Top Space Technology Leaders Building a Better Future Beyond Planet Earth
As commercial space matures, the definition of success is changing. Success is no longer measured only by how many satellites reach orbit. It also depends on how efficiently those satellites operate, how long they remain in service, and how responsibly they use the space environment. Meeting that challenge requires a new generation of innovation. Space technology leaders and their companies are extending satellite lifespans instead of replacing them. They are removing orbital debris before it becomes a hazard. They are developing cleaner propulsion systems, reusable launch vehicles, more resilient power systems, and new manufacturing approaches that reduce waste while improving performance. Others are using space to monitor greenhouse gas emissions, track wildfires, improve agriculture, and help communities better understand a changing climate.
At Technica, we believe the future of space depends on more than reaching orbit. It depends on building a space economy that is safer, more resilient, and sustainable for the long term. This list recognizes the founders, engineers, scientists, and executives helping make that future possible.
Our Selection Criteria
Commercial space is evolving rapidly, and many more people deserve recognition than we can include in a single article. Rather than ranking individuals by company size, funding, or social media following, we selected space technology leaders whose work is helping build a more sustainable interstellar economy. Their innovations improve how space missions are designed, operated, and sustained while creating benefits that extend beyond orbit.
The space technology leaders featured here represent a broad cross-section of the commercial space industry. Their work spans Earth observation, launch systems, propulsion, orbital servicing, manufacturing, energy, computing, and satellite infrastructure.
What unites them is impact. Each advances technologies or capabilities that make space operations safer, more resilient, and more sustainable, while many also help address challenges here on Earth. Individuals are listed alphabetically within each category.
How To Use this List
This list is organized by technology category, with leaders listed in alphabetical order within each section. Explore the categories that interest you most, whether that’s Earth observation, launch systems, propulsion, satellite servicing, space-based energy, or in-space manufacturing.
Take a few minutes to learn more about these space technology leaders by following them on LinkedIn, visiting their company websites, or watching their presentations. Together, they represent many of the people and organizations developing the technologies that are helping build a more sustainable space economy while creating benefits here on Earth.
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Orbital Debris Removal & On-Orbit Servicing
Building a more sustainable space economy requires satellites to remain productive for longer and leave orbit responsibly at the end of their missions. As Earth’s orbit becomes more crowded, extending satellite lifespans and removing obsolete spacecraft are becoming essential to protecting the infrastructure that supports communications, navigation, weather forecasting, and Earth observation.
The space technology leaders in this category are developing practical ways to inspect, repair, refuel, relocate, and safely retire spacecraft. Their work is helping transform satellites from disposable assets into long-term infrastructure that can be maintained, reused, and responsibly retired.
Trevor Bennett
Co-Founder, Starfish Space
Building a more sustainable space economy means getting more value from the satellites already in orbit. Trevor Bennett co-founded Starfish Space to extend satellite lifespans through autonomous servicing. This technology reduces the need for replacement launches while helping prevent working spacecraft from becoming orbital debris. Since its founding, the company has secured more than $150 million in funding and contracts with organizations including NASA, the U.S. Space Force, and the Space Development Agency.
Starfish’s Otter servicing vehicle uses electric propulsion and autonomous guidance software to rendezvous with satellites that were not originally designed for maintenance. It can help keep satellites in their intended orbits, extend their operational lives, and guide inactive spacecraft toward safe disposal at the end of their missions. This approach makes better use of existing space infrastructure while reducing congestion in Earth’s increasingly crowded orbital environment.
Before founding Starfish Space, Bennett worked on guidance, navigation, and control systems at NASA and Blue Origin. He holds a Ph.D. in Aerospace Engineering from the University of Colorado Boulder. Photo credit: LinkedIn
Daniel Faber
Founding CEO, Orbit Fab; Member, Board of Advisors, AmplifiedSpace
Many satellites are retired simply because they run out of fuel, even though they remain fully operational. Daniel Faber founded Orbit Fab to solve that problem by developing commercial in-space refueling infrastructure. Under his leadership, the company secured contracts with organizations including the U.S. Space Force, the Air Force Research Laboratory (AFRL), the Defense Innovation Unit (DIU), the European Space Agency (ESA), and Astroscale, helping establish orbital refueling as a critical capability for the future space economy.
Orbit Fab developed the Rapidly Attachable Fluid Transfer Interface (RAFTI), a standardized refueling port that allows fuel depots and servicing vehicles to transfer propellant to compatible satellites already in orbit. By enabling satellites to refuel instead of being replaced, the technology can extend mission lifespans, reduce replacement launches, and help shift the industry from disposable spacecraft toward reusable orbital infrastructure.
Faber served as Orbit Fab’s Founding CEO from 2018 to 2026 and now serves on the Board of Advisors at AmplifiedSpace. Photo credit: LinkedIn
Nobu Okada
Founder and CEO, Astroscale
Building a sustainable space economy depends on keeping Earth’s orbit safe and usable for future missions. Nobu Okada founded Astroscale to address this challenge, building one of the world’s leading satellite servicing companies. Since its founding, Astroscale has raised more than $448 million and secured major missions and contracts with JAXA, the U.S. Space Force, the UK Space Agency, and the European Space Agency (ESA).
Astroscale’s servicing vehicles combine sensors, autonomous navigation, magnetic docking systems, and robotic technologies to safely approach satellites that were never designed to be serviced. Once connected, they can inspect spacecraft, extend operational lifetimes, reposition satellites, or guide inactive hardware toward controlled reentry. These capabilities reduce orbital debris, lower collision risks, and help operators make better use of existing space infrastructure.
Before founding Astroscale in 2013, Okada was founder and CEO of SUGAO PTE. LTD., and in his early career, he worked at McKinsey & Company. Photo credit: LinkedIn
Luc Piguet
CEO and Co-Founder, ClearSpace
Luc Piguet co-founded ClearSpace to tackle removing large debris from orbit before it threatens active satellites and future missions. This has become one of the industry’s fastest-growing problems. Since its founding, the company has secured the European Space Agency’s landmark ClearSpace-1 mission, the world’s first mission to remove a piece of space debris from orbit, and has raised more than $37 million to advance commercial in-orbit servicing.
ClearSpace’s servicing vehicles use robotic arms, sensors, and autonomous navigation to capture objects that were not designed for servicing. After capture, the spacecraft guides the debris toward a controlled reentry. The company is also developing inspection, repair, and life-extension services that could help operators maintain satellites instead of replacing them.
Before co-founding ClearSpace in 2018, Piguet spent two decades in engineering, technology, and commercial leadership, including work at the EPFL Space Center, where the company’s concept originated. Photo credit: LinkedIn
Green & Advanced Propulsion
Propulsion determines far more than how a spacecraft reaches orbit. It influences how long it remains useful and how responsibly it operates throughout its mission. Every satellite depends on propulsion to reach its destination, maintain its orbit, avoid collisions, and eventually deorbit safely. Traditional propulsion systems often rely on hazardous fuels or designs that increase costs and limit operational flexibility.
The space technology leaders in this category are developing cleaner chemical propellants, advanced electric propulsion systems, and hybrid rocket engines that improve satellite performance while reducing environmental impact. Their work helps spacecraft use fuel more efficiently, extend mission lifespans, and safely retire at the end of their service, supporting a safer, more resilient, and more sustainable space economy.
Rohan M. Ganapathy
Co-Founder and CEO/CTO, Bellatrix Aerospace
Building a more sustainable space economy starts with propulsion systems that help satellites operate longer while reducing hazardous materials and unnecessary waste. Rohan M. Ganapathy co-founded Bellatrix Aerospace to develop cleaner, more efficient propulsion systems, helping the company secure more than $30 million in funding and commercial contracts with organizations including ISRO.
Bellatrix develops electric and green chemical propulsion systems that help satellites maneuver more efficiently throughout their missions. Its electric propulsion systems use electricity to accelerate charged particles and generate thrust, allowing satellites to change or maintain their orbits while using significantly less propellant than conventional engines.
The company also replaces hydrazine, a highly toxic rocket fuel, with safer green propellants that simplify handling while improving performance. Together, these technologies extend satellite lifespans, reduce operational risks, and support more responsible use of space. Photo credit: Forbes India
Dr. Mario Kobald
Co-Founder, Board Member and Managing Director, HyImpulse Technologies
Making space more accessible requires launch systems that are safer, more affordable, and less resource-intensive. Mario Kobald co-founded HyImpulse Technologies to commercialize hybrid rocket propulsion. He helps the company secure more than €51 million in funding and contracts with the European Space Agency (ESA) and the German Aerospace Center (DLR) to advance next-generation launch systems.
HyImpulse engines use solid paraffin wax as fuel and liquid oxygen as the oxidizer, rather than storing both propellants as liquids. Keeping the fuel and oxidizer separate reduces many of the handling and safety challenges associated with traditional rocket engines while maintaining strong performance. The approach could lower launch costs, simplify ground operations, and support more sustainable access to low Earth orbit.
Kobald co-founded HyImpulse as a spinout from DLR, where he specialized in hybrid rocket propulsion. He holds a Ph.D. in Aerospace Engineering from the University of Stuttgart. Photo credit: LinkedIn
Mark Stokes
Co-Founder and CEO, Magdrive
Satellites need efficient propulsion to avoid collisions, maintain their orbits, and support in-space servicing without carrying large amounts of fuel. Mark Stokes co-founded Magdrive to develop a new generation of electric propulsion systems that address this challenge. Since its founding, the company has raised more than $20 million and secured contracts with organizations including the UK Space Agency and the European Space Agency (ESA).
Magdrive’s plasma thrusters use electricity from onboard solar panels to convert solid metal propellant into a stream of charged particles that generates thrust. Because the system does not rely on bulky pressurized fuel tanks, it reduces spacecraft mass while allowing satellites to perform collision avoidance, orbit maintenance, rendezvous, and in-space servicing using less propellant. The result is longer mission lifespans, more efficient satellite operations, and more responsible use of the increasingly crowded space environment.
Stokes co-founded Magdrive in 2019 and holds engineering and mathematics degrees from The Open University. Photo credit: LinkedIn
Reusable & Lower-Impact Launch Systems
Getting to orbit shouldn’t require building an entirely new rocket every time. Reusable launch systems are designed to fly the same hardware multiple times, reducing material use, lowering costs, and making spaceflight more sustainable.
The space technology leaders in this category are developing launch vehicles built for rapid reuse, dedicated missions, and more efficient operations. Their work is helping reduce the environmental and economic cost of reaching orbit while supporting the growing demand for satellites that improve communications, monitor Earth’s climate, strengthen disaster response, and advance scientific research.
Dr. Andy Lapsa
Co-Founder and CEO, Stoke Space
Launching satellites more sustainably starts with reusing rockets. Dr. Andy Lapsa co-founded Stoke Space to develop fully reusable launch vehicles. Under his leadership, the company has raised more than $400 million and secured a National Security Space Launch (NSSL) Phase 3 Lane 1 contract from the U.S. Space Force.
Stoke’s Nova rocket is being designed to return both stages to Earth for inspection, refurbishment, and reuse rather than discarding hardware after a single mission. The company combines reusable rocket engines with an actively cooled metallic heat shield that protects the vehicle during reentry. Reusing the entire launch system could reduce material waste, lower launch costs, and make access to space more efficient as demand for satellites continues to grow.
Before co-founding Stoke Space in 2019, Lapsa worked as a propulsion engineer at Blue Origin, where he contributed to the BE-3, BE-3U, and BE-4 rocket engines. He holds a Ph.D. in Aerospace Engineering from the University of Michigan. Photo credit: LinkedIn
Stanislas Maximin
Founder and Executive Chairman, Latitude
As more organizations deploy small satellites, they need launch providers that can place spacecraft into precise orbits without relying on shared rides. Stanislas Maximin founded Latitude to expand Europe’s commercial launch capabilities, helping the company secure more than €50 million in funding and support from the French government and the European Space Agency (ESA).
Latitude’s Zephyr rocket is designed to provide dedicated launches for small satellites using liquid oxygen and kerosene as propellants. Unlike rideshare missions, which carry multiple payloads to a common destination, dedicated launches allow satellites to reach their intended orbits more directly. Zephyr also includes systems that help guide launch hardware out of orbit after missions are complete, reducing space debris and supporting more responsible use of the orbital environment.
Maximin also serves as president of the NewSpace Alliance, where he helps advance France’s commercial space industry. Photo credit: LinkedIn
Space-Based Energy & Power Hardware
Reliable power is one of the biggest constraints on the future of commercial space. Satellites, spacecraft, and future industries operating beyond Earth depend on dependable electricity to run continuously and complete longer, more complex missions.
The space technology leaders in this category are developing new ways to generate, store, and deliver power in space. Their work could support longer satellite missions, enable future in-space industries, and provide new sources of clean, continuous energy for both space operations and communities on Earth.
John Bucknell
Founder and CEO, Virtus Solis Technologies
Providing reliable, continuous power is one of the biggest challenges facing both future space operations and growing electricity demand on Earth. John Bucknell founded Virtus Solis Technologies to commercialize space-based solar power, helping the company secure funding through the U.S. Department of Energy’s ARPA-E program to advance the technology.
Virtus Solis is developing modular satellites that collect sunlight in orbit and convert it into microwave energy that can be safely transmitted to receiving stations on Earth. Because the satellites operate above Earth’s atmosphere, they receive sunlight almost continuously, unaffected by clouds, weather, or the day-night cycle. If successful, the system could provide a dependable source of carbon-free electricity while supporting future industries in space.
Before founding Virtus Solis, Bucknell also held engineering and leadership roles at SpaceX, General Motors, Chrysler, and Divergent Technologies. He holds over forty patents spanning propulsion, manufacturing, and energy systems. Photo credit: LinkedIn
Martin Soltau
Co-Founder and Co-CEO, Space Solar
Providing reliable renewable energy without the limitations of weather or daylight is one of the biggest challenges facing the global energy transition. Martin Soltau co-founded Space Solar to commercialize space-based solar power, helping the company secure more than £12 million in UK government funding while leading major research programs with the UK Space Agency, the UK Atomic Energy Authority (UKAEA), and a consortium of more than 20 industry and academic partners.
Space Solar’s CASSIOPeiA concept envisions large modular solar power satellites positioned in geostationary orbit, where they receive nearly continuous sunlight. The satellites convert solar energy into microwave signals and wirelessly transmit the electricity to receiving stations on Earth. Electronic steering directs the energy without moving mechanical parts, allowing the system to provide a continuous source of low-carbon electricity that complements existing renewable energy sources.
Before co-founding Space Solar in 2022, Soltau spent more than three decades in aerospace engineering and systems development, including leadership roles at Frazer-Nash Consultancy. He also helped establish the Space Energy Initiative, bringing together industry, government, and academia to advance space-based solar power as part of the United Kingdom’s long-term energy strategy. Photo credit: LinkedIn
Earth Climate & Emissions Observation
Protecting the environment begins with understanding how it is changing. Modern Earth observation satellites allow governments, researchers, businesses, and communities to monitor greenhouse gas emissions, ecosystems, infrastructure, and natural disasters with a speed and level of detail that was once impossible. These insights help organizations detect problems earlier, respond more effectively, and make better environmental decisions.
The space technology leaders in this category are developing satellite constellations and data platforms that reveal changes invisible to the human eye. Their work supports methane detection, wildfire monitoring, agriculture, disaster response, and climate risk management, demonstrating how space infrastructure can help build a more sustainable future on Earth.
Awais Ahmed
Co-Founder and CEO, Pixxel
Protecting the environment depends on understanding changes that conventional satellite imagery cannot see. Awais Ahmed co-founded Pixxel to provide that level of insight through hyperspectral imaging, helping the company raise more than $90 million and secure partnerships and contracts with organizations including NASA and the National Reconnaissance Office (NRO).
Pixxel’s satellites capture hundreds of narrow bands of light instead of the handful traditional cameras collect. This lets them identify methane leaks, monitor crop health, assess water quality, track biodiversity, and measure ecosystem changes with deeper spectral insight. By providing richer environmental data, the company helps governments, researchers, and businesses make more informed decisions about natural resources and climate.
Ahmed co-founded Pixxel in 2019 while studying engineering at BITS Pilani. Photo credit: LinkedIn
Riley Duren
Co-Founder and CEO, Carbon Mapper
Reducing greenhouse gas emissions starts with identifying exactly where they occur. Riley Duren co-founded Carbon Mapper to provide precise emissions data from space and leads a coalition that includes NASA’s Jet Propulsion Laboratory, Planet Labs, the University of Arizona, Arizona State University, and RMI. The nonprofit has also attracted more than $130 million in philanthropic funding to expand global emissions monitoring.
Carbon Mapper combines satellite and aircraft data to detect, measure, and map methane and carbon dioxide emissions from individual facilities. By pinpointing major emission sources across the energy, agriculture, waste, and mining sectors, the platform helps governments, researchers, companies, and communities identify where action is needed most. Much of the data is made publicly available, improving transparency and supporting faster emissions reductions.
Before co-founding Carbon Mapper, Duren spent more than three decades at NASA’s Jet Propulsion Laboratory, where he held senior leadership roles in Earth science, systems engineering, and climate technology. Photo credit: LinkedIn
Stéphane Germain
Founder and CEO, GHGSat
Finding methane leaks quickly can significantly reduce greenhouse gas emissions. Stéphane Germain founded GHGSat to provide facility-level emissions monitoring from space, building the world’s first commercial satellite constellation dedicated to detecting greenhouse gas emissions. Since its founding, the company has raised more than $100 million and works with governments, regulators, and major energy companies worldwide to improve emissions transparency.
GHGSat’s satellites use hyperspectral sensors that measure light in the short-wave infrared, a portion of the spectrum that lets methane be detected from orbit. This enables the company to identify small methane leaks from individual industrial facilities that many traditional monitoring systems cannot detect. By locating leaks earlier, operators can prioritize repairs, improve emissions reporting, and reduce greenhouse gas emissions using direct measurements rather than estimates.
Before founding GHGSat in 2011, Germain worked across aerospace engineering, satellite technology, and management consulting, including experience with the Canadian Space Agency and McKinsey & Company. Photo credit: LinkedIn
Dr. Martin Langer
CEO, OroraTech
Early wildfire detection can reduce environmental damage, protect communities, and improve emergency response. Dr. Martin Langer leads OroraTech, which is building a global constellation of thermal imaging satellites that provide near real-time wildfire detection. Since joining the company, OroraTech has raised more than $100 million and works with governments, emergency management agencies, and commercial customers worldwide to strengthen wildfire monitoring and climate resilience.
OroraTech’s satellites use mid-wave infrared sensors, which detect heat instead of visible light. This allows them to identify hotspots that may be difficult to detect with conventional visible-light satellite imagery, including early-stage fires.. By continuously monitoring large areas of Earth’s surface, the company helps emergency responders detect wildfires sooner, forecast their movement, and better protect people, infrastructure, and natural ecosystems.
Langer joined OroraTech in 2019 as one of the company’s earliest employees before serving as Chief Technology Officer and later CEO. He holds a Ph.D. in Aerospace Engineering from the Technical University of Munich. Photo Credit: LinkedIn
Rafal Modrzewski
Co-Founder and CEO, ICEYE
Responding quickly to natural disasters depends on having accurate information regardless of weather or time of day. Rafal Modrzewski co-founded ICEYE to provide continuous Earth observation by building one of the world’s largest commercial synthetic aperture radar (SAR) satellite constellations. Since its founding, the company has raised more than $500 million and provides Earth observation data to governments, defense organizations, insurers, and emergency responders worldwide.
ICEYE’s satellites use synthetic aperture radar, which transmits radio waves toward Earth and measures their reflections to create detailed images through clouds, smoke, and darkness. This allows emergency responders and decision-makers to monitor floods, wildfires, storms, and other environmental events in near real time. The company also designs its satellites for controlled deorbiting at the end of their missions, helping reduce space debris and support the long-term sustainability of space operations.
Before co-founding ICEYE, Modrzewski conducted pioneering research at Aalto University on miniaturizing radar satellites. Photo credit: LinkedIn
Antoine Rostand
Co-Founder and President, Kayrros
Collecting satellite data is only the first step. Turning it into actionable environmental intelligence helps governments and businesses respond more quickly to climate and energy challenges. Antoine Rostand co-founded Kayrros to combine artificial intelligence with Earth observation data, helping the company raise more than $70 million while building a platform used by governments, major energy companies, financial institutions, and international organizations.
Kayrros analyzes satellite and other data sources to monitor methane emissions, energy infrastructure, carbon emissions, and environmental events such as wildfires and flooding. Artificial intelligence allows the platform to process enormous volumes of data, identify meaningful patterns, and deliver insights that would be difficult for people to detect on their own. These capabilities help organizations improve emissions transparency, assess climate risks, and make more informed decisions about energy, infrastructure, and natural resources.
Before co-founding Kayrros, Rostand held leadership roles at Schlumberger and McKinsey & Company, where he specialized in energy, technology, and environmental strategy. Photo credit: LinkedIn
Robbie Schingler
Co-Founder and Chief Strategy Officer, Planet Labs
Understanding environmental change depends on observing the planet continuously, not just capturing isolated images. Robbie Schingler co-founded Planet Labs to make Earth observation more frequent and accessible, helping build one of the world’s largest commercial satellite fleets. Since its founding, the company has raised more than $500 million, gone public, and provides imagery and analytics to governments, researchers, businesses, and humanitarian organizations worldwide.
Planet’s satellites capture near-daily images of Earth’s landmass, creating a continuous record of changes to forests, farmland, infrastructure, water resources, and ecosystems. By comparing images over time, users can identify environmental trends, respond more quickly to natural disasters, and better understand the effects of climate change. The company has also expanded into higher-resolution and hyperspectral imaging, providing even deeper insights into environmental conditions.
Before co-founding Planet, Schingler worked at NASA, where he helped advance small satellite initiatives and open innovation programs. Photo credit: LinkedIn
In-Space Manufacturing & Orbital Industry
Some products can be manufactured more efficiently in space than on Earth. In the microgravity environment of low Earth orbit, where gravity has far less influence than it does on Earth’s surface, certain materials can form with greater precision and consistency. As commercial space infrastructure expands, companies are exploring how orbital manufacturing could improve the production of pharmaceuticals, semiconductors, advanced materials, and other high-value products.
The space technology leaders in this category are developing spacecraft that function as autonomous manufacturing facilities in orbit. Their work is helping establish a new industrial capability that could improve manufacturing on Earth while creating new opportunities for the commercial space economy.
Will Bruey
Co-Founder and CEO, Varda Space Industries
Some medicines and advanced materials may be manufactured more effectively in space than on Earth. Will Bruey co-founded Varda Space Industries to bring manufacturing into orbit, helping the company raise more than $300 million and establish partnerships with organizations including the U.S. Air Force and NASA as it pioneers commercial in-space manufacturing and product return.
Varda develops autonomous spacecraft that manufacture pharmaceutical crystals and other high-value materials in low Earth orbit, then return them safely to Earth. In microgravity, where gravity has far less influence on how materials form, certain crystals can grow more uniformly than they can on Earth. This process could improve pharmaceutical manufacturing and other advanced technologies while showing how space can become a new industrial platform rather than simply a place to conduct research.
Before co-founding Varda Space Industries in 2021, Bruey served as a lead avionics engineer at SpaceX, where he worked on the Dragon spacecraft and International Space Station resupply missions. Photo credit: LinkedIn
Joshua Western
CEO and Co-Founder, Space Forge
Some advanced materials can be manufactured more efficiently in space than on Earth. Joshua Western co-founded Space Forge to make orbital manufacturing commercially viable, helping the company raise more than $90 million and secure support from the UK Space Agency, the European Space Agency (ESA), and the U.S. Space Force.
Space Forge is developing reusable satellites that manufacture high-performance semiconductor materials in orbit, then return them safely to Earth. In microgravity, certain materials can form with greater purity than they can under Earth’s gravity, producing materials that improve the performance and energy efficiency of power electronics, telecommunications equipment, and advanced computing systems. Reusing the spacecraft for multiple missions also helps reduce the cost and environmental impact of orbital manufacturing.
Before co-founding Space Forge in 2018, Western worked across the UK space sector, focusing on commercial strategy and sustainability initiatives. Photo credit: LinkedIn
Space Policy, Norms & Traffic Intelligence
A sustainable space economy depends on more than better spacecraft. It also depends on knowing where satellites are, how they are moving, and how operators can safely share an increasingly crowded orbital environment. As thousands of new spacecraft enter orbit, even a single collision can generate debris that threatens future missions.
The space technology leaders in this category are developing the tools and frameworks that help prevent those risks. Their work improves space traffic awareness, supports coordination among satellite operators, and advances the policies and industry practices needed to preserve Earth’s orbital environment for future generations.
Melanie Stricklan
SVP, Special Programs, Vast; Co-Founder, Slingshot Aerospace
Preventing collisions begins with knowing exactly what is happening in orbit. Melanie Stricklan co-founded Slingshot Aerospace to give satellite operators a clearer picture of the increasingly crowded space environment, helping the company raise more than $130 million and secure contracts with organizations including the U.S. Space Force, NASA, and the National Oceanic and Atmospheric Administration (NOAA).
Slingshot combines data from commercial, government, and proprietary sources to create a real-time view of satellites and other objects in orbit. The platform helps operators identify potential collision risks, plan safer missions, and respond more quickly as conditions change. By improving visibility across the orbital environment, the company supports more responsible space operations and helps reduce the risk of creating additional debris.
Before co-founding Slingshot Aerospace, Stricklan served as an officer in the U.S. Air Force. She now serves as Senior Vice President of Special Programs at Vast, where she focuses on advancing the next generation of commercial space infrastructure. She also serves as Vice Chair of the Colorado Aerospace & Defense Economic Council. Photo credit: LinkedIn
