodies and other areas of space. The Outer Space Treaty (OST) of 1967 forbids the implantation of nuclear weapons or any other type of WMD on celestial bodies, in space, or in orbit around Earth23. 5. Peaceful Use of Outer Space: According to the OST, governments must uphold the principle that outer space should only be used for peaceful reasons.

It maintains the idea that space belongs to all humans and forbids the use of force, military installations, and military operations on celestial planets24. 6. International Cooperation: The Agreement on the Rescue of Astronauts, the Return of Astronauts, and the Return of Objects Launched into Outer Space (Rescue Agreement) governs

21 Convention on International Liability for Damage caused by space objects, 1972, Art V

22 Convention on Registration of Objects Launched into Outer Space, 1976, Art II

23 Outer space treaty, 1967, Art IV

24 Outer space treaty, 1967, Art IV

the rescue and return of astronauts who are in need of assistance as well as the retrieval of spacecraft. The damaged state can seek compensation from the launching state through diplomatic channels or, if required, through international dispute resolution processes in the event of a space accident or incident involving a space item from one state that harms another state or its property. With the growing militarization and commercialization of space in recent years, the issue of space responsibility has become even more important.

CHAPTER VII –

CONCLUSION

AND SUGGESTION

7.1 CONCLUSION

In conclusion, space tourism has a lot of potential to further cosmic research and human exploration. It also prompts justifiable worries over any potential harm to the environment. All stakeholders, including space tourism businesses, governments, and regulatory agencies, must work together and put these environmental concerns front and center in order to create a sustainable and ethical space tourism economy. Investing in greener propulsion technology, choosing environmentally friendly launch sites, managing space debris, encouraging resource efficiency, and lowering noise pollution during rocket launches are important ways to alleviate the environmental impact of space tourism. Responsible space tourism must prioritize conducting extensive environmental impact studies, promoting transparency, and promoting multilateral cooperation.

Furthermore, it is crucial that the urgent environmental issues facing our planet are not overshadowed by the thrill and attraction of space travel. It is crucial that we strike a balance between our quest for knowledge in space and our need to save Earth and its ecosystems. The space tourism sector can reduce its ecological impact and make sure that space travel benefits the health of our planet and its inhabitants by upholding strict environmental standards, putting sustainable practices first, and looking for creative solutions. In the end, responsible space tourism will enable us to explore the universe while preserving the delicate environment we call home.

7.2. SUGGESTIONS

Certainly! Here are some concrete recommendations to make sure that space tourism is carried out in an environmentally conscious manner:

1. Encourage the adoption of sustainable practices by space tourism businesses at every

stage of their operations, from spacecraft design and production through launch and recovery. This entails utilizing environmentally friendly materials, energy-saving technologies, and waste management techniques.

2. Invest in green technologies to minimize the impact on the Earth's atmosphere and

support the study and development of more environmentally friendly propulsion systems, such as those driven by solar or electric energy.

3 Optimize Launch Sites

Pick launch sites with the least negative effects on the surrounding ecosystems and species. To fully grasp the potential effects and implement the appropriate environmental protection measures, conduct extensive environmental impact assessments.

4 Space Debris Mitigation

Ensure that space tourism businesses adhere to regulations for ethical space operations to reduce space debris and actively take part in projects to remove space debris.

5 Educate Tourists

Inform visitors to space about the value of protecting the environment and having respect for the heavenly environs. Encourage children to follow environmentally beneficial habits when traveling.

6 Carbon Offsetting

To balance their emissions, space tourism corporations could voluntarily contribute to programs that support renewable energy, reforestation, or carbon capture technology.

7 Collaboration with Environmental Organizations

Encourage collaboration with environmental groups to incorporate best practices and knowledge of environmental preservation into space tourism operations.

8 Policies for Responsible Space Tourism

To ensure respect to environmental norms, governments and regulatory agencies should set precise guidelines and laws for space tourism providers.

9. Conduct long-term environmental impact analyses of space tourism operations to

track and reduce any unknown side effects that may develop over time. We can ensure that this exciting and transformational sector expands while protecting the Earth's environment and promoting a more sustainable future for humanity's space exploration efforts by including these recommendations into the creation and execution of space tourism.

REFERENCES

BIBLIOGRAPHY

Sandeepa Bhat B – Space Law: In the Era of Commercialisation • Frans G. von der Dunk's "The International Law of Space" • Michel van Pelt's "Space Tourism: Adventures in Earth's Orbit and Beyond" • Tim Fernholz's "Rocket Billionaires: Elon Musk, Jeff Bezos, and the New Space Race": • Annette Toivonen’s “Sustainable Space Tourism” • Julian Guthrie's "How to Make a Spaceship: A Band of Renegades, an Epic Race, and the Birth of Private Spaceflight"

WEBLIOGRAPHY

https://nssdc.gsfc.nasa.gov/nmc/spacecraft/display.action?id=1957-001B • https://www.newworldencyclopedia.org/entry/Outer_space • https://www.rmg.co.uk/stories/topics/space-race-timeline • https://oxfordre.com/planetaryscience/display/10.1093/acrefore/9780190647926.001.000 1/acrefore-9780190647926-e-65;jsessionid=258C860C3C8E772378C048F963BAB8BA • https://spacetourismguide.com/history-of-space-tourism/ • https://www.law.georgetown.edu/environmental-law-review/blog/theenvironmentalimpacts-of-the-new-space-race/ • https://ts2.space/en/the-impact-of-space-tourism-on-space-debris-and-orbitalcongestion/