際際滷

際際滷Share a Scribd company logo

Mangalyaan-India-Mars-Orbiter-MissionMOM.pptx

Download as PPTX, PDF
Aditi Sarkar
Aditi Sarkar

THEORY DISCOURSE

1 of 10
Download to read offline
Mangalyaan: India's Mars Orbiter Mission(MOM) Mangalyaan, India's first interplanetary mission, was launched in 2013 to study the Martian atmosphere and surface from orbit.
Introduction The PSLV-XL C25 was launched on 5 November 2013 by the Indian Space Research Organization (ISRO) from Srih Some of the key scientists of ISRO and engineers involved in the mission include: K.Radhakrishnan,V Kesava Raju, Subbiah Arun, Moumita Dutta, Nandini Harinath, Ritu Karidhal Srivastava. The total cost of the mission was approximately 450 Crores(US$73 million). The shuttle uses the bipropellant combination Monomethylhydrazine (MMH) and Dinitrogen tetroxide to achieve the thrust necessary for escape velocityfrom Earth. The chairman, ISRO, Shri A.S. Kiran Kumar releasing the Mars Atlas on the occasion of the completion of one year of Mars Orbiter Mission
Objectives of the Mission Explore Mars Study the Martian atmosphere, climate, and surface features. Technological Demonstration Test the capabilities of Indian space technology for future deep space missions. Cost-Effective Approach Achieve Mars orbit at a fraction of the cost of other Mars missions.
Remote Sensing Instruments 1.Payload Mangalyaan carries 5 scientific instruments for remote sensing of Mars. 2.Imaging Camera Captures high-resolution images of the Martian surface and atmosphere. 3.Spectroscopic Sensors Analyze the composition of the Martian atmosphere and surface.
Capabilities of Remote Sensing 1 Atmospheric Studies Analyze the structure, composition, and dynamics of the Martian atmosphere. 2 Surface Mapping Create high-resolution maps of the Martian surface and geological features. 3 Climate Monitoring Track changes in the Martian climate and weather patterns over time.
Data Acquisition and Processing Data Downlink Transmit data from Mangalyaan to ground stations on Earth. Data Processing Analyze and interpret the data collected by the remote sensing instruments. Data Storage Maintain a comprehensive archive of Mangalyaan's scientific data. India as seen by Mars Colour Camera (MCC) during the geocentric phase
Applications of Remote Sensing Data 1 Atmospheric Modeling Improve understanding of the Martian atmosphere and climate. 2 Geological Mapping Identify and study the geological features of the Martian surface. 3 Resource Exploration Identify potential sources of water and other resources on Mars. 4 Future Mission Planning Inform the design and targeting of future Mars exploration missions. Global SWIR apparent albedo map obtained from MSM data
Challenges and Achievements Technical Challenges Overcoming the complexities of interplanetary travel and orbit insertion. Budget Constraints Achieving a high-impact mission on a tight budget of $74 million. International Cooperation Despite the US federal government shutdown , NASA reaffirmed that it would provide communications and navigation support to the mission with their Deep Space Network facilities. Scientific Achievements Gathering valuable data on the Martian atmosphere and climate.
Future Prospects and Lessons Learned Future Missions Building on Mangalyaan's success to plan future interplanetary expeditions. Technological Advancements Leveraging Mangalyaan's innovations to improve India's space capabilities. International Collaboration Exploring opportunities for international partnerships in space exploration. Inspiring Future Generations Motivating young scientists and engineers to pursue careers in space.
THANK YOU!

More Related Content

Mangalyaan-India-Mars-Orbiter-MissionMOM.pptx

  • 1. Mangalyaan: India's Mars Orbiter Mission(MOM) Mangalyaan, India's first interplanetary mission, was launched in 2013 to study the Martian atmosphere and surface from orbit.
  • 2. Introduction The PSLV-XL C25 was launched on 5 November 2013 by the Indian Space Research Organization (ISRO) from Srih Some of the key scientists of ISRO and engineers involved in the mission include: K.Radhakrishnan,V Kesava Raju, Subbiah Arun, Moumita Dutta, Nandini Harinath, Ritu Karidhal Srivastava. The total cost of the mission was approximately 450 Crores(US$73 million). The shuttle uses the bipropellant combination Monomethylhydrazine (MMH) and Dinitrogen tetroxide to achieve the thrust necessary for escape velocityfrom Earth. The chairman, ISRO, Shri A.S. Kiran Kumar releasing the Mars Atlas on the occasion of the completion of one year of Mars Orbiter Mission
  • 3. Objectives of the Mission Explore Mars Study the Martian atmosphere, climate, and surface features. Technological Demonstration Test the capabilities of Indian space technology for future deep space missions. Cost-Effective Approach Achieve Mars orbit at a fraction of the cost of other Mars missions.
  • 4. Remote Sensing Instruments 1.Payload Mangalyaan carries 5 scientific instruments for remote sensing of Mars. 2.Imaging Camera Captures high-resolution images of the Martian surface and atmosphere. 3.Spectroscopic Sensors Analyze the composition of the Martian atmosphere and surface.
  • 5. Capabilities of Remote Sensing 1 Atmospheric Studies Analyze the structure, composition, and dynamics of the Martian atmosphere. 2 Surface Mapping Create high-resolution maps of the Martian surface and geological features. 3 Climate Monitoring Track changes in the Martian climate and weather patterns over time.
  • 6. Data Acquisition and Processing Data Downlink Transmit data from Mangalyaan to ground stations on Earth. Data Processing Analyze and interpret the data collected by the remote sensing instruments. Data Storage Maintain a comprehensive archive of Mangalyaan's scientific data. India as seen by Mars Colour Camera (MCC) during the geocentric phase
  • 7. Applications of Remote Sensing Data 1 Atmospheric Modeling Improve understanding of the Martian atmosphere and climate. 2 Geological Mapping Identify and study the geological features of the Martian surface. 3 Resource Exploration Identify potential sources of water and other resources on Mars. 4 Future Mission Planning Inform the design and targeting of future Mars exploration missions. Global SWIR apparent albedo map obtained from MSM data
  • 8. Challenges and Achievements Technical Challenges Overcoming the complexities of interplanetary travel and orbit insertion. Budget Constraints Achieving a high-impact mission on a tight budget of $74 million. International Cooperation Despite the US federal government shutdown , NASA reaffirmed that it would provide communications and navigation support to the mission with their Deep Space Network facilities. Scientific Achievements Gathering valuable data on the Martian atmosphere and climate.
  • 9. Future Prospects and Lessons Learned Future Missions Building on Mangalyaan's success to plan future interplanetary expeditions. Technological Advancements Leveraging Mangalyaan's innovations to improve India's space capabilities. International Collaboration Exploring opportunities for international partnerships in space exploration. Inspiring Future Generations Motivating young scientists and engineers to pursue careers in space.