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HomeUPSC Mains Question BankUPSC Mains GS 3 Questions BankHow did the Chandrayaan mission integrate advancements in aerospace engineering, planetary science,...

How did the Chandrayaan mission integrate advancements in aerospace engineering, planetary science, and international collaboration to enhance our understanding of lunar chemistry and geology?


Introduction

The Chandrayaan missions, especially Chandrayaan-2 initiated in July 2019, demonstrate India’s expanding prowess in space exploration. This endeavor not only sought to investigate the lunar surface and its resources but also showcased notable progress in aerospace technology, planetary research, and global cooperation. By intertwining these facets, Chandrayaan-2 has yielded essential revelations regarding lunar chemistry and geology.

Aerospace Engineering Progress

  • Cutting-edge Launch Vehicle: Chandrayaan-2 was propelled into space using the GSLV Mk II, characterized by a three-stage design that ensured an optimal path to reach lunar orbit.
  • Accurate Landing Technology: This mission utilized sophisticated algorithms for the Vikram lander, enhancing its capability to perform a soft landing, despite encountering difficulties during the process.
  • Durable Instruments: The orbiter is outfitted with locally developed, high-performance remote sensing tools such as Terrain Mapping Camera-2 (TMC-2) and Dual Frequency Synthetic Aperture Radar (DFSAR).
  • Thermal Control Systems: To endure the harsh temperatures of the lunar environment, innovative thermal management materials and mechanisms were introduced.
  • Eco-friendly Propulsion Technology: Employed green propulsion systems that reduce harmful hydrazine components, aligning with global trends toward sustainable aerospace innovations.

Progress in Planetary Research

  • Detailed Mapping: The Terrain Mapping Camera has generated intricate topographical maps of the Moon, uncovering complexities in its geological structure.
  • Exploration of Water Ice Presence: The DFSAR has played a crucial role in identifying water ice deposits at the lunar poles, vital for prospective habitation.
  • Mineralogical Discoveries: The Imaging IR Spectrometer has disclosed mineral compositions, enhancing our comprehension of lunar volcanic activity and formation processes.
  • Study of Volatiles: Instruments were crafted to investigate the existence of volatiles, providing insights into the Moon’s origin and development.
  • Global Collaboration in Data Sharing: Partnered with worldwide institutions to make data accessible for extensive planetary science research.

Collaboration on an International Scale

  • Alliances with Worldwide Space Agencies: Collaborations with NASA, ISRO, and other space entities encouraged knowledge exchange and resource collaboration.
  • Cooperative Research Programs: Joint investigations with global scientists have fostered a cohesive strategy towards lunar research and bolstered credibility.
  • International Data Repository: The mission’s data resides in global databases, enabling researchers around the globe to systematically analyze findings.
  • Training and Skill Development: ISRO’s partnerships with overseas universities aim to train emerging scientists and engineers in advanced aerospace methodologies.
  • Enhancement of Global Lunar Science: The discoveries made through the mission add to UNESCO’s lunar heritage and contribute to globally recognized objectives in space science.

Conclusion

The Chandrayaan mission represents a pivotal initiative that harmonizes groundbreaking advancements in aerospace engineering, planetary science, and international partnership. It has not only substantially broadened our insights into lunar geology and chemistry but has also set the stage for future collaborative ventures in space exploration. These diverse advancements ultimately enrich the knowledge of the global scientific community and stimulate joint research for the progress of humanity.

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