Cosmoserve Unveils Hyderabad Facility for Space Debris Removal and Satellite Refueling

Cosmoserve Space, an Indian startup specializing in Active Debris Removal (ADR) technologies, has introduced Base 1 in Hyderabad. This facility is the first private and the sixth globally equipped with space vision effects and microgravity simulation. In addition to clearing space debris, the base will support satellite servicing, including in-orbit repair and refueling.

The company also announced securing $6 million in seed funding, bringing its total funding to over $9 million. Investors participating in the round include Aranya Holdings, Naandi Ventures, AUM Ventures, and Shakti VC from India, as well as the Japanese firm Rebright Partners. In July 2026, Cosmoserve is scheduled to launch its first payload, Mission Embrace, aboard the Vikram-1 rocket from Skyroot Aerospace. The next technology demonstration mission is planned for mid-2027, followed by the first commercial mission in early 2028.

This development aligns with Telangana government's broader plan to transform Hyderabad into one of the world's most accessible space centers. The state is also developing an exclusive Space City as part of the upcoming Bharat Future City.

Significance of Hyderabad for Space Innovation

D. Sridhar Babu, Minister for IT, Electronics and Communications of Telangana, noted that facilities like Cosmoserve's Base 1 demonstrate why Hyderabad leads in the country's space innovation sector. He emphasized that the region hosts over 30 space technology companies, including India's first space unicorn and several other high-growth potential firms.

Chiranjeevi Phanindra, Founder and CEO of Cosmoserve Space, stated that the base provides a full spectrum of space servicing capabilities in one location. He added that they achieved the Vikram 1 goal in just 11 months after starting work with a small team, at a cost of approximately 1 crore rupees, which is among the lowest globally. The flight hardware was developed in less than four months, beating the schedule by six months.

Infrastructure and Market Prospects

Base 1 comprises four key installations: an Orbital Rendezvous and Capture Laboratory for simulating spacecraft capture operations; a Space Robotics Innovation Lab for developing robotic capture systems; an ISO 8 cleanroom for satellite integration; and a Mission Simulation and Control Center for monitoring future flights. Phanindra specified that commercial operations will commence by mid-2028, opening access to a global market projected to reach $14.5 billion by 2030.

The funding will be directed towards supporting Base 1, technology demonstrations, and two upcoming missions. Space debris remains one of the most serious issues in the global space industry. Of approximately 28,000 satellites in orbit, nearly 10,000 are non-operational or dead. Earth's orbit is estimated to contain 68,000 debris objects smaller than 10 cm, 1.5 million fragments sized 1–2 cm, and almost 230 million fine particles ranging from 1 mm to 1 cm. Even tiny fragments pose a significant threat to operational satellites, spacecraft, and missions such as the International Space Station (ISS), given their high velocity. Around 660 collisions and explosions have been recorded in space, leading to the formation of nearly 58,000 trackable debris fragments.

As orbital congestion increases, so does the demand for space debris removal and satellite servicing. Considering the forecast of 1.3 million new satellite launches over the next decade, active debris removal and in-orbit servicing are becoming critical for ensuring the long-term sustainability of the global space economy.

Cosmoserve's Technological Edge

Phanindra stated that Cosmoserve currently procures about 60 percent of its mission components locally. The company also aims to develop more critical technologies in-house through Base 1 and strengthen domestic manufacturing capabilities. Base 1 enables the company to create the potential to maintain orbital viability for Gaganyaan, the Bharathi Antariksh station, and all subsequent satellites.

Cosmoserve has developed a patented Dual Spacecraft Architecture that moves beyond the traditional one-to-one recovery model, where a dedicated craft services a single satellite. Instead, it employs a more economical two-to-many approach. In this model, a larger Orbital Service Station acts as a logistics hub in space, transporting fuel, equipment, and spare parts, while a smaller Autonomous Servicing Vehicle travels to multiple satellites for capture, docking, diagnostics, repair, or de-orbiting. This architecture allows two spacecraft to service up to 100 satellites, potentially reducing servicing costs from around $10 million to less than $1 million per satellite. By developing these capabilities in Hyderabad, Cosmoserve aims to make orbital servicing more affordable through local production and engineering.

Future milestones for Cosmoserve include testing robotic capture systems in microgravity flight conditions, relaunching Mission Embrace, and conducting a full-scale space debris capture demonstration in 2027.

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Space technology company Cosmoserve raises $6 million in seed round

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ventureburn.comNovember 3, 24:23

Northwood raises $375 million to expand ground satellite network

Northwood Space has raised $375 million to develop its infrastructure of ground stations for satellites. The company, based in Torrance, manages a network that connects satellites with systems located on Earth.

The Series C funding round was co-led by Andreessen Horowitz and DFJ Growth. Alpine Space Ventures, Washington Harbour Partners, Stepstone Activate, and In-Q-Tel also participated in the round. According to available data, this funding values Northwood at $2 billion.

Additionally, a long-term credit facility from HSBC Innovation Banking will provide working capital and network expansion. This equity financing followed a Series B round of $100 million in January 2026. With the attracted capital, the company would be able to significantly meet the growing demand for satellite communications.

The funds will be directed towards accelerating current contracts and hiring new employees. Furthermore, Northwood plans to expand its network for commercial missions, US government missions, and space allies. Co-founder and CEO Bridget Mendler stated that the funding will help accelerate infrastructure construction, emphasizing that 'critical satellite communication is vital for the future of space missions.'

Since the previous fundraising, Northwood has achieved significant operational progress. The company has deployed six multi-orbit capable sites across two continents. It has also demonstrated geostationary control using a commercial phased array antenna, including a full-duplex link with a governmental geostationary satellite.

Northwood develops and manufactures two main antenna systems. Portal phased array antennas are used for satellite command and control operations, while high-performance Prism dishes handle payload data transmission. The company's proprietary software integrates multiple antennas into larger, efficient systems; one demonstration showed the integration of ten Portal units, which matched the reception performance of a 20-foot dish.

The company also opened an 185,000 square foot headquarters and factory in Torrance, more than quintupling production capacity. This facility is expected to support the production of hundreds of antennas annually.

This expansion comes amid the rapid growth in satellite launches. Northwood's active satellite count has increased from approximately 3,000 in 2020 to over 14,000 by the end of 2025, with thousands of additional satellites expected to launch before 2030.

However, the pace of ground infrastructure growth has not kept up. Satellite owners require reliable communication links between different orbits, such as geostationary and low Earth orbit. Northwood addresses this need through its shared infrastructure. Successful expansion depends on both manufacturing and deployment realization.

Operators can reserve network capacity without building their own ground stations. The software allows customers to search for, book, and manage satellite communication sessions. The company also provides technical support through its Mission Architects.

The Northwood team currently has over 140 people, and the staff is planned to increase by 400 over the next three years. All these vacancies will be related to RF engineering, software development, and manufacturing. Additional staffing will support operations in Torrance and Washington, D.C.

Government contracts remain an important part of the company's commercial strategy. Northwood previously secured a contract from the US Department of Defense worth nearly $50 million, supporting the modernization of the country's satellite control network. Portal antenna technology is also used in government-oriented demonstrations. The latest funding strengthens Northwood's position in the growing space infrastructure market, and its ability to manufacture equipment and operate a shared network may set its offering apart.

ventureburn.comOctober 29, 02:05

Rendezvous Robotics raises $20 million to create self-assembling spacecraft

Rendezvous Robotics has successfully raised $20 million in a re-priced seed funding round. The leaders of this round were MaC Venture Capital and Toyota Ventures. The company officially announced the funding, and this round was its first priced round.

Participants in the round also included University of Michigan Endowment, Astera, and Industrious Ventures. Existing investors, including Aurelia Foundry, ATX Venture Partners, and Mana Ventures, also participated in the financing. Rendezvous Robotics, based in Golden, Colorado, develops spacecraft capable of self-assembly.

The capital raised will be used for developing next-generation spacecraft, conducting demonstration flights, and hiring additional staff. Instead, the company plans to send elements as small autonomous 'modules.' These modules will be able to reach the rendezvous point independently, assume the required position, and dock in orbit.

Rendezvous aims to create hexagonal tiles about one meter in size, equipped with sensors and onboard processing. The modules will use electromagnetic actuation to ensure movement and self-assembly. After connection, each tile can perform various functions.

Mission operators can add tiles for computing needs, solar energy collection, propulsion systems, communication, and thermal regulation, while having the ability to add or move them as needed. This design can also support future servicing operations. Operators can replace damaged modules or change the satellite's configuration after launch. This could potentially reduce the need to build and launch an entirely new spacecraft if components fail.

This technology is based on nearly ten years of research conducted under the TESSERAE project. The original self-assembly technology was developed by Dr. Ariel Ekblau at the Massachusetts Institute of Technology. The research was subsequently advanced through the Aurelia Institute, which Ekblau founded. Earlier versions of TESSERAE have already flown on a Blue Origin New Shepard rocket and participated in two missions to the International Space Station.

The company has scheduled a campaign of parabolic flights for November 2026. These tests will verify electromagnetic actuation and mobility in microgravity conditions. A separate TESSERAE demonstration is planned for the International Space Station in December 2026. It will involve assembling 32 tiles into a three-dimensional structure in a controlled environment. Rendezvous is also preparing a special low Earth orbit demonstration, scheduled no earlier than April 2028.

During this mission, seven independently deployed space tiles will autonomously connect to form one spacecraft. These modules will then separate and assemble into a different configuration. The goal of the demonstration is to prove that spacecraft can change their physical structure without the aid of external robotic equipment.

Co-founder and CEO Joe Landon believes that this technology can enable spacecraft with more powerful energy generation and larger communication systems. The architecture will ultimately allow for missions that are difficult due to the limitations of traditional launches. MaC Venture Capital and Toyota Ventures believe that robots, modular design, and autonomous control can be a successful combination. This strategy goes against conventional ideas about how to build and launch spacecraft.

The demonstrations have helped solidify the foundations of the technology in microgravity conditions. Toyota Ventures partner Chris Absher emphasized autonomy as a fundamental part of Rendezvous's design. Michael Palank, Managing Partner at MaC Venture Capital, also supported the company's efforts to rethink spacecraft construction. However, a free demonstration is still far off, although its realization should prove the system's ability to successfully and autonomously assemble and reconfigure in real orbit, which could open up new possibilities for building and servicing massive spacecraft.

ventureburn.comOctober 22, 01:47

Optivolt raises $32 million to develop intelligent solar technologies

Optivolt has successfully raised $32 million in a Series A funding round to advance its intelligent solar technologies. The investment round was led by VXI Capital, with participation from RA Capital, Valo Ventures, and Atlas Innovate. This infusion brings the company's total raised capital to $42 million.

Optivolt was founded by Rohit Kalyandpur and develops power electronics technologies designed to boost the performance of solar panels. The company's product helps compensate for energy losses that occur when traditional panels operate in real-world conditions.

The new funding is planned to be used for expanding production capacity and entering new solar energy markets. The company has already supplied over 20,000 panels equipped with its Power Balancer technology. Optivolt's ambitions cover both residential installations and large-scale projects, including solar systems that help meet the growing electricity demands of artificial intelligence data centers.

The investments demonstrate interest in tools that improve existing renewable energy technologies. Although solar panels have become cheaper, they do not always deliver expected efficiency outside of laboratory settings. Optivolt aims to change this situation with electronics integrated into the panel.

Standard solar panels can lose output power if individual cells are affected by shading, dirt, or degradation. Under certain circumstances, one group of low-performing cells can limit the overall power output of a larger section. Furthermore, traditional bypass diodes can exclude damaged groups from the generation process.

Optivolt's Power Balancer technology solves this problem by managing energy between cell groups in real time. The system reacts to changing conditions rather than relying solely on the passive architecture of the panel. This approach aims to recover energy that traditional systems might otherwise lose.

Additionally, the technology includes monitoring and rapid shutdown features directly within the panel. According to Optivolt, this could reduce the need for separate optimizers, microinverters, and rapid shutdown devices. Fewer additional components simplify system design and installation.

With the funds secured in the Series A round, the company intends to scale up production. The company's goal is to make its technology accessible for various sizes of solar installations. Increased production capacity will help meet demand from both private consumers and large users.

The firm reports having 19 granted patents and 27 patent applications. Three certifications have been obtained for the sealed enclosure with an integrated connection block, integrated panel electronics, as well as for rapid shutdown and solar module safety.

Internal testing by Optivolt showed that panels using its technology generated up to six times more power compared to panels with external optimizers under specific shading conditions. It should be noted that this figure relates to specific test conditions and does not necessarily reflect increased performance in all installations.

The expansion of AI infrastructure increases focus on reliability and power generation. Data centers require significant amounts of energy, which opens opportunities for technologies that enhance renewable energy output. Optivolt believes its method can improve the economic efficiency of solar projects throughout their lifespan, as recovering more energy from installed panels increases generation without requiring a proportional increase in panel capacity.

VXI Capital's investment supports the company's plan to scale beyond current deployments. However, wider adoption will depend on production growth, operational performance, and economic viability for customers. The company needs to demonstrate consistent advantages across different environments and installation types.