AI INSPIRED Program Backs Six Space Innovators With Grants of Up To ₹1 Crore Each

India’s space sector has received a fresh boost after the Indian National Space Promotion and Authorisation Centre (IN-SPACe) selected six private-sector companies for financial support under its AI INSPIRED initiative, a scheme designed to accelerate the adoption of artificial intelligence in space technologies, Times of India reported.

Launched in February 2026 under IN-SPACe’s Seed Fund Scheme, the AI INSPIRED program has a total allocation of up to ₹6 crore. Each selected entity is eligible to receive grants of up to ₹1 crore to develop AI-driven solutions for a range of space applications.

The initiative forms part of IN-SPACe’s broader strategy to expand private participation in India’s rapidly growing space ecosystem while encouraging the development of indigenous technologies and products that can strengthen national capabilities.

Among the six selected organisations, Agnikul Cosmos will develop an edge AI-enabled vision-based terminal navigation module designed for precision landing operations. The technology is intended to improve navigation accuracy during the critical final phase of a landing manoeuvre.

Digantara has secured support for its Agentic RSO Evaluation Suite (ARES), while EON Space Labs will build an intelligent optical payload powered by FPGA-based edge AI. The project is aimed at enabling real-time space situational awareness and the detection of space debris, an increasingly important challenge as orbital activity continues to grow.

OrbitAid Aerospace will focus on machine-learning-assisted pose estimation algorithms for on-orbit servicing and refuelling missions. Such capabilities are vital for spacecraft that must approach, dock with, refuel or service other spacecraft safely and accurately.

Omnipresent Robot Technologies has been selected for an automated target recognition project that could support applications ranging from docking operations to defence-related missions.

TakeMeToSpace will work on enhancing spacecraft autonomy through an AI modernisation effort centred on Attitude Determination and Control Systems (ADCS). These systems are responsible for establishing and maintaining a spacecraft’s intended orientation in space.

In addition to the six grant recipients, IN-SPACe has chosen Foucault Private Limited and AkashaVeda Technologies for mentorship and technical assistance. While these firms will not receive seed-fund grants, they will gain access to expert guidance and opportunities to validate their technologies using IN-SPACe and ISRO facilities.

Foucault is developing an autonomous collision-avoidance system that uses AI and machine learning to help spacecraft avoid potential hazards in orbit. AkashaVeda’s project focuses on AI-driven mission management solutions covering both onboard spacecraft operations and ground-based mission control activities.

Both companies will also be considered for technology-transfer opportunities from the Department of Space, further strengthening the pathway from innovation to operational deployment.

The AI INSPIRED program reflects the increasing role of artificial intelligence across the global space industry, where AI technologies are being used to improve spacecraft autonomy, optimise mission operations, enhance navigation, monitor orbital environments and tackle the growing challenge of space debris management.

Through targeted support for emerging private-sector innovators, IN-SPACe aims to help position India as a leading developer of next-generation space technologies.

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OmSpace Completes Nose Cone Structure For Reusable Infinity One Rocket

Ahmedabad-based OmSpace Rocket & Exploration has successfully completed the nose cone structure for its reusable rocket, Infinity One, marking another significant step forward in the company's long-term Vision 2030 goals.

The achievement represents an important milestone in the development of the reusable launch vehicle, which is being designed to provide dedicated access to Low Earth Orbit for small and nano satellites. The completion of the nose cone highlights the company's continued progress in transforming engineering concepts into operational rocket hardware.

Positioned at the forward section of the rocket, the nose cone serves a critical function during flight. It is specifically engineered to protect the payload and internal systems while the vehicle travels through the atmosphere. Its aerodynamic design also helps manage airflow around the rocket and minimise drag, contributing to overall flight efficiency and performance.

By reducing aerodynamic resistance, the structure plays a central role in ensuring stable ascent conditions for both the launch vehicle and the satellite payload it carries. The component is therefore considered one of the most important structural elements of the rocket.

The latest development adds to a series of hardware milestones achieved by OmSpace as it advances the Infinity One program. The company has been steadily progressing through various stages of design, engineering, manufacturing, integration and testing as it works towards building a fully reusable launch system in India.

Infinity One is being developed as a reusable launch vehicle for the growing small-satellite market. According to the company's publicly disclosed plans, the rocket is designed to carry payloads of up to 500 kg into Low Earth Orbit while incorporating a reusable first stage intended for recovery and rapid turnaround operations.

The vehicle forms a key part of OmSpace's broader ambition to develop cost-effective and high-frequency launch capabilities. Reusability is expected to help reduce launch costs by allowing major rocket components to be recovered, inspected and prepared for future missions rather than being discarded after a single flight.

Recent developments associated with Infinity One have also included work on critical recovery systems, including landing-leg technology, as the company continues to build the infrastructure required for reusable spaceflight. The rocket is ultimately intended to support quicker mission turnaround times and enhanced operational flexibility.

OmSpace has stated that Vision 2030 remains the guiding framework behind its reusable rocket ambitions. With the successful completion of the nose cone structure, the company has taken another tangible step towards advancing indigenous launch vehicle technology and strengthening India's expanding private space sector.

As development continues, the completion of the nose cone further demonstrates OmSpace's growing in-house aerospace engineering and manufacturing capabilities, bringing Infinity One closer to future integration, validation and flight-testing activities.

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Agnikul Cosmos Targets Historic Booster Recovery With Mission-02 In 2027

Agnikul Cosmos is preparing for Mission-02, a major step in its long-term vision to develop reusable launch systems and lower the cost of access to space.

The Chennai-based space Start-Up is targeting an early to mid-2027 launch window, with the mission expected to take place during the first half of 2027.

The mission's primary objective is to demonstrate India’s first private recovery of an orbital-class rocket booster. Following stage separation, the first-stage booster is planned to execute a controlled descent before splashing down in the sea, where recovery operations will be attempted. Success would place Agnikul among a select group of organisations worldwide pursuing reusable orbital launch vehicle technology.

Mission-02 will utilise a two-stage configuration of the Agnibaan small-satellite launch vehicle. The rocket is powered by Agnikul’s proprietary Agnilet engines, which are notable for being 3D-printed semi-cryogenic propulsion systems. The vehicle has been designed to offer a high degree of customisation for small-satellite missions, a market that is expected to expand significantly over the coming years.

A key element of the mission is the planned recovery of the first-stage booster. Developing a reusable booster requires the vehicle to survive launch stresses, maintain control during descent and remain structurally intact after splashdown. Agnikul views reusability as a critical requirement for achieving sustainable and commercially viable launch operations in the future.

Beyond booster recovery, Mission-02 will also test an innovative approach to upper-stage utilisation. Instead of allowing the upper stage to burn up and become waste after completing its primary mission, Agnikul intends to convert it into an active orbital platform capable of remaining operational in space.

The company envisions the upper stage supporting a variety of functions, including hosting scientific experiments, conducting technology demonstrations and potentially contributing to future space infrastructure. This concept seeks to extract additional value from hardware that would traditionally serve only a single-use purpose.

Mission-02 is being supported by new infrastructure established by Agnikul in Chennai. The recently inaugurated Stage Testing and Inspection Facility (STIF) is designed to test complete rocket stages with integrated propulsion and avionics systems, while also supporting the inspection and qualification of stages recovered after flight.

Alongside STIF, the company has established the Pressureant Tank Realisation Overwrapping and Outfitting Facility (PROOF). The facility enables in-house production of critical pressurant tanks and composite overwrapped pressure vessels, strengthening Agnikul’s manufacturing capabilities and reducing reliance on external suppliers.

The mission follows the successful Agnibaan SOrTeD flight and forms part of Agnikul’s broader strategy to move from technology demonstration missions towards routine and repeatable commercial launch operations. The company believes that rapid reusability, repeatability and modularity will be essential for the next generation of launch providers.

If Mission-02 achieves its objectives, it would represent a significant milestone for India’s private space sector. The combination of controlled booster recovery and upper-stage repurposing could help reduce launch costs, improve operational flexibility and advance the development of more sustainable space transportation systems, while showcasing indigenous technologies developed within India’s growing commercial space ecosystem.

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Infinity One Landing-Leg Success Boosts India's Reusable Rocket Ambitions

India’s journey towards reusable launch technology has taken another notable step forward, as Ahmedabad-based OmSpace Rocket & Exploration successfully tested the landing-leg mechanism for its Infinity One reusable launch vehicle.

The achievement represents an important milestone in the company’s efforts to develop a rocket capable of recovery and reuse. The landing-leg system is designed to support the vehicle during landing, a critical requirement for safely returning and refurbishing rocket stages for future missions.

By validating this mechanism, OmSpace has moved closer to demonstrating one of the key technologies required for reusable spaceflight. Landing legs play a vital role in allowing a launch vehicle to perform a controlled vertical touchdown after completing its mission, helping to preserve valuable hardware that would otherwise be discarded.

Infinity One is being developed as a reusable launch vehicle aimed at the rapidly expanding small-satellite market. The rocket is intended to provide dedicated access to Low Earth Orbit for commercial, scientific and institutional customers seeking flexible launch opportunities.

According to the company’s stated plans, Infinity One is designed to carry payloads of up to 500 kg to Low Earth Orbit. The vehicle incorporates a reusable first stage that is intended to return to the launch site, undergo inspection and be prepared for subsequent missions, supporting a faster operational cycle and lower launch costs.

The successful landing-leg test highlights OmSpace’s determination to bring advanced launch capabilities into India’s growing private space sector. Reusability has become one of the most important trends in the global space industry because it has the potential to significantly reduce the cost of access to space while increasing launch frequency.

Recovering and reusing major rocket components can eliminate the need to manufacture an entirely new vehicle for every mission. This approach may improve operational efficiency, reduce waste and make satellite launches more affordable for a wider range of customers.

The development also reflects the broader transformation taking place within India's space ecosystem. In recent years, regulatory reforms and increased private-sector participation have encouraged a new generation of companies to pursue ambitious launch vehicle, propulsion and satellite projects alongside the country's established space programs.

India already possesses significant expertise in launch technology through the Indian Space Research Organisation, which has conducted reusable launch vehicle technology demonstrations and autonomous landing experiments. These efforts have helped establish a technological foundation that private firms are now seeking to build upon.

OmSpace has positioned Infinity One as a platform focused on rapid turnaround and dedicated satellite launches. The company has indicated that reusability could eventually support relaunch timelines measured in days rather than months, improving responsiveness for customers requiring timely access to orbit.

The successful landing-leg mechanism test therefore represents more than a single engineering accomplishment. It demonstrates steady progress towards technologies that are essential for routine rocket recovery operations and the long-term commercial viability of reusable launch systems.

Whether India becomes a major global player in reusable rocket technology will depend on continued advances in propulsion, guidance systems, recovery operations and commercial execution.

However, milestones such as OmSpace’s latest test underline the increasing capability and ambition emerging from India’s private space industry.

As companies continue to mature their technologies and attract investment, reusable launch vehicles could become an increasingly important part of India's future space economy.

The successful landing-leg test of Infinity One serves as another indication that the country is steadily moving towards a more competitive and innovation-driven presence in the global launch market.

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India’s Space Start-Ups Accelerate Drive Towards A $40 Billion Industry

India’s space sector is witnessing a profound transformation as private companies rapidly expand their presence in an industry that was historically dominated by government agencies and large public-sector institutions, Strat News Global reported.

A combination of policy reforms, growing investor confidence and stronger collaboration with the Indian Space Research Organisation (ISRO) is helping create a vibrant ecosystem that now includes more than 400 space-focused Start-Ups.

The sector’s evolution gathered pace after the Government of India opened the space value chain to private participation in 2020. That process was further strengthened through the Indian Space Policy 2023, which established a clearer framework for commercial involvement across launch services, satellite manufacturing, space-based applications and related technologies.

A key pillar of this transformation has been the creation of the Indian National Space Promotion and Authorisation Centre (IN-SPACe), which serves as a single-window body for approving private space activities and facilitating industry access to ISRO infrastructure, testing facilities and technical expertise.

The government has also introduced several measures aimed at improving access to capital. These include venture capital initiatives, technology adoption programs, seed-funding mechanisms and policy support intended to reduce barriers for emerging companies.

Another major boost came through the liberalisation of foreign direct investment rules in 2024. Under the revised framework, foreign investors can hold up to 74% ownership in satellite manufacturing activities and up to 49% in launch vehicle and spaceport ventures through the automatic route, opening fresh avenues for international capital and strategic partnerships.

India’s domestic space economy is currently valued at roughly $13 billion and is projected to expand to approximately $40 billion by 2030, highlighting the scale of opportunities emerging across the industry.

Private investment has begun reflecting this optimism. Cumulative funding into Indian space companies has reached around $600 million, while Start-Ups secured nearly $256 million during 2026 alone.

Industry forecasts suggest that venture capital and private equity investment could contribute an additional $3.5 billion over the next five years, providing much-needed support for technology development, manufacturing capacity and commercial expansion.

ISRO continues to play a central role in this growth story. Beyond its scientific and strategic missions, the organisation is increasingly functioning as an enabler for the private sector by providing technology transfers, infrastructure access and opportunities for domestic suppliers.

Its commercial arm, NewSpace India Limited (NSIL), has executed dozens of technology-transfer arrangements with industry, helping private firms gain access to technologies originally developed within the national space program.

These partnerships are enabling companies to design and manufacture launch vehicles, spacecraft systems, satellites, propulsion technologies and specialised space services that were previously unavailable to private industry.

Among the companies demonstrating these capabilities is Astrophel Aerospace, which is currently testing an indigenously developed cryogenic pump using ISRO facilities. Bellatrix Aerospace is advancing propulsion and space-mobility technologies designed to support future satellite operations and in-orbit logistics.

GalaxEye has also made progress in Earth-observation technologies through the deployment of its OptoSAR satellite, reflecting the growing sophistication of India's private satellite ecosystem.

Beyond technological innovation, these companies are expected to strengthen domestic supply chains and reduce dependence on external providers. A broader industrial base could also provide valuable resilience when launch schedules face delays or technical challenges.

Private launch firms are increasingly targeting market niches that complement ISRO’s established strengths. While the Polar Satellite Launch Vehicle has traditionally focused on medium-payload missions, emerging companies are concentrating on smaller payloads, dedicated launches and customised commercial services.

This diversification reflects rising global demand for launch flexibility, particularly from operators deploying small satellites and constellations intended for communications, Earth observation and data services.

The ambitions of India’s private space sector are closely linked to the country’s broader Space Vision 2047 strategy.

That long-term roadmap includes human spaceflight programs, the establishment of an Indian space station by 2035 and an eventual crewed lunar mission by 2040.

Although India currently accounts for only about 2% of the global space economy, which is valued at more than $620 billion, industry projections suggest the country’s market share could increase to approximately 10% within the next five to seven years.

Such growth would represent a major shift in the global competitive landscape and position India as one of the world’s leading commercial space powers.

Forecasts indicate that Indian companies could participate in as many as 45 launches annually by 2030 on behalf of international customers.

The sector is also expected to manufacture around one-third of the world’s Earth-observation satellites while significantly expanding exports of avionics, satellite communications equipment and ground-system technologies.

Despite this momentum, important challenges remain.

Launch infrastructure continues to be limited, creating bottlenecks for companies seeking timely access to launch opportunities. Long waiting periods for launch slots can affect commercial schedules and slow technology deployment.

Regulatory processes also remain a concern for many companies. Industry participants report that obtaining approvals can sometimes take close to 12 months, delaying commercialisation and increasing operational uncertainty.

Funding distribution represents another challenge. While headline investment figures are improving, capital remains concentrated among a relatively small number of firms, making it difficult for many emerging Start-Ups to secure the resources needed for growth.

India’s public investment in space remains comparatively modest as well. ISRO’s annual budget stands at roughly $1.5 billion, significantly lower than the budgets allocated to agencies such as NASA and the European Space Agency.

As the industry expands, sustained success will depend on securing repeat international business, increasing launch frequency and consistently delivering reliable satellite-based services.

India possesses several structural advantages, including a large pool of engineering talent, proven expertise in complex space missions and highly cost-effective manufacturing capabilities.

However, converting those strengths into a substantially larger share of the global market will require continued policy support, stronger infrastructure, deeper pools of private capital and sustained commercial execution across the entire ecosystem.

If those elements come together successfully, India’s rapidly growing community of space Start-Ups could become one of the principal drivers behind the country’s ambition to emerge as a major force in the global space economy over the coming decades.

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Astrophel Aerospace Tests Indigenous 5 kN Actuator For Reusable Launch Vehicle For Domestic And Global Customers

Pune-based Astrophel Aerospace has successfully completed full-load testing of its indigenously developed actuator, marking another technological milestone for the Indian space technology company.

The actuator has demonstrated the ability to handle loads of up to 5 kN and is intended for use in steering the company’s forthcoming reusable launch vehicle. Such actuators play a critical role in thrust vector control systems, enabling precise guidance and manoeuvrability during flight.

According to the company, the hardware has undergone full-load bandwidth testing, including sine sweep and step response evaluations designed to assess performance under demanding operating conditions.

The current actuator configuration delivers speeds of at least 200 mm per second, a stroke length of 60 mm and a full-load bandwidth exceeding 10 Hz, highlighting its suitability for high-performance aerospace applications.

Astrophel Aerospace plans to integrate the actuator into upcoming flight tests of its reusable rocket platform in the coming months. The development aligns with the company's broader objective of building key launch vehicle technologies in-house to improve performance, reduce costs and strengthen technological self-reliance.

Beyond its own launch programs, the company intends to commercialise the actuator and supply it to aerospace and defence customers in India and international markets. The move reflects growing opportunities for domestically developed aerospace subsystems as demand rises across both civil and military sectors.

Founded in Pune, Astrophel Aerospace is developing reusable launch vehicle technologies and has previously demonstrated capabilities in areas including propulsion systems, cryogenic subsystems and avionics. The company has focused on indigenous engineering and manufacturing to create cost-effective solutions for the rapidly expanding space sector.

By opening its actuator technology to external customers, Astrophel Aerospace aims to position itself not only as a launch vehicle developer but also as a supplier of advanced aerospace hardware capable of competing in global markets.

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Bangalore Space-Tech Firm The Guild Unveils 150-Acre Rocket Testing Facility Near Sriharikota

Bangalore-based private space technology company Ethereal Exploration Guild (The Guild) has unveiled The Anchorage, a 150-acre rocket development and testing complex in Space City, Andhra Pradesh, located around 40 km from the Satish Dhawan Space Centre (SDSC-SHAR) at Sriharikota, The Hindu reported.

The facility has been established to provide the ground infrastructure required for the development, testing, qualification, manufacturing and future operation of the company's Razor Crest Mk 1 (RCM1), a fully reusable medium-lift launch vehicle.

RCM1 is being designed with the goal of recovering and reusing both its booster and upper stage, placing it among a new generation of reusable launch systems intended to lower launch costs and improve operational efficiency.

The launch vehicle will be powered by two semi-cryogenic rocket engines. These include Pegasus, an 80 kN upper-stage engine developed for the reusable upper stage, and Stallion, a 1.2 MN gas-generator booster engine designed to support lift-off and atmospheric ascent.

According to the company, Pegasus incorporates its proprietary Full-Flow Segregated Cooling Cycle (FSCC) technology together with a dual-thrust-chamber architecture. The Guild stated that the technology was developed entirely in-house and represents a rocket engine feed cycle specifically engineered for upper-stage reusability, which it describes as a first in rocketry.

The Anchorage is intended to support every stage of hardware development, beginning with individual engine components and progressing through integrated propulsion systems to complete rocket-stage testing and qualification.

Manu J. Nair, co-founder and Chief Executive Officer of The Guild, said the facility represents a long-term investment in the capabilities needed to test, manufacture and repeatedly operate the Razor Crest MK-1 system.

He noted that achieving full reusability requires more than innovative vehicle design. It also depends on an integrated industrial ecosystem in which manufacturing, qualification, refurbishment and operational processes function together throughout the rocket's service life.

According to him, the company is developing this supporting infrastructure in parallel with the advancement of its engines and rocket stages, creating the foundations required for routine reusable launch operations.

The company said the facility has been designed around a progressive testing philosophy, enabling engineers to validate individual subsystems before moving to larger, more complex integrated systems.

Prashanth Sharma, co-founder of The Guild, explained that while engine testing establishes propulsion performance, stage qualification evaluates how engines perform when integrated with tanks, feed systems, structures, avionics and flight-control systems.

He said The Anchorage is being developed to support that development pathway, beginning with Pegasus component testing and integrated engine firings before advancing towards Stallion engine clusters and complete rocket stages.

The approach is expected to generate extensive test data for engineering validation, support hardware qualification and accelerate the maturation of the company's reusable launch vehicle programme.

The investment also reflects the growing role of India's private space sector following policy reforms that opened launch vehicle development and space transportation activities to non-government companies.

By establishing a large-scale testing and development complex close to the country's primary spaceport, The Guild aims to strengthen indigenous launch capabilities while advancing its long-term objective of fully reusable orbital launch systems.

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Aaka Space Plans India’s First Underwater Human Spaceflight Analogue Mission In Gujarat

India’s private space sector is preparing to take a new step in astronaut training and human-spaceflight research, with Aaka Space planning the country’s first underwater human spaceflight analogue mission in Gujarat, The New Indian Express reported.

The initiative is designed to recreate many of the operational, physiological and psychological conditions experienced by astronauts during space missions.

The program will be carried out in two phases.

The first phase will involve a 24-hour trial mission in a controlled environment in Gujarat during December.

A second and more demanding phase is scheduled for March 2027 and will last 72 hours, although the final location for that mission has not yet been decided.

Aaka Space has previously conducted the Ladakh Human Analog Mission, which focused on simulating conditions associated with future human space exploration.

According to Astha Jhala, Founder and CEO of Aaka Space, the underwater mission is intended to create a high-fidelity habitat capable of reproducing a wide range of challenges linked to human spaceflight.

The effort comes as India advances towards crewed space operations through ISRO’s Gaganyaan program and longer-term habitation goals linked to the Bharatiya Antariksh Station.

As these programs progress, demand is increasing for sophisticated astronaut-training environments and research platforms capable of studying human performance in extreme conditions.

Underwater habitats are widely regarded as some of the closest Earth-based analogues to the space environment.

Within such habitats, crews must cope with isolation, confinement, dependence on engineered life-support systems, limited mobility, altered spatial orientation and operational risks.

These conditions closely resemble many of the challenges faced by astronauts aboard spacecraft and during missions in space.

The project is also expected to contribute valuable knowledge for the forthcoming Samudrayaan mission, India’s ambitious human deep-ocean exploration program.

Alongside cooperation with ISRO, Aaka Space also plans to formalise collaboration with the Indian Navy for the mission.

Research from underwater habitat programs worldwide has shown that confined environments can significantly affect cardiovascular health, respiratory responses, fatigue levels, stress, sleep patterns and cognitive performance.

Such effects can become more pronounced when atmospheric parameters, including carbon dioxide concentrations, are not carefully managed within enclosed habitats.

The mission will therefore provide an opportunity to study both human adaptation and habitat performance under demanding operational conditions.

By integrating underwater engineering with human-spaceflight analogue research, Aaka Space aims to support the development of advanced extreme-environment research infrastructure in India.

The initiative also reflects a broader international trend in which underwater habitats are used to prepare astronauts for future long-duration missions to low-Earth orbit, the Moon and eventually Mars, helping improve crew readiness, operational procedures and life-support technologies before they are deployed in space.

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US Start-Up Partners With Skyroot To Launch Sunlight-Reflecting Satellites Into Orbit

In a rather unusual business deal, a US start-up has selected India's Skyroot Aerospace for two dedicated launches of satellites designed to reflect sunlight towards selected locations on Earth after dark, India Today reported.

The agreement will see Skyroot deploy Reflect Orbital's future spacecraft aboard its Vikram launch vehicles, providing the American company with dedicated access to India's growing commercial launch sector.

Reflect Orbital is developing satellites equipped with large reflective mirrors capable of redirecting sunlight from orbit to specific areas on the ground. The concept is intended to provide additional illumination after sunset without requiring new terrestrial lighting infrastructure.

The company believes the technology could support emergency search-and-rescue missions, construction activities and other operations requiring temporary illumination in remote locations.

Another proposed application involves solar farms. By directing sunlight towards solar installations beyond normal daylight hours, the company hopes to extend electricity generation periods. However, the practical effectiveness and energy benefits of the system remain to be demonstrated through operational deployments.

The concept has also attracted scrutiny over potential light pollution and its impact on astronomical observations. Reflect Orbital has stated that it intends to work with astronomers, regulators and local communities to address concerns surrounding dark-sky preservation and environmental effects.

Although the launch agreement has now been announced, the service itself is not yet operational. Reflect Orbital must first manufacture, launch and validate its spacecraft before demonstrating the technology under real-world conditions.

Neither company has disclosed launch dates, mission schedules or financial details relating to the agreement.

Founded in 2018, Skyroot Aerospace has become one of India's leading private space companies through the development of launch vehicles tailored to the rapidly expanding small-satellite market.

The company's profile rose significantly following the successful orbital mission of its Vikram-1 rocket from Sriharikota on 18 July 2026. The achievement made Skyroot the first Indian private company to place an orbital-class rocket into space from Indian soil.

Following that milestone, Skyroot has intensified efforts to attract international customers and expand its commercial launch business. The Reflect Orbital agreement follows another international mission secured by the company for German aerospace customer DCubed.

The partnership highlights growing international confidence in India's private launch capabilities while providing Reflect Orbital with a pathway to deploy its planned constellation of sunlight-reflecting satellites.

If successful, the project could represent one of the most unconventional commercial space applications currently under development, using orbital mirrors to deliver targeted illumination to Earth after sunset while testing the balance between technological innovation and environmental considerations.

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From Manholes To Orbit: Genrobotics Wins ISRO Contract For Advanced Space Robotics

Keralam-based Genrobotics Innovations has secured a contract from the Indian Space Research Organisation's U R Rao Satellite Centre (URSC), marking its entry into space robotics and advanced aerospace engineering, Economic Times reported.

The award represents a major milestone in the company's evolution from solving hazardous underground sanitation challenges to developing technology for satellite missions.

Under the contract, Genrobotics will design and develop a high-precision articulated boom arm system for ISRO satellites. The project includes creating an indigenous mechanism for reflector deployment and pointing on satellite decks.

The company's Space & Advanced Robotics division will build a multi-link articulated boom arm capable of withstanding launch stresses as well as the extreme thermal and vacuum conditions encountered in space.

The system is intended to deliver accurate positioning and orientation of space-borne communication reflectors and payload instruments, supporting the performance and reliability of future satellite missions.

Beyond its technological significance, the project highlights the growing strength of Keralam's deep-tech ecosystem and its ability to contribute to India's commercial space program through indigenous design, engineering and manufacturing capabilities.

Founded in 2017, Genrobotics first gained national and international recognition through Bandicoot, the world's first robotic system developed to eliminate manual scavenging and improve the safety and dignity of sanitation workers.

Its experience building robots for toxic, confined and corrosive environments enabled the company to develop expertise in advanced actuator control, materials engineering, precision motion systems and artificial intelligence-driven robotics.

Genrobotics subsequently expanded into healthcare, heavy industry and defence. Its portfolio includes G-Gaiter, a robotic rehabilitation platform, and GENBOT, a heavy-duty robotic system designed for defence, oil and gas, and industrial applications.

The company has also incorporated Physical AI and reinforcement learning into its robotic platforms to improve adaptability, motion control and operational precision, helping it expand into international markets including the UAE, South Africa, Singapore and Malaysia.

Genrobotics has established strategic relationships with global organisations, including South African defence technology firm Armscor, while also engaging with space-sector stakeholders such as the Dubai Space Agency. The company is additionally strengthening its space and advanced robotics capabilities through dedicated research and manufacturing infrastructure in Thiruvananthapuram.

Co-founder and Chief Executive Officer Vimal Govind M K said the company's engineering foundation was built through developing robotic systems capable of operating in corrosive environments, under high torque and extreme stress conditions. He described the move into space mechanisms as a natural progression and said ISRO's confidence validates the capabilities developed by the firm over the years.

Co-founder and Chief Technology Officer Jaleesh P noted that across every sector entered by the company, its robotic platforms have been engineered for applications where precision, dependability and mission-critical performance are essential, and where failure is not an option.

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Rocket Launch Bottlenecks Propel Space Economy Towards Record $100 Billion Milestone

Global investment in the space economy is on course to exceed $100 billion for the first time in 2026, marking a historic milestone for the sector.

According to Space Capital, investment reached $92.5 billion during the first nine months of the year, already surpassing the previous full-year record established in 2025.

The investment surge reflects a combination of tightening rocket launch availability, increasing government demand and a growing determination among nations to develop independent access to space rather than rely on established providers.

Space Capital noted that the commercial space industry is entering a new phase, with access to launch services becoming significantly more competitive. The long-held assumption that satellite operators could secure a launch aboard a SpaceX Falcon-9 whenever required is no longer considered reliable.

A key factor behind this shift is the growing shortage of launch capacity. SpaceX has reportedly stopped accepting rideshare reservations beyond late 2028, creating uncertainty for satellite operators that previously depended on shared-launch opportunities to reduce costs.

As a result, investors are directing substantial capital towards alternative launch providers. Pure Launch secured $7.8 billion in funding during 2026, while Stoke Space raised $1 billion in a Series E round to accelerate development of its Nova rocket. Blue Origin also raised external funding for the first time in its 26-year history, with investor demand exceeding the amount available in the round.

The competition to establish new launch capabilities is becoming increasingly international. During the quarter, China successfully recovered a Long March 10B booster at sea and achieved a landing with its Zhuque-3 rocket. India's Skyroot became the country's first private company to place a rocket into orbit, while Isar Aerospace became the first commercial rocket business to reach orbit from Western European territory.

Europe emerged as one of the biggest beneficiaries of the changing investment landscape. The region attracted $6.3 billion in space-related investment during the third quarter, setting a record for a second consecutive quarter. Europe accounted for 28 per cent of global space investment, its highest share since 2019.

European space companies raised $13.5 billion during the first nine months of 2026, already exceeding every previous annual total and underlining growing investor confidence in the continent's expanding launch and satellite capabilities.

Governments are also playing a more influential role in shaping the market. Rather than acting solely as regulators or customers, many are becoming anchor clients for commercial space ventures as national security, communications resilience and sovereign access to orbit rise in strategic importance.

The report suggests a broader transformation is under way. Countries that previously leased access to launch infrastructure are increasingly investing in domestic capabilities, reflecting concerns over supply constraints, geopolitical uncertainty and long-term technological independence.

Taken together, these trends indicate that access to orbit is evolving from a commercial service into a strategic asset. The industry is becoming less dependent on a single launch provider and more diversified, with new competitors, stronger regional ecosystems and growing public-sector involvement reshaping the global space economy.

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India's Space Servicing Leap: OrbitAID Targets Autonomous Refuelling And Docking Breakthrough In 2027

OrbitAID is preparing for a major advance in India's space technology capabilities with the planned launch of its AayulSAT-2A and AayulSAT-2B mission in February 2027. The mission is designed to demonstrate autonomous satellite servicing operations in orbit, including rendezvous, docking, refuelling and orbital manoeuvring.

The two spacecraft, each weighing about 70 kg, will be deployed together in Low Earth Orbit before carrying out a series of autonomous operations. AayulSAT-2A will serve as the servicing satellite, while AayulSAT-2B will act as the target spacecraft.

A central element of the mission is OrbitAID's proprietary ARCAS docking system, which has been developed to connect with compatible satellites using a standard Launch Adapter Ring. The technology is intended to support future in-orbit servicing and life-extension missions.

The demonstration will include autonomous rendezvous and docking operations, followed by satellite refuelling through the company's SIDRP interface. The mission will validate the transfer of propellant between spacecraft, a capability regarded as critical for extending satellite lifespans and improving space sustainability.

OrbitAID also plans to demonstrate a unique "jetpack" capability. This would allow a servicing satellite to dock with spacecraft that do not possess the dedicated refuelling interface and provide orbital boosting services, effectively raising and repositioning their orbits without direct refuelling.

The mission is expected to incorporate robotic-arm-assisted servicing technologies, enabling more advanced inspection, handling and support functions for satellites operating in space.

Beyond demonstrating docking and refuelling, the spacecraft are expected to perform orbit-raising and orbital transfer manoeuvres, showcasing technologies required for future commercial satellite servicing operations.

The AayulSAT-2A and AayulSAT-2B mission represents an important step towards developing indigenous on-orbit servicing capabilities and could pave the way for future satellite servicing and refuelling programmes in Geosynchronous Orbit, where extending the operational life of high-value satellites offers significant commercial potential.

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ISRO Selects Muks Robotics' SPACEO Prime As Indigenous Humanoid Space Worker Initiative

The Indian Space Research Organisation (ISRO) has selected Muks Robotics to develop SPACEO Prime, an indigenous humanoid robot designed for space applications.

Described by the company as the world's first humanoid space worker, SPACEO Prime is being developed to extend human capability beyond Earth and support future space exploration activities in challenging environments.

The project marks a significant milestone for Muks Robotics, which has been working on the SPACEO concept since 2021 under the vision of founder Dr Mukesh Bangar. The company has long advocated the use of humanoid robots not only on Earth but also in extra-terrestrial missions.

SPACEO Prime is a bipedal humanoid platform engineered to operate autonomously in extreme conditions. The robot is being designed to assist with tasks that may be hazardous, repetitive or difficult for astronauts, helping reduce human risk during space missions.

The initiative aligns with the broader global effort to deploy advanced robotics in space operations, where humanoid systems can perform maintenance, inspection and support functions while complementing human crews.

Muks Robotics views SPACEO Prime as more than a robotic platform, describing it as the beginning of a new generation of machines intended to support humanity's expansion beyond Earth.

The development also highlights India's growing capabilities in robotics, artificial intelligence and space technology, reinforcing the country's ambition to create advanced indigenous systems for future space exploration programs.

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India’s Space Start-Ups Build On ISRO’s Legacy To Chase The Global Orbital Race

A software glitch five minutes before lift-off briefly threatened what would become a landmark achievement for India’s private space sector. Inside Skyroot Aerospace’s Infinity Campus in Hyderabad, engineers rushed between consoles after an unexpected hold interrupted the countdown to Vikram-1’s maiden launch, creating tension across the company and the wider Indian space community, Business Today reported.

The moment resonated particularly with Agnikul Cosmos Co-founder and CEO Srinath Ravichandran, who watched from Chennai and recalled his own company’s aborted launch attempts at T-129 seconds and T-11 seconds.

The pressure was amplified because the same Sriharikota launch complex had witnessed two PSLV failures within 14 months, including PSLV-C61 in May 2025 and PSLV-C62 in January 2026, both linked to Stage-III anomalies.

After the software issue was corrected, the countdown restarted from T-20. Vikram-1 lifted off successfully at 12:05 pm. Mission controllers remained cautious until critical flight milestones were achieved, including stage separation and second-stage ignition. Once these events occurred successfully, it became clear that the mission was progressing as intended.

Vikram-1 became the first privately developed Indian orbital launch vehicle to reach orbit from Indian soil. The accomplishment placed India alongside the United States and China as nations possessing private-sector orbital launch capability, with Germany later joining the group following Isar Aerospace’s successful Spectrum launch from Norway.

The success demonstrated that India’s private companies could translate decades of ISRO expertise into independently developed space hardware. The achievement rested on foundations built over more than six decades by the Indian Space Research Organisation, which evolved from the Indian National Committee for Space Research established in 1962 and formally became ISRO in 1969.

Over the years, ISRO developed launch vehicles, satellites and deep-space missions while creating an industrial network of more than 500 suppliers concentrated around Bangalore, Hyderabad, Ahmedabad, Thiruvananthapuram and Sriharikota. According to ISRO estimates, approximately 80-85% of launch vehicle inputs come from this supplier ecosystem.

Most suppliers operated under a build-to-print model, manufacturing components to ISRO specifications. While this created world-class manufacturing discipline, it did not necessarily generate expertise in mission architecture, advanced software, complex systems engineering or original technology development. As a result, new spacetech firms had to determine which capabilities could be inherited and which needed to be developed independently.

For companies such as Dhruva Space, India’s industrial base offered significant manufacturing advantages. Founder Sanjay Nekkanti argued that many of the essential ingredients for a thriving space industry already existed.

However, manufacturing capability alone was insufficient. Designing systems, integrating technologies and managing complete missions required specialised knowledge and experience.

That expertise often came directly from ISRO veterans. Many former scientists and engineers joined Start-Ups as founders, advisors and executives. Skyroot founders Pawan Kumar Chandana and Naga Bharath Daka are prominent examples. According to Ravichandran, many senior scientists brought the same resourceful culture that characterised ISRO in the era of APJ Abdul Kalam.

ISRO’s credibility also helped younger companies gain international trust. Pixxel founder Awais Ahmed noted that overseas customers viewed Indian firms more seriously because of ISRO’s global reputation and because many private companies worked closely with former ISRO scientists. Most importantly, India already possessed proven experience in building spacecraft and reaching orbit, giving Start-Ups a significant advantage.

A major limitation remained until 2020 because private entities had only restricted opportunities to own independent space missions. This changed when the government announced sectoral reforms under the Atmanirbhar Bharat initiative and established IN-SPACe. Shortly afterwards, the Union Cabinet approved reforms allowing private companies to design, build, own and operate rockets, satellites, launch systems and associated infrastructure.

The Indian Space Policy 2023 formally institutionalised these changes, while liberalised foreign direct investment rules introduced in 2024 allowed up to 100% foreign investment in several space segments. These measures triggered rapid expansion, with active space Start-Ups increasing from only a few dozen in 2020 to roughly 440 by 2026.

New companies emerged across nearly every segment of the space economy. Skyroot, Agnikul and Astrophel focused on launch vehicles. Bellatrix developed propulsion systems. Dhruva Space concentrated on satellites and ground infrastructure.

Pixxel built hyperspectral imaging systems. EON Space Labs specialised in electro-optical payloads, GalaxEye worked on combined optical and radar sensing, Digantara pursued space situational awareness, and Abyom SpaceTech & Defence developed reusable launch technologies and dual-use systems.

The economic opportunity is considerable. India currently operates just over 50 satellites, compared with more than 11,000 active spacecraft in the United States and more than 1,000 in China. Venture Intelligence data shows Indian spacetech investment rising from around $10 million across four deals in 2020 to approximately $275 million across 37 deals in 2025 and about $349 million across 31 deals by September 2026.

IN-SPACe aims to expand India’s space economy from about $8.4 billion to $44 billion by 2033, while the global space economy could grow from roughly $630 billion in 2023 to around $1.8 trillion by 2035.

The experience of Azista Space illustrates this transformation. Established in Hyderabad in 2014 as a manufacturer of organic foods and pharmaceuticals, the company later entered aerospace manufacturing and became an ISRO subcontractor.

Strict requirements for quality control, traceability, environmental testing, cleanroom procedures and reliability engineering eventually encouraged the company to move beyond contract manufacturing and create products for international markets.

Despite strong foundations, important gaps remain. Companies such as Astrophel continue importing specialised components, while firms like Bellatrix, Abyom, EON and Digantara have had to develop significant indigenous expertise because many required technologies did not previously exist within India.

The supplier base, talent pool, infrastructure and credibility inherited from ISRO have accelerated progress, but proprietary technologies, advanced supply chains and global-scale competitiveness must still be built. Vikram-1 proved that India’s private sector can reach orbit; the next challenge is establishing itself as a globally competitive force across the broader space economy.

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Brazil-India Space Partnership Targets New 100 Kg LEO Launch Vehicle

Concert Technologies, a member of the MLBR (Brazilian Micro-Launcher (Microlançador Brasileiro) program, has signed a Memorandum of Understanding (MoU) with Indian private aerospace company Skyroot Aerospace during the International Astronautical Congress (IAC) 2026 in Antalya, Turkey, to jointly develop a new launch vehicle capable of placing at least 100 kg into low Earth orbit (LEO), MLBR reported.

The initiative represents a significant step forward in Brazil-India space industry collaboration, bringing together technologies, expertise and industrial capabilities developed through the MLBR program and Skyroot Aerospace's launch vehicle activities.

The proposed launcher is intended to fill the capability gap between the MLBR vehicle, which is designed to carry payloads of up to 40 kg, and Skyroot Aerospace's larger Vikram family of launch vehicles.

By combining technologies and competencies from both programs, the partners aim to create a medium-capacity orbital launch solution tailored to the rapidly expanding small satellite sector.

The agreement was formalised between Concert Technologies and Skyroot Aerospace through an MoU signed on the sidelines of IAC 2026, one of the world's leading international space industry events.

The collaboration strengthens ties between the Brazilian and Indian space ecosystems while fostering closer industrial and technological cooperation between companies from both countries.

A key objective of the partnership is to address growing global demand for dedicated satellite launch services, particularly for missions targeting equatorial orbits, where geographic advantages can provide operational and performance benefits.

The project also reflects the increasing role of private-sector initiatives in expanding access to space, with both companies seeking to develop commercially competitive launch capabilities for the international market.

The partnership underscores broader efforts to enhance the global presence of Brazilian space technologies while creating new opportunities for innovation, investment and market access through international cooperation.

An industry-led initiative designed to expand access to space and strengthen the position of Brazilian space technology within the global marketplace.

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