India is set to enter a new era in commercial space exploration on Saturday as Hyderabad-based Skyroot Aerospace prepares to launch Vikram-1, the country's first privately developed orbital launch vehicle. The mission, named Mission Aagaman, is scheduled to lift off from the Satish Dhawan Space Centre, Sriharikota, at 11:30 AM IST, marking a significant milestone for India's rapidly expanding private space sector.

Ahead of the launch, Prime Minister Narendra Modi described the mission as a "historic new frontier" for India's space programme, highlighting it as a symbol of the country's innovation-driven growth and entrepreneurial spirit. In a message shared on X, the Prime Minister congratulated the Skyroot Aerospace team and expressed confidence that Vikram-1 would inspire a new generation of innovators while demonstrating the success of India's space-sector reforms.

Mission Aagaman Opens a New Chapter

Mission Aagaman is Skyroot Aerospace's maiden orbital mission and the first attempt by an Indian private company to place a launch vehicle into orbit. If successful, Vikram-1 will become the country's first privately built orbital rocket to deploy payloads into Low Earth Orbit (LEO) at an altitude of 450 kilometres.

The mission comes six years after the Government of India opened the space sector to private participation in 2020, encouraging startups to build indigenous launch capabilities and helping the country target a significantly larger share of the global space economy.

Advanced Indigenous Rocket Technology

Vikram-1 has been developed using cutting-edge aerospace technologies. It is India's first orbital launch vehicle built almost entirely with an all-carbon composite structure, making it lighter, stronger and more fuel-efficient than conventional metallic rockets.

The four-stage launch vehicle combines three solid-fuel propulsion stages with an advanced Orbital Adjustment Module (OAM) that uses a fully 3D-printed liquid rocket engine—the first of its kind on an Indian orbital launcher. The rocket also features India's longest monolithic carbon-composite first stage, showcasing major advances in indigenous aerospace manufacturing.

Designed for rapid and on-demand satellite launches, Vikram-1 can carry payloads of up to 350 kilograms into Low Earth Orbit.

Commercial and Technology Payloads

Mission Aagaman is carrying several technology demonstration payloads developed by Indian space startups, including:

• Graha Space

• Cosmoserve Space

• DQube

• Skyroot Aerospace's in-house SCOPE payload

These payloads will help validate next-generation space technologies while collecting valuable mission data for future commercial launches.

A Golden Tribute to India's Scientific Icons

Beyond its technological significance, Vikram-1 also carries a symbolic payload celebrating India's scientific heritage.

A miniature 18-carat gold rocket, created by Cosmos Diamonds, has been included aboard the mission. The artwork features intricate micro-sculptures of three legendary Indian scientists:

• Dr. Vikram Sarabhai, the father of India's space programme

• Dr. A.P.J. Abdul Kalam, renowned aerospace scientist and former President of India

• Sir C.V. Raman, Nobel Prize-winning physicist

The artistic payload, titled "Cosmic Bloom," blends science, engineering and national pride, making it one of the mission's most distinctive features.

PM Modi Hails India's Growing Space Ecosystem

Calling Vikram-1 a landmark achievement, Prime Minister Modi said the mission reflects the talent, determination and innovation of India's youth. He noted that reforms in the space sector are creating fresh opportunities for startups and private enterprises while strengthening India's position in the global space economy.

The Prime Minister also encouraged citizens, especially young people, to follow the launch and support the mission through the hashtag #IndiaWithVikram1.

Boost for India's Commercial Space Ambitions

Founded in 2018 by former ISRO scientists Pawan Kumar Chandana and Naga Bharath Daka, Skyroot Aerospace has emerged as one of India's leading private space startups. Following the successful launch of the Vikram-S suborbital rocket in 2022, the company is now attempting a full-fledged orbital mission.

A successful Vikram-1 launch would represent a major leap for India's private space industry, opening new opportunities in satellite launch services, attracting international customers and strengthening the country's ambition to become a global commercial launch hub.

India's private space sector is set to achieve a major milestone on Saturday as Hyderabad-based Skyroot Aerospace prepares to launch Vikram-1, the country's first privately developed orbital-class rocket. The launch, scheduled for 11:30 AM IST from the Satish Dhawan Space Centre, Sriharikota, marks a significant step in India's commercial space journey and is expected to strengthen the nation's position in the global launch market.

Named "Mission Aagman," the flight aims to place multiple payloads into a 450-kilometre Low Earth Orbit (LEO). If successful, the mission will make Skyroot Aerospace the first Indian private company to place payloads into orbit, following the successful suborbital launch of Vikram-S in 2022.

A Landmark for India's Private Space Industry

Until recently, orbital satellite launches in India were primarily undertaken by the Indian Space Research Organisation (ISRO). Vikram-1 represents the next phase of India's space reforms, where private companies are beginning to play a significant role in launch services, satellite deployment and space technology innovation.

The mission is expected to demonstrate India's growing capabilities in developing cost-effective commercial launch vehicles capable of serving domestic as well as international customers.

Technology and Commercial Payloads Onboard

The rocket is carrying multiple technology demonstration payloads from Indian space startups, including:

• Graha Space

• Cosmoserve Space

• DQube

• Skyroot Aerospace's in-house SCOPE payload

These payloads are designed to validate new technologies and collect valuable data during the orbital mission.

Golden Tribute to India's Space Pioneers

One of the mission's unique highlights is an artistic payload created by Cosmos Diamonds.

The artwork, titled "Cosmic Bloom," includes an 18-carat gold micro-art rocket engraved with miniature portraits of three legendary Indian scientists:

• Dr. Vikram Sarabhai

• Dr. A.P.J. Abdul Kalam

• Sir C.V. Raman

The symbolic tribute celebrates India's scientific legacy while accompanying the country's first private orbital mission into space.

Lightweight Carbon-Composite Design

Vikram-1 is India's first orbital launch vehicle built almost entirely using carbon-composite structures, making it significantly lighter than conventional metallic rockets. Carbon fibre offers high strength while reducing structural weight, improving fuel efficiency and payload capability.

The launch vehicle features:

• Three solid-fuel propulsion stages that provide the primary thrust during ascent.

• A liquid-fuel Orbital Adjustment Module (OAM), responsible for precisely placing payloads into their designated orbit after reaching space.

This combination allows greater control during the final orbital insertion phase.

From Vikram-S to Vikram-1

Skyroot Aerospace made headlines in November 2022 after successfully launching Vikram-S, India's first private suborbital rocket, which reached an altitude of 89.5 kilometres during a technology demonstration mission.

Unlike Vikram-S, which was designed only for suborbital testing, Vikram-1 is a full-fledged orbital launch vehicle capable of carrying payloads weighing up to 350 kilograms into Low Earth Orbit.

Strengthening India's Space Economy

The successful launch could significantly boost India's private space ecosystem by opening new opportunities for satellite launch services, technology development and international commercial partnerships.

Industry experts believe increased private participation will complement ISRO's capabilities, attract foreign customers seeking affordable launch solutions and accelerate innovation across India's rapidly expanding space startup ecosystem.

Founded in 2018 by former ISRO scientists Pawan Kumar Chandana and Naga Bharath Daka, Skyroot Aerospace has positioned itself as one of India's leading private launch vehicle developers.

Ahead of the mission, CEO Pawan Kumar Chandana said the test flight would provide crucial data on the rocket's orbital performance, while COO Naga Bharath Daka described the launch as the culmination of nearly eight years of engineering and development.

As Mission Aagman lifts off, it carries not only technology payloads but also the aspirations of India's emerging private space industry, signalling a new era where commercial innovation works alongside national space ambitions.

The International Space Station (ISS), which has served as humanity's primary scientific outpost in low-Earth orbit for over 25 years, has formally entered its twilight phase. The National Aeronautics and Space Administration (NASA) has detailed an extensive operational blueprint to safely retire and deorbit the massive laboratory by 2030. The space agency has committed nearly $1 billion (approximately ₹9,500 crore) to execute the high-stakes atmospheric re-entry, ensuring the football-field-sized structure does not pose a threat to populated areas on Earth.

Shifting Focus From Aging Outpost

The decision comes as the orbital laboratory shows unavoidable signs of structural wear and tear. Having significantly outlasted its original intended design life, the station has recently been hit by minor structural leaks and constant maintenance challenges. According to officials, the recurring expenditure required to keep the aging platform operational has become a major fiscal strain. By bringing the curtains down on the ISS, NASA intends to free up critical resources and technical focus for its upcoming deep-space exploration targets, specifically the Artemis Moon missions and future crewed voyages to Mars.

SpaceX to Build Specialized Tug

To pull off the complex maneuver, the US space agency has selected Elon Musk’s SpaceX to develop a heavily modified, high-thrust version of the Dragon capsule, designated as the US Deorbit Vehicle. This specialized space tug will dock with the 450,000-kilogram structure to systematically lower its altitude. Initial reports indicate that the operational deorbit sequence will begin gradually around 2028, with the final, definitive atmospheric plunge scheduled for late 2030 or early 2031.

Gravity and Friction to Melt Modules

Engineering teams expect the final descent to be a highly dramatic, multi-staged event. As the spacecraft pushes the station into the denser layers of Earth's atmosphere, the immense friction will trigger rapid heating. The massive solar arrays and external radiators will rip away first, followed by the progressive fragmentation of the main truss and modules. While the vast majority of the aluminium and titanium structure will vaporize or melt under temperatures reaching thousands of degrees, denser and more heat-resistant hardware components are still expected to survive the thermal shield of the atmosphere.

Final Resting Place At Point Nemo

To guarantee zero casualties on the ground, local authorities confirmed that the surviving debris will be directed exclusively toward Point Nemo in the South Pacific Ocean. Known widely across global aerospace sectors as the "spacecraft cemetery," this remote oceanic location is the furthest point on Earth from any human civilization or landmass. Maritime safety protocols will be strictly enforced during the drop window to keep international shipping vessels clear of the target zone, which has safely swallowed over 300 pieces of decommissioned space hardware since 1971.

End of Monolithic Space Lab Era

The retirement marks the conclusion of an unprecedented era of geopolitical harmony in orbit. Since November 2000, the station has maintained a continuous human presence, operating as a collaborative triumph between the US, Russia, Europe, Japan, and Canada. Over 250 astronauts from 19 nations have lived and worked inside its pressurized modules, conducting thousands of microgravity experiments. However, the future landscape of low-Earth orbit will look entirely different, shifting from a singular state-funded monolith to a fragmented ecosystem of commercial enterprises.

Transitioning to Commercial Outposts

As the final plunge for International Space Station nears, NASA is actively funding private aerospace firms to prevent a gap in orbital research capabilities. Commercial entities are racing to fill the void, with projects like Vast’s Haven-2, Axiom Space’s modular station, and Blue Origin’s Orbital Reef currently under development. Concurrently, China’s fully operational Tiangong space station continues to expand its footprint, while the Indian Space Research Organisation (ISRO) remains on track with preliminary designs to deploy India's own indigenous space station by 2035.

ISRO to Open Astronaut Cadre to Civilians for First Time

ISRO's astronaut selection committee recommends inducting four STEM experts in the second batch of 10 astronauts as India prepares for sustained human spaceflight beyond the maiden Gaganyaan mission.

In a significant departure from its initial reliance on military test pilots, the Indian Space Research Organisation (ISRO) is set to open its astronaut cadre to ordinary citizens with strong backgrounds in science, technology, engineering, and mathematics (STEM). 

An internal committee on astronaut selection and management has proposed that the second batch include four civilian specialists alongside six mission pilots drawn from military aviation backgrounds. This move aims to build a more diverse and robust talent pool for India's growing human spaceflight ambitions.

Sources familiar with the deliberations indicated that while the second batch will have these four civilians, they are likely to fly only from the fourth crewed Gaganyaan mission onward. The cautious approach reflects global practices where military pilots handle early missions until technologies mature sufficiently for broader participation.

First Crew Ready for Gaganyaan

India's maiden human spaceflight programme, Gaganyaan, remains on track for a targeted launch by 2027. The mission will send a crew of Indian astronauts into low Earth orbit at around 400 km for a short three-day duration before safe return.

The first batch of four astronauts, all Group Captains from the Indian Air Force, includes Prashanth Balakrishnan Nair, Shubhanshu Shukla, Ajit Krishnan, and Angad Pratap. These experienced fighter pilots have been undergoing rigorous training, including international exposure, to ensure the success of this landmark mission.

One of them, Shubhanshu Shukla, has already gained valuable orbital experience through participation in an Axiom Space mission to the International Space Station in 2025.

Second Batch: Mixing Pilots and Specialists

According to the committee's recommendations, the second batch is planned at around 10 astronauts. Six would serve as mission pilots, potentially including not just fighter jet pilots but also combat helicopter pilots from the armed forces for added operational depth.

The inclusion of four civilian STEM experts marks the first formal opening of the cadre to non-military personnel. Officials noted that this expansion will help strengthen microgravity research capabilities and support the technological and scientific demands of future missions.

Initial estimates suggested seven astronauts might suffice operationally, but the number was revised upward to 10 to account for possible international collaborations, attrition, and a planned tempo of up to two crewed missions per year. Astronauts could potentially fly again after a gap of about two years.

Long-Term Vision for Space Station

The proposals extend well beyond immediate Gaganyaan flights. The committee has suggested increasing crew size from two to three astronauts starting around the seventh mission, enabled by upgrades to the crew module. This change aligns closely with India's plans for the Bharatiya Antariksh Station, where sustained scientific utilisation will require a larger and more varied astronaut team.

For the third batch, projections indicate a need for about 12 astronauts, with a much higher proportion of specialists rather than pilots. Overall, the committee has recommended building a long-term astronaut cadre strength of up to 40 individuals to handle uncertainties and emerging opportunities.

Training timelines remain demanding. The full cycle of selection, preparation, and mission readiness is estimated at roughly 4.5 to 5 years. The second batch could be ready in about 72 months (six years), while the third batch may take up to 96 months.

Infrastructure and Challenges Ahead

While the selection strategy shows clear forward thinking, ISRO continues to address gaps in supporting infrastructure. The agency currently operates a temporary astronaut training facility and is yet to establish a full-fledged centre. Critical technologies, including advanced environmental control and life support systems, also require further maturation for reliable crewed operations.

Local reactions in Bengaluru's science community have been positive, with many young engineers and researchers viewing this as an encouraging signal that talent from academia and industry could one day contribute directly to India's space programme.

Experts believe the gradual inclusion of civilians will bring fresh scientific perspectives essential for long-duration missions and research aboard a future Indian space station.

ISRO has not yet released detailed selection criteria or timelines for the civilian intake. However, the committee's proposals are under active consideration as the agency gears up for the next phase of its human spaceflight roadmap.

As India moves from proving human spaceflight capability to establishing a regular presence in orbit, opening the astronaut cadre to STEM experts from ordinary backgrounds could prove a pivotal step in nurturing a broader national talent ecosystem for space exploration.

ISRO Mission Mitra: Psychological Drills Begin in Ladakh

Space agency initiates 'Mission Mitra' to evaluate astronaut endurance and mental resilience ahead of the historic Gaganyaan human spaceflight.

The Indian Space Research Organisation (ISRO) has officially moved into a critical phase of its human spaceflight program with the commencement of Mission Mitra. Set against the unforgiving, high-altitude terrain of Ladakh, this specialized analogue mission serves as a rigorous testing ground for the mental and physical limits of India’s future space travelers. As the country edges closer to its first crewed mission, the focus has shifted toward the psychological intricacies of survival in extreme isolation.

Simulating Deep Space Isolation

Mission Mitra, an acronym for Mapping of Interoperable Traits & Reliability Assessment, is designed to mimic the profound isolation of a spacecraft. In the desolate stretches of Ladakh, participants are subjected to conditions that replicate the sensory deprivation and confined living quarters of the Gaganyaan module. This latest news update from the space agency highlights a transition from purely technical hardware testing to the human element of the mission.

Testing Mental Fortitude

While technical proficiency is a prerequisite for any astronaut, the psychological toll of being sequestered from Earth is a different challenge altogether. Experts are utilizing this mission to monitor how human subjects manage stress, fatigue, and the cognitive load of complex tasks when resources are scarce. The objective is to ensure that when the final countdown for the Gaganyaan Mission begins, the crew is mentally impenetrable.

Ladakh as Analogue Terrain

The choice of Ladakh is far from coincidental. With its thin atmosphere, sub-zero temperatures, and barren landscape, the region offers a "space-equivalent" environment. These terrestrial conditions allow ISRO to observe physiological changes and decision-making speeds in a low-oxygen setting. Sources indicated that the data gathered here will be instrumental in finalizing the psychological support protocols for the actual orbital flight.

Enhancing Team Synergy

A primary focus of Mission Mitra is the evaluation of interpersonal dynamics under duress. In the vacuum of space, a minor disagreement can escalate into a mission-critical error. By placing team members in high-pressure "survival" scenarios in the Himalayas, ISRO psychologists are studying communication patterns and trust-building exercises. This ensures that the team operates as a single, cohesive unit despite the mounting pressure of the mission.

Global Training Standards

This initiative aligns India with global benchmarks set by agencies like NASA and the ESA. By adopting high-fidelity analogue simulations, ISRO is narrowing the gap between theoretical training and the visceral reality of space. According to officials, these simulations are vital for identifying "interoperable traits"—the ability of an astronaut to switch roles and support peers seamlessly during emergencies.

The Gaganyaan Roadmap

The Gaganyaan Mission remains India's most ambitious leap in the 21st century, aimed at demonstrating indigenous capability to send humans to a Low Earth Orbit (LEO) of 400 km. While the rockets and crew modules have undergone several successful tests, the human component is now being polished. Mission Mitra acts as the bridge between the physical machine and the psychological readiness of the person inside it.

Future Mission Outlook

As the Ladakh trials progress, the findings will be integrated into the final training curriculum at the Astronaut Training Facility in Bengaluru. The success of these simulations will determine the final readiness of the four selected test pilots. This Public Interest Story underscores India’s meticulous approach to safety, ensuring that the first Indians launched from home soil are prepared for every eventuality, both seen and unseen.

India is on high alert as the Sun shows signs of extreme activity. The Indian Space Research Organisation (ISRO) has issued a fresh warning after detecting an intense solar storm that could lead to radio blackouts and disruptions in satellite-based services across the country. Scientists say the latest solar flare is among the strongest seen in recent years, raising concerns for communication networks, navigation systems, and power infrastructure.

What Is a Solar Storm and Why Is It Dangerous?

A solar storm occurs when the Sun releases massive bursts of energy in the form of solar flares or coronal mass ejections (CMEs). These explosions send charged particles racing toward Earth at the speed of light, reaching our planet in just 7–8 minutes.

Normally, Earth’s magnetic field acts as a protective shield. However, when solar activity becomes extremely intense, this protection can weaken, allowing energetic particles to enter the upper atmosphere and cause disturbances.

Why This Solar Storm Is More Intense

According to scientists, the current solar event comes from an active sunspot region that has released an X8.1-class solar flare. Solar flares are classified based on X-ray energy output:

 A, B, C-class: Minor impact

 M-class: Moderate, may affect polar regions

 X-class: Extremely powerful and dangerous

Each class is 10 times stronger than the previous one. An X8.1 flare is considered extremely intense and capable of causing widespread technological disruptions.

ISRO’s Warning and India’s Preparedness

ISRO has stated that it is closely monitoring over 50 operational Indian satellites following repeated solar eruptions observed since early February. The main concern is a potential radio blackout, classified as an R5-level event, which is the most severe category.

Possible impacts include:

 Disruption in radio communication and aviation signals

 GPS and navigation errors

 Mobile networks and satellite TV interruptions

 Increased stress on power grids and transformers

To reduce damage, ISRO may temporarily adjust satellite orientation and protect sensitive instruments from direct solar exposure.

Why This Matters Right Now

The Sun is currently passing through its 11-year solar cycle peak, known as solar maximum. During this phase, solar storms become more frequent and intense. With India increasingly dependent on satellite technology for communication, navigation, defense, and digital services, space weather has become a critical national concern.

 Is There Any Positive Effect?

Yes. Strong solar storms can also create breathtaking auroras. Under very intense conditions, northern lights have even been spotted in parts of Ladakh, offering a rare visual treat.

While solar storms are natural cosmic events, their impact on modern technology can be serious. ISRO’s timely warning highlights the importance of space weather monitoring in today’s connected world. As scientists keep a close watch on the “angry Sun,” the coming days will be crucial in determining whether India faces temporary disruptions—or safely rides out the storm.