Speed and Scale:
Space Technology Trends Shaping the Future
The pace of the space industry is accelerating faster than ever. Evolving civil, commercial and national security requirements are driving technologies that can be fielded quickly and scaled effectively. These priorities are guiding investment and innovation in capabilities that:
- accelerate lunar exploration
- advance proliferated, distributed architectures
- integrate autonomy and edge AI
- deliver capabilities faster and at lower cost
Lockheed Martin accelerates outcomes by delivering faster, more affordable space capabilities that scale, leveraging ditial engineering for end-to-end mission solutions.
Space Technology Trends to Watch
What space technology trends are shaping the future? Take a closer look at the innovations that are driving advancements beyond Earth.
The journey to the Moon goes beyond scientific pursuits. It’s also about establishing a permanent human presence on the lunar surface. To achieve this endeavor, technological advancements in power, transportation and sustainable habitats will be required.
To get to the Moon and beyond, NASA’s Orion spacecraft is the only human-rated deep space exploration spacecraft. It is packed with technology such as life support systems designed for long duration missions, deep space communications and protection from cosmic and solar radiation.
Living on the Moon will require a place to do so. We are researching and developing inflatable habitats. Made from incredibly strong and super flexible materials that are sewn together, the inflatable technology expands into a large structure that provides protection from radiation and the harsh environment of space.
Nuclear space power and propulsion systems offer more efficient spacecraft travel, reduced fuel consumption and enable longer mission durations, opening the doors to expanded interplanetary travel.
Lockheed Martin is developing fission surface power (FSP) for lunar exploration, which uses a compact fission reactor to generate electricity on the surface of the Moon, supporting a sustained, long-term lunar presence.
We are also investing in nuclear electrical propulsion (NEP) and nuclear thermal propulsion (NTP) power systems for efficient space travel to the Moon, Mars and beyond.
A proliferated space network architecture uses hundreds of smaller satellites, spanning multiple orbits. Together, they form larger constellations to enable continued functionality in the face of threats or unforeseen anomalies.
Lockheed Martin’s state-of-the-art Small Satellite Processing & Delivery Center, otherwise known as the SPD Center, manufactures spacecraft quickly and efficiently. Operating six parallel assembly lines, we can produce up to 180 spacecraft per year, supporting missions with different security requirements.
The LM 400 mid-sized satellite bus offers a highly flexible platform that can be tailored to almost any mission, including remote sensing, communications, imaging, and radar. Accommodating up to 1,100 kg payloads, this bus features exceptional propulsion and optimal operability in multiple orbits.
Our military relies on secure, high-speed, low-latency connectivity for communications, positioning, navigation and timing (PNT) capabilities.
The Global Positioning System (GPS) is the most trusted space-based navigation system in the world, with over 6 billion users worldwide. Lockheed Martin’s GPS IIIF satellite will provide next-generation PNT capabilities with more than 60x greater anti-jam technology, even in the most contested environments.
Artificial intelligence (AI) and machine learning (ML) is being integrated into space systems, both on orbit and in ground-based command and control stations. It’s increasing the speed of decision making for operators, and enhancing situational awareness.
Currently, Lockheed Martin has over 80 space projects and programs using AI/ML. Some of the ways we are integrating human and non-human intelligence include:
- Using multi-domain data fusion to connect sensors for a clear operational picture
- Enabling predictive monitoring to identify early signs of system issues, keeping defense systems ready at all times
- Analyzing massive sensor data in seconds to aid operators
- Extending satellite life and improving reliability across the entire missile defense network
Emerging threats facing America and its allies is driving the need for enhanced security. To address this, the U.S. Space Force is developing a resilient, multi-orbit missile warning, tracking and defense system.
Lockheed Martin is supporting our customer’s mission by designing and building purpose-built space vehicles.
In Low Earth Orbit (LEO), the Space Development Agency’s (SDA) Tracking Layer will provide missile warning and tracking. For Tranche 2, Lockheed Martin will provide 16 wide field of view space vehicles with infrared sensors and two space vehicles with missile defense infrared sensors. In late 2025, Lockheed Martin was awarded a contract for 18 space vehicles for its Tranche 3 Tracking Layer (TRKT3) constellation.
The SDA’s Transport Layer will enhance the ability to rapidly share data, support global targeting, enable joint force operations, and provide seamless connectivity across all domains. Lockheed Martin is on contract for 42 Tranche 1 Transport Layer satellites, the first batch of 21 Lockheed Martin-built satellites launched in October 2025. Furthering our support of the Transport layer, we were awarded an agreement to build 36 Beta variant satellites for its Tranche 2 Transport Layer (T2TL) constellation.
The future of navigation is going to rely on a suite of technologies that provide a robust, resilient positioning capability, including proven solutions like GPS and new technology like quantum sensors.
Lockheed Martin is developing advanced quantum capabilities for quantum computing, remote sensing and communications. In the past year, Lockheed Martin received several contracts to transition high-impact quantum technology from the lab to the field. We're partnering with Q-CTRL to develop quantum sensors for navigation on advanced defense platforms for the DARPA Robust Quantum Sensors program and to prototype quantum-enabled Inertial Navigation Systems for the DoW's Defense Innovation Unit.
The ability to repair, refuel and upgrade satellite capabilities on orbit reduces the cost of maintenance, efficiently extends satellite life and ensures ongoing operations.
Lockheed Martin’s mission augmentation port (MAP) standards define an electro-mechanical platform designed to enable on-orbit hardware and software upgrades for space vehicles. With two specifications, MAP-A and MAP-C, it uses Remote Payload Operations & Docking (RPOD) to enable more efficient system design and sustainable space missions.
MAP-C recently achieved Technological Readiness Level (TRL) 6, taking the leap from design to demonstrated performance.
Private spacecraft and vehicle testing services can lower the cost of space missions by enabling governments and private companies access to facilities and hardware without having to invest in their own.
Lockheed Martin is considering a shift to a firm fixed-price, industry-led services model to reduce costs and improve efficiency. The phased approach would begin with commercially managed operations and evolve toward delivering Orion as a full-service capability, aiming to make Artemis missions more sustainable while maintaining safety and performance.
Spacecraft testing is also a critical component of ensuring performance in the harsh space environment. Lockheed Martin offers spacecraft and component manufacturers access to our world-class testing facilities. We offer comprehensive environment and rendezvous, proximity operations and docking (RPOD) testing services that supports mission-critical operations to help identify and fix issues early.