By: Dawn Zoldi
At the 2026 Space Symposium Media Breakfast on April 13 in Colorado Springs, Lockheed Martin’s space division offered a rare look inside Ignite, its internal research and development (R&D) engine and the team working in the background on some of the most ambitious questions in science and defense at the same time. Dr. Tahllee Baynard, Vice President of Ignite and Dr. Alison Nordt, Director of Space Science and Instrumentation both messaged that the pace of competition has changed, technology risk must be addressed before programs begin, and no single company builds the future alone.
What Is Ignite, Exactly?
Think of Ignite as Lockheed Martin’s internal bet on the future. The company has been doing in-house research since the late 1950s, when it stood up what is now the Advanced Technology Center in Palo Alto. But Baynard explained the old model wasn’t built for the speed today’s military and civilian customers now demand. Four years ago, Lockheed Martin restructured that effort and relaunched it as Ignite, with a direct mandate to move faster and get new capabilities into programs before they become expensive problems.
Baynard framed Ignite’s focus as “How do we actually go faster? How do we have relevant technologies? How do we lower the risk associated with the assumptions that we have?”
Ignite spans seven technology areas, from artificial intelligence (AI) and digital systems to robotics, advanced materials and communications. The company calls it the “innovation engine” for Lockheed Martin Space. It’s not a secretive Skunkworks, but a structured pipeline that moves ideas from laboratory benches into programs with real schedules and real customers. (See prior AG coverage ofLockheed’s Skunk Works).Space-Symposium-Media-Breakfast-Slides_FINAL.pdf
The Quantum Race: Why Navigation Is the First Battlefield
Quantum technology is everywhere in defense headlines right now. Ignite’s approach to quantum is to identify the specific problems where quantum sensing and computing can actually outperform what exists today.
The clearest near-term payoff is in navigation, where next-gen quantum technology could work in tandem with proven solutions like GPS for improved capability. Lockheed Martin is developing quantum sensing for navigation and timing under a contract with the Defense Innovation Unit (DIU). The hardware is being built. Baynard said the technology is on track to mature by 2028. After that, the harder work begins in updating military systems and architectures to actually use it.
The company’s quantum computing investments stretch back further than most. Lockheed Martin took an early stake in D-Wave nearly 20 years ago and now works with quantum-focused companies including Q-CTRL, PsiQuantum, and Xanadu.
Big Company, Small Teams: The Partnership Play
One of the more interesting aspects of Ignite’s model is how it structures investment and collaboration. Rather than waiting until a program is underway to bring in suppliers and subcontractors, Ignite pulls partners in at the research phase. This includes universities, startups, and established companies, who all work together before the program even has a contract number. Baynard called this “horizontal integration,” as opposed to the traditional top-down, vertically integrated approach that large defense primes have long used.
Lockheed Martin Ventures, the company’s venture capital arm, feeds that pipeline. Startups pitch directly to Lockheed Martin technologists. Baynard compared it to a Shark Tank format. Those that make the cut receive early investment and access to the company’s engineering expertise. Teams like Ignite then study how those maturing technologies can actually change future mission designs, rather than simply using outside companies as vendors.
Ignite’s partners include Stanford, MIT, and the Air Force Research Laboratory. In March 2026, Lockheed Martin partnered with Firefly Aerospace to launch a demonstrator payload to prove out technology ahead of future mission needs.
The Telescope That Could Answer the Biggest Question of All
The longest and most compelling part of the briefing belonged to Dr. Nordt, who described Lockheed Martin’s role in building the Habitable Worlds Observatory (HWO), a next-generation space telescope designed to do something no instrument has ever done: directly image an Earth-like planet orbiting another star, and look for signs of life.
The scale of the challenge is hard to put into words. The light from a star is roughly ten billion times brighter than the light reflected off an orbiting Earth-like planet. Nordt offered a more vivid analogy. It’s like trying to spot a single firefly hovering next to a thousand stadium floodlights, and doing it from a mile away, where the firefly and the lights appear to be separated by about a millimeter. The James Webb Space Telescope, humanity’s most sophisticated observatory and one Nordt helped build, can’t come close to the stability required. “We need to be about a hundred times more stable than Webb,” she said. “And Webb is the most stable observatory I’ve ever built.”
Standing on the Shoulders of Giant Telescopes
Lockheed Martin isn’t starting from scratch. The plan for the HWO draws directly on lessons and technologies accumulated over decades. Engineers will adapt metrology work from the Space Interferometry Mission of the late 1990s, structural and optical techniques refined during Webb’s development, and coronagraph technology currently flying on the Nancy Grace Roman Space Telescope, set to launch in September 2026. Each prior mission, in effect, laid a brick in the foundation HWO needs.
The Jitter Problem — and the Fix
In January 2026, NASA awarded Lockheed Martin a three-year contract for the next phase of TechMAST (Technology Maturation for Astrophysics Space Telescopes) focused on solving HWO’s most fundamental engineering challenge: keeping the telescope stable enough to block out a star’s light completely and consistently, for long enough to detect a planet beside it.
The culprit is vibration. Every spacecraft constantly shudders from its own machinery, including spinning reaction wheels, gyros, moving solar panels and antennas. Any vibration that reaches the telescope breaks the optical precision needed to suppress starlight at the levels HWO requires. Nordt’s team is developing what they call a Disturbance Free Payload, a system that physically decouples the telescope from the spacecraft using voice coil actuators. It uses the same basic principle as a speaker driver: change an electrical current, create a controlled force and move without contact. Six of these actuators hold the telescope in precise alignment while the spacecraft around it continues to jitter freely. The two never touch.
The team is also building photonic integrated circuits, chip-sized devices that fire laser beams between telescope mirror segments and measure their relative positions down to the width of a single hydrogen atom. If that sounds extraordinarily precise, it is, because it has to be.
The goal is to reach a technical readiness level of 5 by 2029, when NASA is expected to solidify a final design concept for HWO. Seven industry contracts are currently being awarded to advance the observatory’s six core technology challenges. The full program is aimed at a launch in the 2040s.
Space Science as Bread-and-Butter Work
Not everything Ignite does aims at billion-dollar observatories. Late in 2025, Lockheed Martin delivered its fifth Neutron Spectrometer Sensor to NASA Ames Research Center for use on Japan’s Lunar Polar Exploration (LUPEX) mission. The instrument is designed to detect water ice just below the lunar surface, critical information for planning where astronauts will eventually land and set up outposts.
The company is also developing MUSE, the Multi-Slit Solar Explorer, a NASA mission to study the Sun’s corona, the superheated outer atmosphere where solar storms originate. Baynard and Nordt both made the case that space weather is no longer an abstract scientific concern. As permanent lunar bases, crewed Mars missions, and large satellite constellations move closer to reality, understanding and predicting solar activity becomes as operationally important as tracking a hurricane.
From quantum navigation sensors to a telescope hunting for alien life, Ignite’s portfolio illustrates that Lockheed Martin views its R&D work as both a competitive edge and a long-term obligation to the science that makes future missions possible in the first place.