SpaceX Crew-13 Blazes to ISS in Just 7h 55m

SpaceX’s Crew-13 mission set a new U.S. record by reaching the International Space Station (ISS) in just 7 hours and 55 minutes, docking on October 1, 2026. This marks the fastest launch-to-docking time ever achieved by an American spacecraft, surpassing the previous record of 12 hours and 33 minutes.

The SpaceX Crew‑13 mission is a landmark in U.S. spaceflight history. Launched on October 1, 2026, from Cape Canaveral, the Dragon capsule Grace carried four astronauts — Jessica Watkins, Luke Delaney, Joshua Kutryk, and Sergey Teteryatnikov — to the International Space Station (ISS).

From Florida to the front door in under eight hours. 🚀

Crew-13 launched aboard Dragon Grace at 11:10 a.m. EDT and docked to the @Space_Station just 7 hours, 55 minutes later, the fastest launch-to-docking by a U.S. spacecraft in station history.

Lucky 13. A whole lot of Grace.… pic.twitter.com/5LPfrKlP2T

— NASA's Johnson Space Center (@NASAJohnson) October 3, 2026

What makes this mission extraordinary is its record‑breaking speed: docking with the ISS in just 7 hours and 55 minutes, the fastest ever for an American spacecraft. This achievement was possible thanks to precise orbital alignment and trajectory planning, allowing Dragon to catch up with the ISS in record time.

The crew will spend six months aboard the ISS, conducting scientific research, supporting station operations, and facilitating crew rotation. Their arrival also sets the stage for Crew‑12’s return to Earth.

In context, while Russia’s Soyuz MS‑17 still holds the global record (3 hours 3 minutes), Crew‑13’s success underscores SpaceX’s growing role in fast‑track orbital missions and NASA’s commitment to efficient, safe crew transport. 

Key Highlights

• Mission: SpaceX Crew-13 for NASA
• Spacecraft: Dragon capsule Grace
• Launch Site: Cape Canaveral, Florida
• Docking Time: 7 hours 55 minutes after liftoff
• Docking Port: Harmony module forward port
• Crew Members:
  • Jessica Watkins (NASA)
  • Luke Delaney (NASA)
  • Joshua Kutryk (Canadian Space Agency)
  • Sergey Teteryatnikov (Roscosmos)

Why It Was Possible

• Orbital Mechanics Advantage: The ISS was in an “opportune spot” in orbit, allowing Dragon to catch up quickly.
• Trajectory Strategy: Dragon entered a slightly lower orbit, enabling it to gradually close the gap with the ISS.
• Timing: Launch was precisely aligned with the ISS’s orbital plane, minimizing phasing delays.

Records Compared

Mission	Duration	Type	Year
Crew-13 Dragon	7h 55m	Crewed (U.S.)	2026
CRS-31 Cargo	12h 33m	Cargo (U.S.)	2024
Crew-11 Dragon	14h 43m	Crewed (U.S.)	2025
Soyuz MS-17	3h 3m	Crewed (Russia)	2020

Mission Outlook

• Duration: Six months aboard the ISS
• Objectives: Scientific research, station operations, and crew rotation
• Crew-12 Replacement: Jessica Meir, Jack Hathaway, Sophie Adenot, and Andrey Fedyaev scheduled to return soon

Context & Trade-offs

• Not Engineering Alone: The record was due to orbital timing, not a more powerful rocket.
• Constraints: Fast-track trajectories require precise launch windows; even minor delays can force longer rendezvous profiles.
• Comparison: Russia’s Soyuz uses aggressive trajectories, while NASA and SpaceX prioritize safety and flexibility.

World Record in Orbit: Girls Across 108 Nations Build Satellite Together in India

Girls from 108 countries have set a world record by building ShakthiSAT, a 12U CubeSat developed entirely by young women under India’s Space Kidz India initiative. The satellite will launch aboard ISRO’s Small Satellite Launch Vehicle (SSLV) on October 5, 2026, marking the largest all-girls international space collaboration to date.

Mission ShakthiSAT Overview

• Led by: Space Kidz India (Chennai-based organization promoting youth in space science)
• Participants: Girls from 108 countries, including India, Egypt, USA, Brazil, Australia, Switzerland, Latvia, and the Philippines
• Satellite Type: 12U CubeSat (compact satellite with multiple payloads)
• Launch Vehicle: ISRO’s SSLV (Small Satellite Launch Vehicle)
• Launch Date: October 5, 2026

Hands-On Engineering Experience

• Spacecraft assembly: mechanical integration, structure preparation
• Electrical fabrication: wiring, solar panel soldering, power-bus setup
• Payload integration: scientific instruments and mission systems
• Mission design: coding, electronics, and testing

International Collaboration

• Supported by: India’s Ministry of External Affairs (MEA), making it a platform for youth diplomacy
• Partner institutions:
  • Egyptian Space Agency
  • University of South Alabama (USA)
  • Australian Astronomical Optics at Macquarie University
  • Indian Aerospace University
  • SMW Engineering, Shamal & Partners, 2H5

Significance

• World Record: Largest all-girls satellite collaboration ever
• STEM Empowerment: Moves beyond classroom learning to real-world aerospace engineering
• Symbolic Impact: Demonstrates that girls can be builders, designers, and leaders in space exploration
• Long-Term Vision: ShakthiSAT is a step toward future lunar missions, with plans to involve 12,000 girls worldwide

Challenges + Opportunities

• Challenge: Coordinating across 108 countries required immense logistical and cultural collaboration
• Opportunity: Creates a new model for global STEM education, combining engineering with diplomacy
• Risk: Sustaining momentum beyond the launch will require continued funding and institutional support.

India-France Space Cooperation Enters New Phase with Human Spaceflight and Start-up Collaboration

India and France have reaffirmed their six-decade-long partnership in space exploration, marking a new era of collaboration that extends beyond traditional government institutions into the dynamic ecosystem of start-ups and industries. The announcement came during a high-level meeting in New Delhi between Union Minister Dr. Jitendra Singh and French Minister for Higher Education, Research and Space, Prof. Philippe Baptiste.

A Legacy of Cooperation

The India-France space partnership dates back to the 1960s, beginning with sounding rocket experiments. Over the years, it has expanded to include joint satellite missions such as Megha-Tropiques and SARAL, as well as collaboration in launch vehicle engine development. Today, the partnership is entering a new phase with projects like TRISHNA and India’s ambitious Gaganyaan human spaceflight mission.

Dr. Jitendra Singh highlighted that CNES, the French space agency, is supporting Gaganyaan through the supply of consumables and training of flight surgeons. Discussions are also underway on microgravity research and parabolic flights, which are crucial for astronaut training and health.

India-France space cooperation is as old as the two countries' respective space agencies, with the partnership progressing from sounding rocket experiments in the 1960s to present-day human spaceflight, Dr. Singh noted.

Expanding the Ecosystem

India’s space sector reforms have opened the doors for private participation, with more than 400 start-ups now engaged in rocket building, satellite development, and space applications. Dr. Singh emphasized that the next phase of cooperation should integrate governments, industries, and start-ups from both nations to create a larger ecosystem and resource pool.

Prof. Baptiste echoed this sentiment, stressing the importance of connecting research institutions and start-ups to build a stronger, future-oriented innovation ecosystem. He described TRISHNA as a “strong example of what India and France can achieve together.”

India-France Year of Innovation 2026

The partnership gains further momentum with the India-France Year of Innovation 2026, inaugurated earlier this year by Prime Minister Narendra Modi and the President of France. This initiative provides a platform to advance cooperation in emerging technologies, with upcoming events such as the Water Cycle and TRISHNA Mission outreach in Bengaluru on October 11.

Beyond Space: Ocean and Science Collaboration

The discussions also touched upon broader scientific cooperation, including biotechnology, digital sciences, and ocean sciences. Dr. Singh highlighted India’s Deep Ocean Mission as an area ripe for collaboration under the Blue Economy framework, which seeks to explore the vast scientific and resource potential of the oceans.

Looking Ahead

The meeting underscored the enduring strength of the India-France partnership, which continues to evolve with changing times. From joint satellites to human spaceflight and start-up engagement, the cooperation reflects a shared vision of advancing science and technology for mutual benefit.

As 2026 unfolds, the India-France Year of Innovation is expected to catalyze new opportunities, reinforcing the partnership as a cornerstone of international collaboration in space and science.

India’s TakeMe2Space to Launch Distributed Orbital Data Center on SpaceX Falcon 9

Two 100 kg MOI constellation satellites will use optical inter-satellite links to share data and computing workloads in orbit, advancing TakeMe2Space's roadmap towards scalable orbital data centre infrastructure

TakeMe2Space has signed a Launch Service Agreement with RIDE! Space to fly two 100 kg MOI constellation satellites on the Waymaker-2 mission, targeted for launch in late 2028 aboard a SpaceX Falcon 9. The two spacecraft will be TakeMe2Space’s first data centre-class satellites and form part of the company’s roadmap to move from single-satellite compute demonstrations to distributed orbital computing infrastructure.

The mission follows MOI-1a, scheduled to launch on 1 October 2026 on SpaceX’s Transporter-18 mission, with orbital injection expected by 8 October via a D-Orbit orbital transfer vehicle and LEOP operations targeted for completion by 16 October. MOI-1b is also scheduled to launch in 2026.

The mission will demonstrate distributed computing between spacecraft, with the two satellites using optical inter-satellite links to share data and computational workloads at high speed. It marks the next step in TakeMe2Space's development of space-based compute infrastructure, moving from computing onboard individual satellites towards a networked architecture in which multiple spacecraft can work together.

Each satellite is expected to generate and handle about 1.5 kW of power, host 10 Nvidia Thor GPUs and 100 TB of onboard storage, and carry a multispectral imager with approximately 1 m ground sampling distance. The pair will be linked by optical inter-satellite links, making this the first Indian mission designed to network computing across spacecraft rather than run it on a single satellite.

The two satellites will serve as technology demonstrators for the next generation of orbital data centre-class spacecraft. Their primary objective is to demonstrate high-performance computing infrastructure in orbit and its practical applications, allowing computational workloads to run close to where data is generated instead of transmitting large volumes of raw data to ground stations for processing.

The first application will be Earth observation. Each satellite will carry a multispectral imager with approximately 1 m ground sampling distance (GSD), while TakeMe2Space's OrbitLab platform will provide the onboard computing infrastructure to process and analyse imagery directly in orbit.

Workloads running onboard will process imagery and extract relevant information before downlink, demonstrating near-real-time Earth-observation analytics, intelligent image processing, data reduction and selective downlinking. Instead of relying on the transmission of large volumes of raw imagery for processing on Earth, the satellites will demonstrate how useful information can be generated closer to where the data is collected.

The two spacecraft will also carry technologies required to scale orbital computing towards future data centre-class infrastructure. These include high-performance onboard computing, 10 Nvidia Thor GPUs, 100 TB of onboard storage, power systems generating and handling approximately 1.5 kW per satellite, high-performance thermal management and optical inter-satellite links.

The optical links are a key part of the mission. They will allow data and workloads to move between the two spacecraft at high speed, demonstrating how standalone orbital computing platforms can evolve into distributed computing infrastructure across a constellation.

The power system will use silicon solar cells rather than gallium arsenide cells, which are commonly used in spacecraft. Silicon cells cost a fraction of gallium arsenide cells, and the choice is aimed at reducing the cost of each satellite, which can flow through to lower pricing for customers running workloads on the platform.

"Everything we have flown so far has been about proving that compute belongs in orbit. These two satellites take that further by demonstrating how compute and data can move between spacecraft. The ability for satellites to work together, rather than operate as isolated computing platforms, is fundamental to building scalable orbital data centre infrastructure," said Ronak Kumar Samantray, Founder and CEO, TakeMe2Space.

The mission will also demonstrate fine-pointing and precision attitude control through an indigenous attitude determination and control system (ADCS) architecture built on domestically developed reaction wheels, star trackers, fine sun sensors and other critical components. This includes StarSense, the star tracker TakeMe2Space introduced in June with support from IN-SPACe’s Technology Adoption Fund. The architecture is designed to meet the pointing requirements of both the imaging payload and future compute-intensive applications.

Waymaker-2 is the second mission under the Waymaker dedicated rideshare programme operated by SEOPS and is scheduled to fly aboard a SpaceX Falcon 9 to a sun-synchronous orbit at approximately 500 km. TakeMe2Space secured its slot on the mission through RIDE! Space, the Paris-based launch mission management company.

"TakeMe2Space is bringing a new class of payload to rideshare, one defined as much by what it computes as by what it carries. Supporting two 100 kg spacecraft with demanding power, pointing and inter-satellite communication requirements demonstrates the kind of complex missions the Waymaker platform is designed to enable," said Valentin Benoit, CEO, RIDE! Space.

The Waymaker-2 mission forms part of TakeMe2Space's broader roadmap towards scalable orbital computing infrastructure. OrbitLab is designed to allow computational workloads to execute directly aboard satellites, enabling spacecraft to process and analyse information rather than function primarily as data-collection platforms.

By combining high-performance onboard computing with Earth-observation payloads and high-speed links between spacecraft, the mission will test a critical element of that roadmap: whether computing workloads and data can be distributed across multiple satellites as part of a shared orbital infrastructure.

Globally, several players have already launched orbital compute nodes. TakeMe2Space’s 2028 mission is unique because it will be India’s first to demonstrate distributed orbital computing across multiple satellites using optical inter‑satellite links.

In January this year, Axiom Space launched the first two orbital data center nodes into low Earth orbit, enabling AI/ML processing and secure data handling via Kepler Communications’ optical relay network. These nodes marked the first operational orbital data center infrastructure.

Later on July 2026, Sophia Space + Caltech secured a U.S. patent for space‑based data centers, laying groundwork for orbital compute infrastructure but focused on architecture and IP rather than immediate deployment.

Notably, Google Project Suncatcher will began testing orbital AI compute with TPUs aboard a small satellite, in October this year, validating feasibility for future constellations.

About TakeMe2Space

TakeMe2Space (TM2Space) is a Hyderabad-based deeptech company building orbital compute infrastructure. Its OrbitLab platform enables researchers, startups and enterprises to run AI models and computational workloads aboard satellites in orbit. Its first mission, MOI-TD, launched on December 30, 2024 and ran more than 20 experiments in low Earth orbit. The company designs and manufactures satellite subsystems and test systems in-house and is working towards a constellation of compute-enabled spacecraft and scalable orbital data centre infrastructure.

About RIDE! Space

RIDE! Space is a launch mission management company based in Paris, founded in 2020. Its platform provides satellite operators access to launch capacity across launch vehicles and orbital transfer vehicles, together with mission design, contracting, regulatory, logistics and launch campaign services. RIDE! Space has partnered with SEOPS on the Waymaker rideshare programme since 2024 and is a signatory to the ESA-backed Zero Debris Charter.

Media Contacts

Srishti Vasta, +91 98670 44794

Priya, +91 63636 20273

NASA & IBM Fuse 30 Data Layers into AI Moon Map, Unlocking Lunar Future

NASA is now using artificial intelligence to study the Moon in a whole new way. Working with IBM and top universities, they’ve built the NASA‑IBM Lunar Foundation Model — one of the first open‑source AI tools made just for lunar science. It’s trained on years of data from NASA’s Lunar Reconnaissance Orbiter and is freely available online. Anyone can explore it on Hugging Face or test the full code on GitHub, opening lunar research to the world.

NASA and IBM have released an open-source Lunar Foundation Model that fuses over 30 data layers from four missions into one AI map, improving lunar mapping accuracy by up to 23% and enabling better detection of ice, craters, and volcanic features. This breakthrough is directly tied to planning future lunar bases near the Moon’s south pole.

The NASA‑IBM Lunar Foundation Model transforms decades of Moon data into a discovery engine, revealing patterns no single mission could uncover.

A 10-image mosaic captured by NASA’s Lunar Reconnaissance Orbiter's Narrow Angle Camera between June 2012 and April 2016 showing the volcanic feature Mons Rümker and its surrounding mare plains. NASA/GSFC/Arizona State University

NASA’s AI ecosystem now spans Earth, Moon, and Sun: the Prithvi Model for geospatial Earth observation, the Lunar Foundation Model for Moon science, and the Surya Model for heliophysics. Together, they represent a “5+1” strategy to embed AI into every major science domain, enabling faster discoveries and operational applications.

Prithvi Model (Earth Observation)

• First orbital AI foundation model: Deployed aboard the ISS and South Australia’s Kanyini satellite in 2026.
• Training data: 13+ years of Harmonized Landsat & Sentinel‑2 imagery.
• Applications: Flood mapping, wildfire scar detection, crop yield prediction, land‑use monitoring.
• Strength: Performs analyses in orbit, reducing bandwidth needs by processing data before transmission.
• Open-source: Available on Hugging Face, enabling global researchers to fine‑tune for disaster response and environmental monitoring.

Lunar Foundation Model (Moon Science)

• Developed by NASA & IBM: Trained on 2M+ lunar image tiles from the Lunar Reconnaissance Orbiter.
• Capabilities:
  • Crater mapping for geological dating.
  • Ice prospectivity in permanently shadowed regions.
  • Volcanic feature detection (irregular mare patches).
  • Surface change detection (e.g., SpaceX rocket impact).
• Impact: Supports Artemis mission planning, safe landing site selection, and resource utilization for future lunar bases.

Surya Model (Heliophysics)

• Training data: 9 years of Solar Dynamics Observatory data.
• Architecture: Spatiotemporal transformer with spectral gating, designed for solar flare forecasting.
• Applications:
  • Forecasting solar flares up to 2 hours ahead.
  • Predicting solar wind speed and irradiance.
  • Tracking active regions and coronal mass ejections.
• Performance: Surpassed existing flare prediction benchmarks by 16%, offering early warnings for satellites, power grids, and aviation.
• Open-source: Hosted on Hugging Face with GitHub code, encouraging global collaboration.

Comparative Snapshot

Model	Domain	Training Data	Key Applications
Prithvi	Earth	Landsat + Sentinel‑2 (13 yrs)	Floods, crops, wildfires, land use
Lunar Foundation	Moon	LRO imagery (2M tiles)	Craters, ice, volcanic features
Surya	Sun	SDO (9 yrs, multi‑wavelength)	Solar flares, winds, irradiance

What the Model Does

• 30 data layers: Integrated from nine instruments across four missions, including the Lunar Reconnaissance Orbiter and GRAIL.
• Multimodal AI system: Combines thermal, topographic, gravitational, and multispectral data into one unified map.
• Accuracy gains: Ice prospectivity 22% reduction in error; crater detection 19% higher accuracy at 100m resolution using half the training data; volcanic mapping 3% improvement.

Built mainly on data from NASA’s Lunar Reconnaissance Orbiter, the model is freely available on Hugging Face, with its full codebase open on GitHub for anyone to test and experiment.

Why It Matters

• Lunar ice: Crucial for water, oxygen, and rocket fuel production. Permanently shadowed craters near the poles are prime targets.
• Safer landings: AI helps identify stable terrain for Artemis missions and future bases.
• Geological insights: Crater and volcanic mapping deepens understanding of the Moon’s history.
• Open-source availability: Released via Hugging Face and GitHub, enabling universities, startups, and smaller space agencies to build on it.

Key Comparisons

Feature	Improvement vs Baseline	Impact
Ice prospectivity	22% RMSE reduction	Better targeting of polar ice deposits
Crater detection	+19% accuracy, +19% mAP	Safer landing site selection
Volcanic mapping	+3% IoU	Improved geological history analysis
Training efficiency	Half the data needed	Accessible for smaller research teams

Challenges Ahead

• Domain shift: AI must adapt across different orbital sensors.
• Shadowed regions: Extremely cold, dark craters remain hard to study.
• Validation: Ground truth data from future missions is still needed.

Context for India

This development complements India’s Space Vision 2047, where AI-driven exploration is central to lunar resource utilization and base planning. It also parallels ISRO-backed projects like CraterMorpho, showing how global collaborations are converging on AI-powered planetary science.

Pixxel’s $100M Boost Fuels Hyperspectral Satellite Revolution

Image ~ Pixxel.com

Pixxel, the Google-backed Indian space-tech startup, has raised $100 million in a Series C round led by Temasek and Seraphim, marking India’s largest-ever private space-tech funding. This brings Pixxel’s total capital raised to $195 million and values the company between $400–500 million.

The $100M raise stands as India’s largest-ever space-tech funding round, underscoring Pixxel’s transition into its next growth phase as it expands across the entire space-tech value chain.

The fundraise arrives amid strong tailwinds for Pixxel. In just two years, the company has deployed six Firefly satellites to build the world’s highest-resolution commercial hyperspectral constellation, launched its Aurora Earth intelligence platform, and secured contracts with NASA and the NRO. It has also triumphed in multiple iDEX challenges from India’s Ministry of Defence, unveiled an orbital data-centre demonstration satellite, and been chosen to spearhead India’s first public-private Earth observation constellation of 12 satellites under IN-SPACe.

Key Funding Details

• Round size: $100 million (Series C)
• Lead investors: Temasek (Singapore) and Seraphim (UK)
• Other participants: Radical Ventures, growX Ventures, 360 ONE Asset, IMM Investment
• Total funding to date: $195 million
• Valuation: Estimated between $400–500 million

Strategic Expansion Plans

• Satellite Fleet Growth: Expansion of the Firefly hyperspectral constellation, upcoming Honeybee satellites, and sub-metre resolution satellites.
• Aurora Platform: Scaling its Earth intelligence software, which integrates satellite data with AI for actionable insights.
• Planetary Infrastructure Vision: Combining sensors, satellites, and AI to create a “health monitor for the planet.”

Why This Matters

• Largest space-tech fundraise in India: Positions Pixxel as the most well-funded Indian space startup, surpassing peers like Skyroot Aerospace.
• Global relevance: Hyperspectral imaging provides data beyond conventional satellite imagery, useful for climate monitoring, agriculture, defence, and resource management.
• Sovereign capability: Nations can leverage Pixxel’s systems for independent space missions and intelligence.

Comparison with Peers

Pixxel	Skyroot Aerospace
$195M total funding	$160M total funding
Focus: Hyperspectral satellites + AI Earth intelligence	Focus: Launch vehicles (rockets)
Valuation: $400–500M	Valuation: $1.1B (unicorn)
Backers: Temasek, Seraphim, Google	Backers: GIC, Lenskart’s Peyush Bansal

Challenges Ahead 

• Capital intensity: Satellite manufacturing and launches require sustained funding.
• Global competition: Rivals like Planet Labs and Satellogic already dominate hyperspectral imaging.
• Regulatory hurdles: India’s evolving private space policy could affect timelines and sovereign contracts.
• Execution risk: Scaling Aurora software and satellite fleets simultaneously is complex.

Finland’s SpaceTech Firm ICEYE Launches Indian Subsidiary to Deliver Sovereign SAR Intelligence and Boost Local Satellite Manufacturing

Finnish space technology company, ICEYE, has formally established its Indian subsidiary, ICEYE India, headquartered in New Delhi, to provide sovereign Synthetic Aperture Radar (SAR) intelligence and build local satellite manufacturing capabilities. This move directly supports India’s defence, surveillance, and Aatmanirbhar Bharat goals.

SAR can penetrate clouds, fog, and darkness, unlike optical satellites and delivers imagery as fine as 25 cm to 16 cm, supporting defence and disaster response. A "Sovereign SAR" means that the governments can own and operate SAR constellations for independent surveillance. ICEYE offers sovereign SAR systems to governments, enabling them to operate independent constellations

Best known for operating the world’s largest constellation of Synthetic Aperture Radar (SAR) satellites, ICEYE pioneered miniaturized SAR satellites under 100 kg, making radar imaging more cost-effective and scalable.

Key Highlights of ICEYE India

• Subsidiary launch date: August 24, 2026
• Location: New Delhi, India
• Immediate priority: Supporting India’s defence and intelligence customers with advanced SAR-based intelligence solutions
• Strategic alignment: Strengthens India’s sovereign intelligence capability and aligns with Aatmanirbhar Bharat
• CEO statement: Rafal Modrzewski emphasized “real engineering and manufacturing capability on the ground” in collaboration with government and local partners

Why SAR Technology Matters

• All-weather capability: Unlike optical satellites, SAR can capture imagery day or night, through clouds and vegetation
• Applications: Defence surveillance, environmental monitoring, disaster management, and insurance risk assessment
• Resolution: ICEYE’s SAR satellites deliver imagery with resolutions as fine as 16 cm, enabling persistent situational awareness

Strategic Importance for India

• Defence & Intelligence: Enhances India’s ability to monitor adversarial activity and secure borders
• Domestic Manufacturing: ICEYE India will build local production capacity, sourcing components from Indian suppliers and employing local engineering talent
• FDI Policy Fit: India allows up to 74% automatic foreign direct investment (FDI) in satellite manufacturing, facilitating ICEYE’s entry
• Global Context: ICEYE has supplied sovereign SAR systems to countries like Poland and tactical imagery to Ukraine, showcasing its credibility in defence partnerships

Risks & Considerations

• Technology Transfer: Success depends on how much ICEYE shares proprietary SAR technology with Indian partners
• Geopolitical Sensitivity: SAR intelligence is critical for military operations; balancing foreign ownership with sovereignty will be closely watched
• Competition: India’s own space ecosystem (ISRO, private startups) may compete or collaborate with ICEYE India

Quick Comparison: SAR vs Optical Satellites

SAR Satellites	Optical Satellites
Operate day/night, all weather	Limited by daylight & clear skies
Penetrates clouds & vegetation	Blocked by clouds, fog, or smoke
High revisit frequency	Lower revisit frequency
Useful for defence & disaster monitoring	Useful for mapping & visual imagery

About ICEYE 

Founded in 2014, by Rafał Modrzewski (CEO) and Pekka Laurila (CSO), ICEYE is headquartered in Espoo, Finland, with offices in Poland, Spain, Germany, UK, US, Greece, Japan, UAE, and Australia.

In 2019, ICEYE was recognized with the Finnish Engineering Award (2019) for breakthroughs in SAR miniaturization.

ICEYE sold SAR satellites to Brazil’s Air Force on 2020 and provided tactical imagery to Ukraine during the 2022 war. ICEYE signed a €200 million deal with Poland in 2025 for radar satellites and ground infrastructure.

ICEYE has positioned itself as a critical player in global defence and disaster intelligence, with its SAR constellation offering unmatched revisit times and imaging quality.

India’s Rocket Launch Cost Nearly 4X Higher Than SpaceX’s ₹3.1 Lakh/Kg

India currently has the world’s highest satellite launch cost at about $13,302 per kg, nearly four times the U.S. average of $3,225 per kg. This figure reflects structural challenges in India’s space sector, despite its reputation for frugal mission budgets.

India’s satellite launch cost figure of $13,302/kg (≈₹12.8 lakh/kg) is calculated by dividing the total launch expenditure of ISRO’s rockets by their payload capacity. This has been reported in comparative studies of global launch economics, highlighting India’s low launch frequency and lack of reusability as key drivers.

Notably, India’s private satellite launch ecosystem is booming, led by startups like Skyroot Aerospace, Agnikul Cosmos, Bellatrix Aerospace, Pixxel, Dhruva Space, and Digantara — each tackling different parts of the launch and satellite value chain. These firms are backed by government reforms (IN‑SPACe), venture capital, and ISRO partnerships, positioning India as a competitive player in the global space economy.

Global Launch Cost Comparison (2025–26)

Country/Provider	Cost per kg (USD)	Key Factors
India (ISRO/NSIL)	$13,302	Low launch frequency, smaller non-reusable rockets
United States (SpaceX, ULA)	$3,225	High cadence, reusable Falcon 9
Europe (Arianespace)	$9,897	Ariane 6, limited reusability
Russia	$6,682	Soyuz, Proton, moderate cadence
China	$5,809	Long March series, 50+ launches/year
Japan	$5,287	H-IIA/H3, smaller payloads

Why India’s Costs Are So High

• Low launch frequency: Only 5 launches in 2025 compared to SpaceX’s 120+.
• Smaller payload capacity: LVM3 ~10,000 kg vs Falcon 9 ~22,800 kg.
• No large-scale reusability: ISRO relies on expendable PSLV/LVM3 rockets.
• Private sector still emerging: Skyroot’s Vikram‑1 launch cost ~$11,000 per kg.

Strategic Implications

• Global competitiveness: High costs challenge India’s 2030 market share goals.
• Private sector role: Skyroot and Agnikul expected to lower costs.
• Risk of reliance: India may depend more on SpaceX or China for heavy payloads.

India’s private launch companies are closing the gap with global leaders by innovating in modular rockets, reusable propulsion, and Earth‑observation satellites. While costs remain high today, the next 3–5 years will determine whether Skyroot, Agnikul, and Bellatrix can bring India’s per‑kg launch costs closer to SpaceX levels.

India’s private launch companies are innovating rapidly, but the next 3–5 years will decide if they can match SpaceX‑level

 costs and reliability.

Major Private Launch Companies in India

Company	Focus Area	Key Highlights
Skyroot Aerospace	Launch vehicles	Vikram rocket series; first private orbital launch (July 2026); 3D‑printed engines; ~$155M funding
Agnikul Cosmos	Modular rockets	Agnibaan small satellite launcher; Agnilet 3D‑printed engine; operates India’s first private launchpad
Bellatrix Aerospace	Propulsion + launch	Green propellants; reusable Chetak rocket; $20M funding for in‑space propulsion
Pixxel	Hyperspectral satellites	Earth‑observation constellation; $50M Series C; contracts for agriculture & climate monitoring
Dhruva Space	Satellite manufacturing	Partnered with ISRO; EO satellites; $25M Series B; focus on defense + commercial payloads
Digantara	Space debris tracking	Orbital intelligence + situational awareness; building India’s space traffic management systems
GalaxEye	SAR satellites	Developing synthetic aperture radar satellites; $18M funding; dual‑use defense + commercial
Manastu Space	Green propulsion	Eco‑friendly thrusters; $8M Series A; focus on sustainable satellite operations

Key Trends

• Funding surge: Indian spacetech startups raised $220M in 2026 alone.
• Government support: IN‑SPACe reforms and FDI liberalization enable private access to ISRO facilities.
• Commercial focus: Startups target ₹5–10 lakh/kg launch costs, aiming to undercut ISRO’s ₹12.8 lakh/kg.
• Global contracts: Pixxel and Dhruva Space already supply satellites to defense and agriculture clients worldwide.

Challenges Ahead

• Reliability: First launches often face failures; consistency is critical.
• Scale: Higher launch cadence needed to reduce per‑kg costs.
• Competition: SpaceX and China dominate with reusable rockets and lower prices.

Key Takeaway

India’s space program is known for low mission budgets, but per‑kg launch costs remain the highest globally due to low cadence and lack of reusability.

HAL-L&T’s First PSLV Slips to March 2027

India’s first industry-built PSLV, manufactured by HAL and L&T under a ₹860-crore contract, has been delayed again, with the maiden launch now expected in March 2027 instead of early 2026. This postponement marks another slip in ISRO’s push to privatize rocket production.

NewSpace India Ltd (NSIL), ISRO’s commercial arm, signed a deal in 2022 with HAL and L&T for five PSLV‑XL rockets.

The PSLV rockets being built by Hindustan Aeronautics Limited (HAL) and Larsen & Toubro (L&T) mark India’s first fully industry-manufactured launch vehicles, under a ₹860‑crore contract awarded by NewSpace India Ltd (NSIL) in 2022. This consortium is responsible for end‑to‑end production o f five PSLV‑XL units, shifting rocket manufacturing from ISRO to private industry.

It is to be noted however that the report of the PSLV postponement is currently limited to media reports, not ISRO’s press office. ISRO has issued several official press releases in August 2026, including a static test of an improved SSLV first stage (Aug 11), the India–U.S. Civil Space Joint Working Group meeting (Aug 5–6), and celebrations with NASA marking one year of the NISAR mission (Aug 4). None of these announcements mention the industry-built PSLV delay.

Key Details of the Delay

• Contract awarded in 2022: NewSpace India Ltd (NSIL), ISRO’s commercial arm, handed the project to a consortium of Hindustan Aeronautics Limited (HAL) and Larsen & Toubro (L&T).
• Scope of work: The consortium is tasked with building five PSLV-XL rockets, marking India’s first full industry-led rocket production effort.
• Original timeline: The first launch (PSLV-N1) was initially targeted for Q1 2026 after stacking began in December 2025.
• Current schedule: Launch now expected March 2027, creating a long gap between assembly and flight.

Why the Delay?

• No official reason disclosed: Neither NSIL, ISRO, HAL, nor L&T have publicly explained the latest postponement.
• Possible contributing factors:
  • Vehicle integration and testing challenges
  • Payload readiness delays
  • Range availability at Satish Dhawan Space Centre
  • Mission-level reviews and quality control

Strategic Importance

• Industrialization of PSLV: This project is a cornerstone of ISRO’s Indian Space Policy 2023, which formalized private-sector participation in launch vehicle manufacturing.
• Shift in ISRO’s focus: By outsourcing PSLV production, ISRO aims to free resources for advanced missions (crewed flights, next-gen rockets).
• Private sector ecosystem: The delay highlights the complexities of scaling private participation in India’s space sector, impacting investor confidence and commercial timelines.

PSLV-XL at a Glance

PSLV-XL	Details
Configuration	Four-stage rocket (solid + liquid alternation)
Strap-ons	Six extended solid boosters
Payload capacity	~1,750 kg to Sun-synchronous orbit
Legacy	Over 50 successful missions, ISRO’s workhorse launcher

Risks & Implications

• Commercial impact: Delays affect India’s competitiveness in the global launch market.
• Policy credibility: Slippage may slow momentum of private-sector integration.
• Operational bottlenecks: Extended timelines risk supply chain inefficiencies and cost escalations.

NASA Invites ISRO to Join Historic Moon Base Mission

NASA has formally invited ISRO to join its ambitious Moon Base program under the Artemis Accords, marking a historic expansion of India–US space cooperation. The base will be built near the lunar South Pole, with India contributing scientific expertise, technology, and data-sharing initiatives.

The U.S. Embassy in India released a press statement on August 11, 2026, confirming that NASA formally invited ISRO to join the program under the Artemis Accords.

NASA’s Moon Base program is being developed under the Artemis Accords, which already include 27 signatory nations. Besides India’s ISRO, NASA has invited and partnered with agencies such as ESA (Europe), JAXA (Japan), CSA (Canada), and others to contribute technology, science, and crewed mission support.

The Artemis Accords are a U.S.-led international agreement launched in 2020 to set principles for peaceful, transparent, and sustainable space exploration. As of July 2026, 70 nations — including India — have signed on, making it the broadest coalition for lunar and deep‑space cooperation.

NASA Invites ISRO for Moon Base Program

What the Moon Base Program Means

• Artemis Accords: Framework for peaceful, sustainable lunar exploration signed by India in 2023.
• Location: Near the lunar South Pole, chosen for water-ice deposits and long sunlight exposure.
• Goal: Establish humanity’s first permanent outpost on another celestial body, supporting science, technology, and future Mars missions.
• Phases: NASA outlined a three-phase execution plan during its “Ignition” event in March 2026.

India–US Cooperation Highlights

• NISAR Mission: Joint Earth-observation satellite launched in 2025, monitoring ecosystems and climate.
• Civil Space Joint Working Group: Ninth meeting in Bengaluru (Aug 5–6, 2026) where NASA extended the invitation.
• TRUST Initiative: Strategic technology partnership aligning with Modi–Trump 2025 joint statement.
• Commitments: Both sides reaffirmed UN COPUOS guidelines for sustainable outer space activities.

ISRO’s Role & Capabilities

• Chandrayaan-3: Successful rover landing at the Moon’s South Pole in 2023.
• Chandrayaan-4: Planned for 2027, targeting lunar sample return.
• LUPEX Mission: Joint India–Japan polar exploration (2028–2029).
• Crewed Moon Landing: ISRO aims for a human mission by 2040.

The Mission's Importance

Aspect	Significance
Scientific Data Sharing	Enhances global research on lunar geology, water-ice, and solar wind.
Human Spaceflight	Builds on ISRO’s Gaganyaan program with US collaboration.
Diplomacy	Strengthens India’s role as a cost-effective, reliable space power.
Mars Preparation	Moon Base serves as a stepping stone for future Mars missions.

Challenges & Considerations

• Technology Transfer: Sensitive areas may face restrictions; India must negotiate access.
• Funding & Resources: Large-scale lunar infrastructure requires sustained investment.
• Geopolitical Competition: China’s lunar station plans by 2035 add urgency to India–US cooperation.
• Environmental Risks: Long-term sustainability of lunar activities under UN guidelines is critical.

India's 20 Satellites in Crowded Orbit Face Rising Collision Threat

Representative Image

Twenty of India’s 22 active satellites are in low Earth orbit (LEO) and face heightened collision risks due to space debris crowding, the government told Parliament on August 5, 2026. ISRO has already executed 29 collision avoidance manoeuvres (CAMs) in the past 18 months to protect these assets.

ISRO executed 20 CAMs in year 2025 and 9 in year 2026, till date. Thousands of satellites (Starlink, OneWeb, etc.) crowd LEO, increasing collision probability. Over 150,000 close approach alerts were evaluated by ISRO in 2025 alone.

A CAM is a controlled manoeuvre where a satellite’s orbit is slightly altered to avoid a predicted collision.A trigger is initiated when tracking systems (like ISRO’s MOTR radar or global alerts) detect a conjunction event — a close approach between two objects. The outcome of these CAMs is that the satellite is steered safely away from debris or another spacecraft, ensuring mission continuity.

Without CAMs, even a small debris fragment could destroy or disable a satellite. Each manoeuvre consumes fuel, shortening satellite lifespan — so CAMs are used only when risk is significant.

Key Facts from Parliament Briefing

• Satellites at risk: 20 Indian satellites in LEO (below 2,000 km altitude) are more vulnerable compared to geostationary satellites.
• Collision avoidance manoeuvres:
  • 2025: 20 CAMs executed
  • 2026 (till August): 9 CAMs executed
  • Total (last 18 months): 29 CAMs
• Tracking systems: Sriharikota MOTR radar tracks large LEO objects. Hanle optical telescope (Ladakh) under the NETRA project is nearing completion; will track objects ≥30 cm at GEO altitude.
• Policy framework: IN-SPACe is drafting guidelines on state liability and insurance for damages caused by Indian space objects.

India’s Global Role in Space Debris Mitigation

• Active participant in Inter-Agency Debris Coordination Committee (IADC), UN Long-Term Sustainability Working Group (UN-LTS), and International Astronautical Federation (IAF) debris groups.
• Contributed to revised IADC debris mitigation guidelines with technical inputs.
• Announced Debris-Free Space Mission (DFSM) in 2024, aiming for zero debris from Indian government and private missions.

Collision Risk Overview

Factor	Impact on Indian Satellites
Space debris density	LEO is the most crowded orbital zone (<2000 km).
Satellite population	20 of 22 active Indian satellites are in LEO.
Close approach alerts	ISRO evaluated 150,000+ alerts in 2025 alone.
Mitigation actions	29 CAMs executed in 18 months.
Tracking infrastructure	MOTR radar + upcoming NETRA optical telescope.

Risks & Challenges

• Collision probability rising as more satellites (including mega-constellations like Starlink and OneWeb) crowd LEO.
• Insurance & liability gaps remain unresolved; India is still finalizing its framework.
• Dependence on global alerts means India must strengthen indigenous tracking capacity.

What’s Next

• Hanle telescope completion will significantly improve India’s GEO monitoring.
• Policy adoption by IN-SPACe will clarify liability for third-party damages.
• Debris-Free Space Mission (DFSM) aims to set India apart as a responsible spacefaring nation.

TakeMe2Space's PowerBank‑50 Becomes Ist Space‑Proven Satellite Battery on Skyroot’s Vikram‑1

• Aboard Skyroot’s Historic Vikram-1, TakeMe2Space’s PowerBank-50 Becomes the First Made in India, Off the Shelf Satellite Battery to Earn Flight Heritage on a Private Indian Orbital Launch

The indigenously built, commercially available 50 Wh battery pack powered Cosmoserve Space’s experimental payload at a 450 km orbit aboard Skyroot’s Vikram-1 ‘Aagaman’, the first privately developed Indian rocket to reach orbit. With this flight, PowerBank-50 graduates from a tested product to a flight proven one, a distinction that defines the global satellite components market.

Hyderabad, India, 30 July 2026: TakeMe2Space today announced that its PowerBank-50 satellite battery pack is officially space proven, having successfully completed its first mission aboard Skyroot Aerospace’s Vikram-1 on its maiden flight, Mission ‘Aagaman’, launched from Satish Dhawan Space Centre, Sriharikota, on 18 July 2026.

The mission itself was a landmark for the nation. Vikram-1 became the first privately developed Indian rocket to reach orbit, making India only the third country in the world, after the United States and China, where a private company has achieved orbital launch capability. Riding on that historic flight, a single PowerBank-50 unit powered Cosmoserve Space’s experimental payload on the launch vehicle’s Orbital Adjustment Module (OAM) at an altitude of 450 km, performing exactly as designed through the violence of launch and the vacuum, radiation and temperature swings of space.

“Every satellite mission lives or dies by its power system, which is why nobody wants to be the first to fly a new battery. We are grateful that Cosmoserve trusted PowerBank-50 on a mission of this significance. Flying on the first private Indian rocket to reach orbit, and performing flawlessly at 450 km, is the strongest validation a product can earn. PowerBank-50 is now space proven, made in India, and ready for every satellite builder in the world,” said Ronak Kumar Samantray, Founder and CEO, TakeMe2Space.

Why “space proven” is the credential that matters

In the satellite industry, flight heritage is the hardest credential to earn and the first question every buyer asks. Satellite builders, launch providers and insurers are deeply reluctant to fly components that have never flown, because a single subsystem failure can end a multi crore mission. This creates a well known barrier for new suppliers: you cannot get heritage without flying, and you cannot fly without heritage. PowerBank-50 has now broken through that barrier.

The bar is highest of all for batteries. Batteries are among the most safety scrutinised components on any rocket, since they must survive intense launch vibration and shock, then operate reliably in vacuum through extreme hot and cold cycles every orbit. On this mission, PowerBank-50 validated its entire chain in the real environment: its high energy density lithium ion cells, its intelligent battery management system, its cell heaters and its aluminium flight enclosure. The product has moved from qualified on the ground to proven in orbit, the highest level of technology readiness.

For India’s fast growing small satellite ecosystem, this milestone means builders no longer need to depend on imported, long lead time battery packs to de-risk their missions. A flight proven power system is now designed, built and available off the shelf in India.

What this means for everyday life

Satellites quietly run much of daily life. The weather forecast before a farmer sows a crop, the maps that guide a delivery rider, cyclone warnings on the coast, television broadcasts and crop and water surveys all depend on satellites working around the clock. And every satellite has the same weakness: for a large part of every orbit it passes through Earth’s shadow, where its solar panels go dark. In those minutes, the battery alone keeps the satellite alive. If the battery fails, the satellite dies.

Until now, Indian satellite builders mostly had to import this critical component at high cost and long waiting times. A proven, affordable battery made in India lowers the cost of building satellites, which means more Indian startups, universities and students can put satellites in orbit. More satellites mean better forecasts, sharper disaster warnings, smarter farming and wider connectivity, built in India, for India and the world.

What is new about PowerBank-50

PowerBank-50 packs more than 50 Wh of energy storage into a unit the size of a paperback and the weight of a smartphone, at 380 grams. It uses cells with among the highest energy density available for small satellites, carries its own onboard intelligence that manages, balances and reports the health of the battery to operators on the ground, and keeps itself warm through the extreme cold of orbit. Packs can be stacked to power anything from a CubeSat to a microsatellite, with a mission life of up to 5 years in low Earth orbit.

Most importantly, it is available off the shelf today at ₹1,04,900, a fraction of the cost of comparable imported packs, so any satellite builder can now buy a flight proven, made in India power system without long import lead times. Full technical specifications are available on the product page.

About TakeMe2Space

TakeMe2Space is building next-generation orbital infrastructure focused on in-space computing,

data processing, and orbital data centers. Through its MOI constellation and space-based

computing platforms, the company is developing technologies that enable data to be processed,

analyzed, and distributed directly in orbit.

Media Contact:

Srishti Vatsa +91 98670 44794 srishti@moatglobal.com

Priya M +91 6363620273 priya@moatglobal.com

Intel Launches Starfire: AI‑Powered Chip to Transform Space Computing

Intel has unveiled Starfire, its first space‑grade chip built on the advanced Intel 18A process, designed to power AI workloads directly aboard satellites and spacecraft. The processor is engineered to withstand radiation, extreme temperatures, and long missions, marking Intel’s bold entry into the aerospace computing market.

Currently, most satellites and spacecraft use  radiation‑hardened processors like BAE Systems’ RAD750 and RAD5545, but newer missions are increasingly adopting commercial off‑the‑shelf (COTS) chips such as NVIDIA Jetson Orin and ARM‑based SoCs for AI workloads. NASA and Microchip are also developing next‑generation high‑performance spaceflight computing systems.

The space computing market has long relied on BAE Systems’ RAD750 and RAD5545, with Microchip developing NASA’s next‑gen processor. Starfire is Intel’s bid to disrupt this dominance.

Starfire chip was developed under Intel Government Technologies with strong alignment to U.S. defense and aerospace programs, but it is not restricted to government use alone. While U.S. manufacturing and security programs are central, Intel has signaled broader availability for international partners once qualification is complete.

Starfire is part of Pentagon‑linked initiatives like RAMP‑C and SHIP, ensuring trusted supply chains and radiation‑hardening standards. Intel has positioned Starfire for private operators who want onboard AI inference for navigation, imaging, and scientific data processing.

Starfire is designed first for U.S. government and defense applications, but Intel intends it to be a dual‑use technology — serving both national security and commercial satellite markets worldwide. Its U.S. manufacturing under the Trusted Foundry program ensures compliance with defense standards, while its AI capabilities make it attractive for global space operators.

Key Highlights of Intel’s Starfire Chip

• Space‑grade design: Built to survive radiation, thermal cycling, and 10+ year missions in orbit.
• AI acceleration: Up to 75 TOPS of performance via a three‑tile neural processing unit.
• CPU architecture: Eight cores (4 performance + 4 efficiency) on Intel’s 18A node.
• GPU integration: Four‑core Xe GPU with 64 execution units, built on Intel 3.
• Packaging: Uses Intel’s Foveros 3D stacking for compact, resilient design.
• Variants: Low‑power (10 W, up to 45 TOPS) and Performance (35 W, up to 75 TOPS).

Key Specs from Intel Starfire Datasheet

Feature	Details
CPU	8 cores (4 performance + 4 efficiency) on Intel 18A
GPU	4 Xe cores, 64 execution units (Intel 3)
NPU	3‑tile design, up to 75 TOPS
Memory	LPDDR5 / DDR5 support
Connectivity	12 PCIe Gen4 lanes
Thermal Range	−55°C to 125°C
Mission Life	10+ years

Source - Intel 

Comparison: Starfire vs Legacy Space Chips

Chip	Performance	Process Node	AI Capability	Mission Lifespan
Intel Starfire	Up to 75 TOPS	Intel 18A (CPU/NPU), Intel 3 (GPU)	Dedicated NPU for AI inference	10+ years
BAE RAD750	110–200 MHz	150–250 nm	None	Proven on Mars rovers
BAE RAD5545	Multi‑core, higher throughput	Mature node	Limited	Long‑duration missions
NASA/Microchip Next‑Gen	100× current throughput (in development)	TBD	AI‑ready	Future missions

Strategic Impact

• National Security: Aligns with U.S. government’s emphasis on space as a defense domain.
• Commercial Satellites: Enables autonomous navigation, onboard image processing, and scientific data analysis without ground reliance.
• Market Disruption: Competes with aerospace chips like BAE’s RAD750, offering modern AI capabilities.

Challenges & Risks

• Radiation qualification pending: Validation against total ionizing dose and single‑event effects still in progress.
• Yield concerns: Intel’s 18A node may face production yield issues until 2027.
• Adoption timeline: Engineering samples ship in Q3 2026, broader deployment post‑qualification.

Bottom Line

Intel’s Starfire chip represents a major leap in space computing, bringing modern AI and high‑performance processing into orbit. If radiation testing succeeds, it could redefine how satellites and spacecraft handle data, shifting from ground‑based reliance to autonomous, onboard intelligence.

Grahaa Space’s SOLARAS Completes Mission SIDDHI, Validates India’s Indigenous Stackable Nanosatellite Platform in Orbit

Grahaa Space, a spacetech startup building Earth observation nanosatellites and geospatial intelligence solutions, today announced the successful completion of Mission SIDDHI, with its technology demonstration nanosatellite SOLARAS achieving all planned objectives in low earth orbit (LEO).

SOLARAS successfully transmitted telemetry signals confirming healthy spacecraft operation, and it has been well received and verified by the SSPACE - Tarang ground station at IIST - Trivandrum. Multiple amateur ground stations worldwide also received the signals across successive passes, reaffirming the satellite's in-orbit performance.

The mission validated Grahaa Space's indigenous, stackable nanosatellite bus and platform, along with its onboard systems and subsystems, under real space conditions. SOLARAS also successfully transmitted payload data—an important milestone in the company's effort to build reliable, scalable nanosatellite technologies.

Grahaa Space Team 

Ramesh Kumar V, Co-founder & CEO, Grahaa Space, said, "Mission SIDDHI is a proud milestone for our team. We set out to prove that an indigenously designed nanosatellite platform could perform successfully in orbit, and SOLARAS has done exactly that. Our hearty gratitude to the entire Skyroot Aerospace team for deploying SOLARAS into its intended orbit during its maiden mission, STIIC at IIST for their support throughout development, qualification and post launch signal verification, IN-SPACe and ISRO for their continued handholding, guidance and support. We also thank the global amateur radio community for helping validate our telemetry. This is not just the completion of one mission—it's the foundation for many more, as we are building Earth observation nanosatellite technologies from India for the world."

Mission SIDDHI marks a key step toward Grahaa Space's vision of cost-efficient, scalable nanosatellite platforms delivering near-real-time geospatial video data from LEO. The in-orbit validation of its spacecraft systems strengthens the foundation for the company's upcoming Earth observation programmes and future commercial missions.

With Mission SIDDHI complete, Grahaa Space continues to advance indigenous satellite technologies, enabling faster, flexible, application-led space missions for government, enterprise, research, and academic stakeholders.

India Now the World’s 3rd Nation With Private Orbital Launch Capability

Image via ~ Skyroot@X

India has officially become the world’s third nation—after the U.S. and China—with private orbital launch capability, thanks to Skyroot Aerospace’s successful Vikram‑1 mission. This milestone not only elevates India’s private space sector but also positions it strongly in the booming global small‑satellite launch market.

A country with private rocket launch capability can fundamentally alter its trajectory in space, economics, and geopolitics. Economically, it enables the nation to participate in the commercial satellite launch market, attracting global contracts and fostering a thriving space startup ecosystem. This drives investment, creates high‑skill jobs, and strengthens domestic manufacturing chains.

The first private orbital launch in the United States came in 2008 when SpaceX successfully flew its Falcon 1 rocket into orbit. This was the first time a privately developed, liquid‑fueled rocket reached Earth orbit, proving that commercial firms could compete with national space agencies.

China followed in 2019 when iSpace launched its Hyperbola‑1 rocket, becoming the country’s first private company to place satellites into orbit. That success validated China’s emerging private space sector and encouraged rivals like LandSpace and Galactic Energy to accelerate their own programs.

Together, these milestones marked the beginning of a new era where private companies in both nations became central players in the global launch market, paving the way for India’s entry with Skyroot Aerospace in 2026.

Geopolitically, private launchers provide strategic autonomy by reducing reliance on foreign providers, allowing faster deployment of defense satellites and enhancing national security. They also increase a nation’s influence in space geopolitics, positioning it as a partner in international collaborations rather than a dependent participant.

Technologically, private firms often pioneer innovations such as reusable rockets and advanced propulsion systems. This accelerates space innovation and produces technology spinoffs that benefit industries beyond aerospace, from energy to healthcare.

Finally, in terms of market positioning, countries with private launch capability can offer affordable space access, making them attractive to small satellite operators worldwide. This secures a share in the rapidly expanding space economy and ensures long‑term competitiveness against established players like the U.S. and China.

In essence, private launch capability transforms a nation from being a space participant into a space enabler, driving growth, innovation, and global influence simultaneously.

India’s Breakthrough: Vikram‑1 and Skyroot Aerospace

• Founded in 2018 by ex‑ISRO engineers Pawan Kumar Chandana and Naga Bharath Daka, Skyroot Aerospace became India’s first space tech unicorn.
• Investors: Sherpalo Ventures, GIC, BlackRock funds, Playbook Partners, Arkam Ventures, and Greenko Group founders. Ram Shriram (Sherpalo, Alphabet board member) also joined Skyroot’s board.
• Government support: Enabled by the Indian Space Policy 2023 and IN‑SPACe reforms, leveraging ISRO’s infrastructure.
• Vikram‑1 Rocket: 22‑metre, four‑stage launch vehicle with carbon composites and 3D‑printed engines, capable of carrying 350 kg payloads to 450 km LEO.
• Mission Aagaman (July 18, 2026): Successfully deployed multiple payloads, including commercial and symbolic ones.

Global Private Orbital Launch Landscape

Country	Key Companies	Milestones
United States	SpaceX, Rocket Lab, Firefly Aerospace	SpaceX reached orbit in 2008; Rocket Lab in 2018; Firefly in 2021
China	iSpace, LandSpace	iSpace reached orbit in 2019; LandSpace succeeded in 2023 with methane‑fueled Zhuque‑2
Japan	Interstellar Technologies	Suborbital MOMO flights; orbital attempts ongoing
South Korea	Innospace	Suborbital launches; orbital rockets in development
India	Skyroot Aerospace, Agnikul Cosmos	Vikram‑1 orbital success (2026); Agnibaan in testing

Global Rocket Launch Market & Predictions

• Market Size: Global space economy projected to grow from $8 billion (India’s current share) to $44 billion by 2033.
• Trends: Rising demand for Earth observation, communication constellations, and defense satellites.
• Reusable rockets: SpaceX, Rocket Lab, and Bellatrix in India are reducing costs.
• Government backing: Worldwide support for domestic startups to secure independent access to space.
• India’s Advantage: Lower manufacturing costs, ISRO’s infrastructure, and private innovation give India a competitive edge.

Strategic Implications

• Commercial: Opens India’s private sector to global satellite contracts.
• Geopolitical: Strengthens India’s position in Asia’s space race, balancing China’s advances.
• Innovation: Demonstrates India’s ability to achieve orbital success on first attempt, unlike SpaceX’s early failures.

Grahaa Space Successfully Deploys SOLARAS Aboard Skyroot Aerospace's Vikram-1 Mission

Grahaa Space, a spacetech company focused on developing Earth observation nanosatellites and geospatial intelligence solutions, today announced the successful deployment of SOLARAS, its technology demonstration nanosatellite, aboard Skyroot Aerospace's Vikram-1 mission, launched from the Satish Dhawan Space Centre (SDSC), Sriharikota. The achievement marks a major milestone for the company, taking Grahaa Space one step closer to enabling faster, modular and cost-effective access to space.

The mission, named SIDDHI, marks an important milestone in Grahaa Space's journey to build indigenous, stackable nanosatellite platforms that can be customized for various low earth orbit (LEO) missions. Designed and developed in India, SOLARAS has been built to validate Grahaa Space's stackable nanosatellite bus and platform, communication systems and hosted payload architecture. The mission represents the company's first in-orbit technology demonstration and lays the foundation for future Earth observation, commercial, scientific and institutional satellite missions.

The mission also carries VISWA-M, an academic research payload developed by VIT-AP University, Amaravati, showcasing the flexibility of Grahaa Space's hosted payload architecture in supporting academic, research and technology demonstration missions.

The company's long-term vision is to stream near-real-time geospatial video data that can be used for various on-ground missions.

Ramesh Kumar V, Co-founder & CEO, Grahaa Space, said: "Today is a defining moment for Grahaa Space. Watching SOLARAS successfully reach orbit is the culmination of years of engineering, perseverance and a shared vision of building world-class space technologies in India. This mission validates our indigenous nanosatellite platform and marks the beginning of an exciting new chapter for the company. We are grateful to Skyroot Aerospace for enabling this landmark mission and to our partners for their trust and collaboration. The success of SOLARAS strengthens our commitment to building scalable satellite platforms that make access to space faster, more affordable and more accessible for governments, enterprises, research institutions and the broader space ecosystem."

Following deployment, SOLARAS will undergo commissioning and in-orbit evaluation, during which Grahaa Space will assess the performance of its satellite platform and onboard systems. Insights from the mission will support the company's future missions.

With SOLARAS now in orbit, Grahaa Space continues to advance its vision of enabling faster, flexible and application-led satellite missions while strengthening India's growing private space ecosystem through indigenous satellite technologies.