The Charles Stark Draper Laboratory, Inc.
Guidance, navigation and control for missiles, spacecraft, sensors and biosystems.
Draper is the organisation that made the Apollo Guidance Computer, and nearly sixty years on it is still in the business of telling a vehicle where it is. Charles Stark Draper started it at MIT in 1933 as a laboratory for aeronautical instruments. MIT announced in 1970 that it wanted the classified weapons work off its books, and by 1973 the laboratory had become an independent not-for-profit corporation under its founder's name, based in Kendall Square in Cambridge, Massachusetts. It now employs around 2,000 people and reported revenue of $765 million in fiscal 2023. Like an FFRDC operator, it takes no product royalties and manufactures nothing at scale, which is what lets it sit inside government programs as a designer rather than a vendor.
Strategic systems remain the anchor. Draper designed guidance for Polaris, Poseidon and Trident, and the MK 6 MOD 1 inertial system it developed for the Trident II D5 submarine-launched ballistic missile is still deployed across the Navy's boomers, sustained under engineering contracts running into the hundreds of millions of dollars. Hypersonics grew out of the same competence. Avionics and flight software from Draper flew on the Conventional Prompt Strike glide body during Flight Experiment 1, delivering the precise terminal navigation that the whole concept depends on. Space systems is the second pillar, covering guidance, navigation and control for crewed and robotic missions. Draper built the GNC for the Orion Ascent Abort-2 flight test under Artemis, works vision-aided navigation for the descent from lunar orbit to the surface, and holds a NASA Commercial Lunar Payload Services award worth roughly $73 million for the CP-12 mission aiming at the far side of the Moon.
Electronic systems is where the laboratory keeps its microfabrication and assurance work. That covers microelectromechanical inertial sensors, physical sensing and timing, high assurance and secure processor design, cyber-physical systems security, communications and radio frequency systems, autonomy and perception software, and the design of electronics meant to survive harsh environments. Complex system miniaturisation runs through most of it. The fourth area is biotechnology, which surprises people. Draper applies the same microfabrication skills to bioprocessing, synthetic biology, implantable drug delivery and organ-on-a-chip microphysiological systems used for drug testing, with medical device work sitting alongside the defense programs rather than in a separate company. A ten-year expansion called Draper NXT is meant to grow the workforce and the facilities behind all four areas, including advanced packaging and semiconductor capability that the laboratory argues the country needs onshore. Graduate fellowships tied to MIT and other universities remain part of how the place recruits, and the teaching habit dates back to its origins as a student instrumentation lab. Draper marked fifty years of independence and ninety years of operation in 2023.
- Inertial measurement and precision instrument design
- Guidance, navigation and control system engineering
- Microelectromechanical systems and microfabrication
- Physical sensing and timing
- High assurance and fault-tolerant computing
- Cyber-physical systems security
- Autonomy, perception and vision-aided navigation software
- Design for harsh environments and complex system miniaturisation
- Communications and radio frequency systems
- Bioprocessing, synthetic biology and microphysiological systems
Inertial guidance for the Trident II D5 submarine-launched ballistic missile, deployed across the US Navy ballistic missile submarine fleet.
Continuing design, engineering and sustainment services for the deployed Navy strategic guidance subsystem.
Flight avionics and software for hypersonic glide vehicles, flown on Conventional Prompt Strike Flight Experiment 1.
GNC design, integration, verification and flight operations for crewed and robotic spacecraft.
Terrain relative and vision-based navigation algorithms for lunar descent and GPS-denied operation.
Mission design and delivery under NASA Commercial Lunar Payload Services, including the CP-12 far side mission.
Microfabricated gyroscopes and accelerometers for size, weight and power constrained platforms.
Secure processor architecture, fault tolerance and cyber-physical security engineering for defense systems.
Autonomous navigation, perception and data analytics for uncrewed air, ground and undersea vehicles.
Microfluidic tissue platforms for drug testing and toxicology.
Miniaturised biomedical devices and sensors developed under the biotechnology market area.
Engineering support for biomanufacturing and engineered biological systems.
Graduate fellowship program placing university researchers on laboratory programs.
Programs & Platforms
$1,702,921,710 total contract value across 12 awards · $233,107,476 actually paid to date · Source: USASpending.gov
Contract value is total awarded ceiling, including option years that may never be exercised — not a single-year budget figure.
Cambridge, Massachusetts, USA
Ownership
Privately held