Innovation Adoption in Institutions: US Navy

WHY THE NEXT WAR WILL BE WON BY INDIVIDUALS, NOT INSTITUTIONS

The radar story of 1942 is not just history. It is a template — one the Navy is living through right now with new technologies such as unmanned systems, artificial intelligence, and directed energy. The question is whether it will take another Ironbottom Sound to learn the same lesson.

THE PATTERN REPEATS

The lesson of radar at Guadalcanal is not primarily a lesson about technology. It is a lesson about the gap between invention and adoption — and about the individual actors who either bridge that gap or fail to. The United States Navy is living through an identical dynamic today, across multiple simultaneous technology domains: unmanned aerial and surface vehicles, artificial intelligence-enabled sensor fusion, directed energy weapons, and hypersonic strike systems. In each case, the engineering is substantially ahead of the doctrine. In each case, institutional inertia is the primary brake. And in each case, the outcome will be decided less by the laboratories that build the capability than by the officers and civilian leaders who choose to stake their careers on fielding it.

The parallel to 1942 is uncomfortably precise. In 1934, Robert Page tracked an aircraft with pulse radar on the Potomac, and the Navy's first instinct was to classify the work, underfund it, and at one point order it stopped. In 2024, the Navy's Replicator Initiative accelerated the procurement of attritable unmanned systems — and simultaneously, fleet commanders reported that standing operating procedures, legal reviews, and risk-aversion at the operational level were preventing the systems from being integrated into actual exercises in any tactically meaningful way. The device exists. The doctrine does not. The institution is waiting for a crisis to make the adoption decision for it.

“The device exists. The doctrine does not. The institution is waiting for a crisis to make the adoption decision for it.”

WHAT INSTITUTIONAL INERTIA ACTUALLY LOOKS LIKE

It is worth being specific about what institutional inertia means in practice, because the phrase risks becoming a comfortable abstraction. Institutional inertia is not laziness or incompetence. It is the entirely rational behavior of large organizations optimized for the last war — or more precisely, for the procurement, training, and promotion systems built around the last war's requirements.

In 1942, the institutional assumption was that night surface combat required experienced lookouts, optical rangefinders, and torpedo doctrine refined over decades of peacetime exercises. Radar was supplementary — useful for early warning, but not something around which an admiral would reorganize his fire-control communications network before an engagement. Willis Lee's decision to do exactly that was not just tactically innovative; it was organizationally subversive. He was implicitly declaring that the accumulated wisdom of the institution was wrong, and that a device fewer than five years old should replace it. That kind of declaration carries professional risk. Lee could make it because he had the technical fluency to be certain and the seniority to be protected. Most officers have neither.

Today the equivalent declarations are being made — or not made — around unmanned systems. The Navy's surface warfare community has MQ-25 Stingray in early fleet integration for aerial refueling, USV prototypes operating in the Fifth Fleet area of responsibility, and a growing inventory of Group 1 through Group 5 UAS platforms. What it does not yet have is a Willis Lee: a flag officer who has made herself or himself technically fluent in autonomous systems, redesigned a task force's sensor-to-shooter architecture around them, and convinced a fleet commander that the risk of the new doctrine is lower than the risk of the old one.

THE JAPAN PROBLEM: WHEN TECHNICAL COMPETENCE HAS NO INSTITUTIONAL VOICE

The Japanese failure at Guadalcanal was not a failure of engineering. Japan had cavity magnetron technology before Britain. Japanese naval architects and electrical engineers were capable of building effective radar. The failure was institutional: technical officers were structurally subordinated to line officers who did not share their vocabulary, and no mechanism existed to translate engineering competence into operational doctrine at the speed the war demanded.

The U.S. Navy faces a version of this problem today in the domain of artificial intelligence and autonomous systems. The relevant expertise lives in Naval Information Warfare Centers, in ONR research programs, in DARPA and DIU project offices, and in the civilian technology sector that the Navy increasingly draws upon. It does not yet live in the operational squadrons, strike groups, and numbered fleets in a form that is tactically actionable. The engineers can build an AI-enabled sensor fusion system that correlates inputs from distributed UAS, surface radar, and acoustic sensors into a single common operating picture refreshed in near-real time. The question is whether the strike group commander on watch at 0200 knows what to do with it — and whether the procedures, training pipelines, and rules of engagement have been rebuilt around the assumption that the system will be there.

The Japanese answer to that question in 1942 was no. The American answer at Guadalcanal, largely because of Lee, was yes. The answer the Navy gives today is still being written, and the writing is happening officer by officer, at the level of individual initiative.

“Organizational gaps are closed — or not — by individuals willing to absorb the institutional friction of being early.”

THE VANNEVAR BUSH PROBLEM: INSTITUTIONS NEED ARCHITECTS

Lee was not the only critical individual in the radar story. Vannevar Bush recognized, before Pearl Harbor, that the existing military procurement and research apparatus was structurally incapable of exploiting the magnetron at the speed the war required. His response was to invent a new institution — the National Defense Research Committee, later the Office of Scientific Research and Development — that reported directly to the President, bypassed Service bureaucracies, and linked academic research with industrial production in ways that had no peacetime precedent. Without Bush, the Rad Lab does not exist on its 1940 timeline. Without the Rad Lab, the SG radar is not in Washington's mainmast in November 1942.

The contemporary equivalent of the Bush problem is the organizational architecture connecting the Navy's operational requirements to the technology development pipeline. The Defense Innovation Unit, AFWERX, NavalX, and the various Rapid Capabilities Offices represent attempts to build Bush-style connective tissue between commercial technology and fleet fielding. They have had partial success. The honest assessment is that the pathway from a promising autonomous system demonstration at NIWC Pacific to an operational concept of employment integrated into a numbered fleet's war plan remains too long, too slow, and too dependent on individual champions who happen to be in the right billets at the right time.

That dependence on individual champions is not itself the problem — it was true of radar too, and the champions delivered. The problem is when the institution fails to identify, promote, and protect those champions at the moment their expertise is most needed. Lee survived institutionally because Halsey recognized what he had and gave him complete freedom of action. The contemporary Navy needs flag and senior civilian leaders who can make analogous recognitions — who can identify the officer who genuinely understands autonomous swarm tactics or AI-enabled targeting, and give that officer the authority and the room to be wrong in exercises before the cost of being wrong in combat is paid in hulls and lives.

FIVE LESSONS THAT DID NOT EXPIRE IN 1945

 

FROM IRONBOTTOM SOUND TO THE PRESENT: ENDURING PRINCIPLES

1.  TECHNICAL FLUENCY IS A COMMAND SKILL. Lee's advantage was not that he had radar — South Dakota had it too and lost electrical power at the worst moment. His advantage was that he understood it well enough to build an entire tactical architecture around it before the engagement began. Flag officers who cannot speak the technical language of their most capable systems will cede the decision cycle to those who can.

2.  THE FLAGSHIP MUST CARRY THE BEST SENSORS. Reaction Time is of the essence. Callaghan died in part because the ship with the best radar picture was not his ship. In a distributed maritime environment where UAS feeds, undersea sensor networks, and AI fusion engines generate the operational picture, that picture must be on the commander's display — not reported to him through a chain of human interpreters.

3.  DOCTRINE MUST PRECEDE THE CRISIS. Lee had redesigned Washington's fire-control communications before he knew he would face Kondo. Organizations that wait for combat to reveal doctrinal inadequacy pay for the revelation in blood. Wargames, fleet experiments, and exercises that deliberately stress-test new technology in contested scenarios are not overhead — they are the rehearsal for the moment that matters.

4.  INSTITUTIONAL RESISTANCE IS NORMAL AND MUST BE ACTIVELY MANAGED. The order to stop radar work at NRL in the early 1930s was not the decision of a foolish organization — it was the entirely predictable response of a resource-constrained institution to an unproven technology with no clear threat driver. Managing that resistance requires senior leaders who consciously protect early adopters from the friction of being ahead of the consensus.

5.  THE ADOPTION GAP IS MORE DANGEROUS THAN THE CAPABILITY GAP. Japan had the magnetron. Germany had excellent metric-wave radar. Neither lost primarily because their devices were inferior. They lost because the chain from laboratory to doctrine to commander's decision was broken. The United States currently leads in unmanned systems, AI, and directed energy. That lead is only tactically meaningful if the chain is intact.

 

THE SPECIFIC CHALLENGE OF AUTONOMOUS SYSTEMS

Of the technology domains the contemporary Navy is navigating, unmanned and autonomous systems present the adoption problem in its most acute form. Radar, for all its novelty in 1942, was a sensor that fed human decision-making through familiar pathways — it told the gunner where to aim, and the gunner aimed. Autonomous systems challenge something more fundamental: the location of decision authority in the kill chain.

The legal, ethical, and operational questions surrounding lethal autonomous systems are real and unresolved, and this sidebar does not attempt to resolve them. But the institutional dynamic around those questions mirrors the radar dynamic almost exactly. The tendency is to treat unresolved doctrinal and legal questions as reasons to slow fielding — to wait until every question has a policy answer before allowing operational integration. The radar history suggests the opposite logic: the questions get answered most productively when the systems are in the hands of operators who are generating real operational experience, not sitting in program offices waiting for interagency clearance.

The Japanese navy did not answer its radar questions slowly and carefully. It simply failed to answer them at all, and paid the price. The American Navy of 1942 answered its radar questions imperfectly and in a hurry, mostly through the initiative of individuals like Lee who decided that the operational risk of not using the technology exceeded the institutional risk of being ahead of the doctrine. That calculus has not changed.

WHAT THE INDIVIDUAL CAN ACTUALLY DO

The structural argument above could be read as counseling helplessness — if the institution is the problem, what can the individual officer or civilian engineer do? The radar story answers this question directly, and the answer is: quite a lot, at considerable personal risk, with consequences that extend far beyond the individual.

Page kept working when told to stop. Taylor and Young documented and protected his work. Lee studied radar until he understood it better than his operators. Bush built a new institution when the old one was too slow. Halsey gave Lee freedom of action when a more cautious admiral might have constrained him. None of these acts required genius. They required the willingness to be technically serious, institutionally persistent, and professionally exposed at the moment the technology was unproven and the skeptics were plentiful.

For the officer or engineer working in unmanned systems, AI integration, or directed energy today, the practical translation is this: learn the technology at the level of mechanism, not just capability. Build the doctrine before you are ordered to. Run the exercises that the schedule does not require. Write the after-action reports that make the institutional case in the language commanders understand. Find the Halsey in your chain of command who will give you room. And accept that the friction of being early is not a sign that the institution is broken — it is the normal condition of every technology transition in naval history, including the one that decided the Pacific War.

The next Ironbottom Sound is not scheduled. But it is coming, in some form, in some sea, against some adversary who is also navigating the adoption problem — and who may be doing it faster. The margin of victory, then as now, will belong to the side that closed the gap between the laboratory and the commander's display before the shooting started.

 

Stephen L. Pendergast is a Senior Engineer Scientist with more than 20 years of experience in radar systems engineering, signal processing, and aerospace defense applications. He holds an MS in Electrical Engineering from MIT and is a Senior Life Member of IEEE.

 

Further Reading

Friedman, Norman. Network-Centric Warfare: How Navies Learned to Fight Smarter Through Three World Wars. Annapolis: Naval Institute Press, 2009.

Krepinevich, Andrew F. The Military-Technical Revolution: A Preliminary Assessment. Washington, DC: Center for Strategic and Budgetary Assessments, 2002.

Rosen, Stephen Peter. Winning the Next War: Innovation and the Modern Military. Ithaca: Cornell University Press, 1991.

Scharre, Paul. Army of None: Autonomous Weapons and the Future of War. New York: Norton, 2018.

Defense Innovation Unit. Autonomous Systems Roadmap FY2023–2028. Washington, DC: DIU, 2023. https://www.diu.mil

Office of Naval Research. Naval Science & Technology Strategy FY2024. Washington, DC: ONR, 2024. https://www.onr.navy.mil

USNI Proceedings. 'Unmanned Systems: Closing the Doctrine Gap.' Various authors, 2022–2024. https://www.usni.org/magazines/proceedings

Pendergast, Stephen L. 'The Radar Edge: Technology, Leadership, and the Night Battle off Guadalcanal.' Proceedings, February 2026. [companion article, this issue]

SOURCES AND FORMAL CITATIONS

The following citations employ Chicago author-date format. URLs were verified as of February 2026.

 

1.  Allison, David K. New Eye for the Navy: Origin of Radar at the Naval Research Laboratory. NRL Report 8466. Washington, DC: Naval Research Laboratory / GPO, 1981. [Declassified primary source history; archived at DTIC: https://apps.dtic.mil/sti/tr/pdf/ADA110586.pdf]

2.  Friedman, Norman. Naval Radar. Annapolis: Naval Institute Press, 1981. [Definitive technical reference on US naval radar development.]

3.  Hornfischer, James D. Neptune's Inferno: The U.S. Navy at Guadalcanal. New York: Bantam, 2011. Excerpted as 'The Washington Wins the Draw.' Naval History Magazine 25, no. 1 (February 2011). https://www.usni.org/magazines/naval-history-magazine/2011/january/washington-wins-draw

4.  Morison, Samuel Eliot. The Struggle for Guadalcanal, August 1942–February 1943. Vol. 5, History of United States Naval Operations in World War II. Boston: Little, Brown, 1949.

5.  Paridon, Seth. 'The Second Naval Battle of Guadalcanal.' The National WWII Museum, November 16, 2017. https://www.nationalww2museum.org/war/articles/second-naval-battle-guadalcanal

6.  Reilly, Robin L. 'Night Battleship Action Off Guadalcanal.' Warfare History Network, March 3, 2020. https://warfarehistorynetwork.com/article/night-battleship-action-off-guadalcanal/

7.  Naval History Magazine. 'Crucible at Sea.' August 2007, Vol. 21, No. 4. US Naval Institute. https://www.usni.org/magazines/naval-history-magazine/2007/august/crucible-sea

8.  Roskill, Captain S.W., RN. 'Shipborne Radar.' Proceedings 93, no. 9 (September 1967): 775. US Naval Institute. https://www.usni.org/magazines/proceedings/1967/september/shipborne-radar [Primary analytical source on PPI development and SG combat use.]

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10.  Wikipedia contributors. 'SG Radar.' Wikipedia. https://en.wikipedia.org/wiki/SG_radar

11.  Wikipedia contributors. 'CXAM Radar.' Wikipedia. https://en.wikipedia.org/wiki/CXAM_radar

12.  Wikipedia contributors. 'USS Washington (BB-56).' Wikipedia. https://en.wikipedia.org/wiki/USS_Washington_(BB-56)

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14.  Wikipedia contributors. 'Tizard Mission.' Wikipedia. https://en.wikipedia.org/wiki/Tizard_Mission

15.  Wikipedia contributors. 'Robert Morris Page.' Wikipedia. https://en.wikipedia.org/wiki/Robert_Morris_Page

16.  Wikipedia contributors. 'United States Naval Research Laboratory.' Wikipedia. https://en.wikipedia.org/wiki/United_States_Naval_Research_Laboratory

17.  Engineering and Technology History Wiki. 'U.S. Naval Research Lab and the Development of Radar.' ETHW. https://ethw.org/U.S_Naval_Research_Lab_and_the_Development_of_Radar

18.  MIT News Office. 'How the Tizard Mission Paved the Way for Research at MIT.' MIT News, November 23, 2015. https://news.mit.edu/2015/how-tizard-mission-paved-way-for-MIT-research-1123

19.  MIT Technology Review. 'How MIT's Rad Lab Rescued D-Day.' October 22, 2024. https://www.technologyreview.com/2024/10/22/1104766/how-mits-rad-lab-rescued-d-day/

20.  Smithsonian National Air and Space Museum. 'The Tizard Mission – 75 Years of Anglo-American Technical Alliance.' November 17, 2015. https://airandspace.si.edu/stories/editorial/tizard-mission-75-years-anglo-american-technical-alliance

21.  IEEE Spectrum. 'From World War II Radar to Microwave Popcorn, the Cavity Magnetron Was There.' 2023. https://spectrum.ieee.org/magnetron

22.  Naval Historical Society of Australia. 'Radar in the South and Southwest Pacific as at Savo Island in August 1942.' September 3, 2020. https://navyhistory.au/radar-in-the-south-and-southwest-pacific-as-at-savo-island-in-august-1942/

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27.  HyperWar: US Navy. 'Capabilities and Limitations of Shipborne Radar, Chapter 3.' COMINCH P-08. https://www.ibiblio.org/hyperwar/USN/ref/RADONEA/COMINCH-P-08-03.html

28.  Sons of Liberty Museum. 'Naval Battle of Guadalcanal, November 1942.' https://www.sonsoflibertymuseum.org/naval-battle-guadalcanal-campaign.cfm

29.  Naval History Forum / Kbismarck.org. 'USS Washington Radars.' https://kbismarck.org/forum/viewtopic.php?t=2237 [Expert forum discussion of Washington's fire-control radar installations.]

30.  Radartutorial.eu. 'SG Microwave Surface Search Radar.' https://www.radartutorial.eu/19.kartei/11.ancient4/karte056.en.html

 

About the Author

Stephen L. Pendergast served as an EDO LT in the USNR supporting the NTDS program at NAVSE. He is a Senior Engineer Scientist with more than 20 years of specialized expertise in radar systems engineering, signal processing, and aerospace defense applications. He holds an MS in Electrical Engineering from MIT and a BS from the University of Maryland, has held Top Secret clearance, and has served as a Senior Life Member of IEEE. His career has encompassed Synthetic Aperture Radar and Ground Moving Target Indicator development at major defense contractors, and he has taught technical courses at UCSD Extension.