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Ax 4

Axiom Mission 4 (Ax-4) is a planned private spaceflight to the ISS, focusing on various scientific studies and promoting commercial activities in Low Earth Orbit. The mission aims to enhance India's capabilities in space exploration while addressing challenges such as policy issues, funding, and competition. Key objectives include strengthening global partnerships and conducting experiments in microgravity to support future space farming and technology advancements.

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0% found this document useful (0 votes)
5 views2 pages

Ax 4

Axiom Mission 4 (Ax-4) is a planned private spaceflight to the ISS, focusing on various scientific studies and promoting commercial activities in Low Earth Orbit. The mission aims to enhance India's capabilities in space exploration while addressing challenges such as policy issues, funding, and competition. Key objectives include strengthening global partnerships and conducting experiments in microgravity to support future space farming and technology advancements.

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AMOGH SONI
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© © All Rights Reserved
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AXIOM 4 Mission
• Introduction
◦ Axiom Mission 4 (Ax‑4) is a planned private spaceflight to the International
Space Station (ISS) operated by Axiom Space in partnership with SpaceX and
NASA.
• Payload of ISRO
◦ Voyager Displays: Study how microgravity affects computer interface design.
◦ Voyager Targridebases: Study microbial diversity and population on ISS
surfaces.
◦ Crop Seeds in ISS: Study crop germination and growth to support space
farming.
◦ Stemonstrators: Promote STEM learning for students.
◦ Sprouts: Study plant growth in space to inform future space farming.
◦ Space Microalgae: Study microalgae’s role in oxygen and food supply in space.
• Objectives of Mission
1. Space Commercialisation: Promote commercial activities in Low Earth Orbit.
Eg space tourism, private manufacturing.
2. Space Station Business Platforms: Demonstrate the viability of commercial
space stations as operational hubs for scientific research and commercial
enterprises.
3. Global Space Partnerships – Strengthen international cooperation in space
exploration.Eg ISRO and NASA partnership.
4. Research Resurgence – Conduct scientific experiments in materials science,
and life sciences. Eg Microgravity experiments.
5. Remote Sensing : Space-based Earth Monitoring Earth for environmental
studies, climate monitoring. Eg Cyclone Monitoring.
• Significance of Mission for India
◦ Space Superpower : highlights India's growing presence in space exploration.
◦ Gaganyaan Boost : enhancing India's capabilities in human spaceflight
programme.
◦ Technological Triumph : AX-4 crew will conduct experiments, technology
demonstrations.
◦ Space Station Development: Ax-4 facilitate Indian astronauts' participation in
activities aboard the ISS,
• Challenges for India
1. Policy Myopia: lack of private sector participation. Eg Delays in licensing
processes
2. Innovation Inertia : stagnant R&D in space programme. Eg No Space unicorn
in India
3. Investment Crunch : meagre funding to space programmer. Eg ISRO
Budget($1.6 billion) , NASA($25 billion) [Draw Graph]
4. Infrastructure Deficit: sluggish progress in heavy-lift launch vehicles Eg GSLV
mK III v FALCON Heavy
5. Import Dependency : Export control regulations by US hinder India’s access to
advanced technology Eg Cryogenic technology.
6. Global Competition : Global space companies,, have outpaced India’s space
capabilities Eg SPACEX.
7. Safety Infringement : Frequent cyber attacks hinder project development. Eg
ISRO faces 100 attacks/day.
• Challenges in Mission
1. Launch Vehicle Reliability – Ensuring rocket components perform flawlessly;
failure can lead to total mission loss.
2. Cost Overruns – High cost of development, launch, and maintenance often
exceed initial budgets.
3. Weather Constraints – Adverse weather like high winds, lightning, or cloud
cover can delay or abort launches.
4. Payload Integration – Precise alignment and compatibility of satellite or
scientific instruments with the launch vehicle.
5. Orbital Accuracy – Achieving the exact orbit needed for mission success
requires precise calculations and timing.
6. Communication Delays – Real-time coordination with ground stations is
critical; signal delays can impact decisions.
7. Space Debris Risk – Avoiding collision with existing debris during launch and
early orbital insertion.

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