Great constants in naval warfare

Sunday, April 5th, 2026

Fleet Tactics and Naval OperationsAfter discussing great trends in naval warfare, Fleet Tactics and Naval Operations goes on to discuss great constants. On maneuver:

One problem of combat theory is how to define the beginning and end of a battle. Does the exchange of lethal force—firepower—open the battle? Consider the story of the cobra and the mongoose, told by Norbert Wiener in his book Cybernetics. The mongoose has the peculiar ability by some combination of mental and physical agility to stay ahead of the cobra’s capacity to strike. At the right moment the mongoose attacks behind the cobra’s head and the fight is settled. Did the battle consist of one leap by the mongoose? No. Nor does combat begin when the first shot is fired.

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In a proper battle, firepower is preceded by maneuver, which bears on the outcome. In Mahan’s words, tactics is “the art of making good combinations preliminary to the battle as well as during its progress.”

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We know the situation today: with a potentially huge battlefield and fast-acting weapons, maneuvers of even the most agile ships appear to be carried out at a snail’s pace.

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In peacetime tacticians usually have overrated the wartime advantage of more speed in combatant ships. High speed is expensive in money, weight, and space. Peacetime planners too often overlook the tactical reality that a formation is tied to the slowest ship in the force, whether due to its design or incurred through malfunction or damage.

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Neither the hydrofoil nor the surface-effects ship has proven its case; the speed of these vessels brings too many penalties in its wake.

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Uhlig points out that carriers must be swift to operate aircraft. It is fascinating to speculate what their speed ought to be if this were not so. The question is not idle: we may see the widespread use of very short takeoff and landing (VSTOL) aircraft in the future. The cost penalty of vertical lift—which is the VSTOL’s greatest liability—could be offset substantially by reducing the propulsive power of the entire formation. We should remember that with half the propulsive power a ship can travel about 80 percent as fast. In addition, speed creates noise in the water, and noise draws submarine missiles.

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History tells us that that extra bit of speed in ships and speed and maneuverability in aircraft is dearly purchased and has not increased in fifty years.

On firepower:

At sea the essence of tactical success has been the first application of effective offensive force. If the tactician’s weighty weapons substantially out-range the enemy’s, then the objective is to stand outside effective enemy range and carry out the attack with sufficient concentration of force to destroy the enemy. If the enemy out-ranges the attacker, then the tactician’s aim is to survive any blows with sufficient residual firepower to carry out the mission.

It is all the more important now for a tactical commander to have the means to concentrate effective firepower and deliver enough of it to accomplish the mission before the enemy can bring decisive firepower to bear. Without such means, one should not wish to engage the enemy, for the attacker is likely to lose with very little to show in damage to the enemy.

The second great constant of offensive force applies here: Other things being equal, a small advantage in net combat power will be decisive and the effect will be cumulative. The necessary margin of superiority, however, widens when the enemy seems likely to deliver a first, but inconclusive, attack. An inferior force cannot assume a defensive position and exact a substantial toll, as can be done in ground combat. An inferior fleet must be disposed to risk and must find a way to attack effectively first. Otherwise, it should be ordered to avoid battle and to adopt a strategy of evasion, survival, and erosion, which it must hope to achieve with skill and good fortune.

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Our own numerical estimate is that superiority in net combat power of four to three has been conclusive at sea, except in the case of an effective enemy first attack. An advantage of three to two will crush the enemy.

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Another recurring tendency, perhaps common enough to be called a constant, is to overestimate the effectiveness of weapons before a war. The abysmal ineffectiveness of naval gunfire in the Spanish-American War came as a shock. By 1915, after ships’ fire-control problems had been largely straightened out, ten or twenty minutes of accurate gunfire was conclusive. Nevertheless, at Jutland the High Seas Fleet escaped destruction because the British battle line was unwieldy, the German fleet maneuvered skillfully, and smoke obscured the scene of action.

Before the Pacific carrier battles commanders were too sanguine about the effectiveness of air power. And the chaotic night surface actions did not at all reproduce the clean, decisive battles that had been played out in prewar board games because firepower was not as effective as expected.

This rule abides: Watch for the fog of war, and do not underestimate the propensity of the enemy to survive your weapons. In the next war at sea we will see ships with empty missile magazines and little to show for the expenditure of what should have been the decisive weapon.

When Admiral Burke, the last of our World War II tacticians, was asked what he would change in the new class of guided-missile destroyers—his namesake, the Arleigh Burke class—he said he would add a brace of cutlasses.

On counterforce:

Another constant of maritime warfare is that navies are difficult to replace. For this reason ships of the line did not engage forts with the same number of guns, battleships did not venture into mineable waters, and aircraft carriers did not attack airfields that based similar numbers of aircraft.

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Compared with damaged aircraft carriers, damaged airfields can be reconstituted quickly. In conventional war, there is less possibility of concealment, survivability, and recuperation at sea than on land. The compensatory virtues of warships have been their greater mobility and potential for concentration.

Should nuclear war come, it will alter these generalities. Surface warships will be more durable than land-based forces because of the capacity for both strategic movement away from the threat and for tactical movement out from under a missile attack. The capacity for survival of submarine-based submarine-launched ballistic missiles (SLBMs) through concealment exceeds that of land-based intercontinental ballistic missiles (ICBMs). Nuclear war also changes the replacement equation: conventional naval forces are more difficult to replace than conventional land-based systems, but in nuclear war, when no warheads are replaceable, this liability disappears altogether.

On scouting:

Naval commanders have always sought effective scouting at a range consistent with their weapon range. That is, they have sought data about enemy forces far enough away—or soon enough away, remembering the time-movement relationship—to deploy for effective offensive and defensive action. And the data have included a plot of the commanders’ own forces. An amateur who imagines a chessboard war cannot conceive of the frustrations of keeping this plot. It is not rare in peacetime exercises for a commander to target his own forces. Every professional should reacquaint himself or herself with the hazard and reread Morison’s detailed accounts of the Solomons night actions, including the Battle of Cape Esperance, in full and sobering detail. The choice of tactics must be compatible with force proficiency. Unpracticed, widely dispersed forces on a modern battlefield that is dense with long-range missiles run great risk of self-destruction. Some planners assert that the widespread use of the global positioning system (GPS) will end fratricide. If so, then GPS will have changed all previous experience in war at sea.

The great constant of scouting seems to be that there is never enough of it. In the days of sail commanders deployed a line of frigates ahead to conduct strategic search (in those days the great naval problem was to find an enemy at sea).

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Without enough frigates, fleets under sail could be caught in disarray.

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A good guess is that the next “radar” will be small, unmanned vehicles, especially aerial devices. Yet, the difficulties of integrating these into a scouting network should not be underestimated.

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At sea, better scouting, more than maneuver, as much as weapon range, and often as much as anything else, has determined who would attack—not merely who would attack effectively, but who would attack decisively first.

On command and control:

Generally, when he or she is defending, a good commander reinforces weakness; when attacking he or she reinforces success.

How does this constant of tactics apply today? It means that on offense, modern networking permits a highly coordinated strike in time and space at a critical point from widely dispersed forces. After damage assessment, initial success can be followed with other deliberate, measured attacks. That is the essence of the American operations called dominant battlefield awareness and precision strike.

It also means—and this is what needs the greater attention—that on defense, when the initiative is the enemy’s, the formation and C2 doctrine should be designed for rapid, independent response by any ship at the instant it is threatened.

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After one of his first engagements then-commander Arleigh Burke wrote in his after-action report, “There is no time in battle to give orders. People must know what they do before they go into battle.”

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The time killers are lethargy, befuddlement, physical exhaustion, and disintegrating morale. Most likely many more disastrous tactical decisions than the history books tell us have been made by leaders whose spirit was used up and by fighters who were exhausted.

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Burke has been quoted many times as saying that the difference between a good leader and a bad one is about ten seconds.

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Tactical complexity is a peacetime disease. After the transition from peace to war, a marked simplification of battle tactics occurs. The tactical theorist underestimates the difficulty of executing complex operations in the heat of battle, and military historians are too quick to point out opportunities that could never have been exploited.

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Cleverness, ingenuity, and complex maneuvers work best for solo performers such as submarines and small units that can be highly trained.

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Since the enemy can be expected to know about anything that has been practiced very much, complex fleet tactics must work even when the enemy is aware of them.

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U.S. naval warfare publications should compare in tightness, focus, and readership with the old fleet tactical publications that preceded them. Articles on tactics should dominate Naval Institute Proceedings, as they did in the period from 1900 to 1910. The hard core of the Naval War College curriculum should be naval operations, as it was in the 1930s. War games should stress not merely training and experience but the lessons learned from each game’s outcome, as in the 1920s and 1930s. In intellectual vigor our modern tactical writing should compare with the best in the world.

The ascendancy of the ship lasted a mere moment

Friday, April 3rd, 2026

Fleet Tactics and Naval OperationsFleet Tactics and Naval Operations discusses great trends. On maneuver:

During the age of fighting sail, ships used to stay in a tight column for cohesion and sought to be to windward or leeward of the enemy. Battleships maneuvered to cross the enemy’s T. Picket submarines are pre-positioned to scout and attack in waters through which the enemy may pass. Aircraft are put on a CAP station so they can be vectored to a target or can maneuver on their own to attack. Deck-launched interceptors are in a state of readiness that is predetermined to give them time to move into a position for attack. In each case the emphasis is on the timely positioning of forces, which enables one to scout and shoot better than the enemy.

On firepower:

The most conspicuous trend in the history of warfare is the increase in weapon range, from two miles or so in the days of fighting sail to fifteen miles or more in the era of the big gun, three hundred miles during World War II, and six hundred miles or more today.

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The long guns of sailing ships were effective at only about three hundred yards, and carronades were limited to an even shorter distance. Around 1900, before continuous-aim fire, it was estimated that a battleship would take fifty minutes to reduce an enemy to impotence at a range of 2,500 yards. By 1914 it would take only ten minutes, in good visibility, to put an enemy out of action at ten thousand yards.

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In World War II, radar ranging changed that. Gun ballistics became so accurate, with refined fire-control systems, that even medium-caliber 5-, 6-, and 8-inch guns could be fired accurately almost to their maximum range. 9 In the half-century from 1898 to 1948, the effective range of naval weapons increased about tenfold.

The increasing effectiveness of shipboard gunfire was obscured by the growing use of aircraft for bombing early in World War II.

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In the 1930s engineers designed land-based B-17 bombers specifically to carry out attacks on warships at great range. Yet, horizontal bombers turned out to be almost totally ineffective; they had difficulty finding naval targets at long range and experienced even more difficulty hitting them at any range. Naval aircraft of much shorter ranges proved to be the best ship-killers.

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After concluding that, even omitting nuclear weapons, the lethality of weapons has increased by five orders of magnitude—that is, 100,000 times—between the middle of the sixteenth century and the present time, Dupuy uncovers a paradox. While weapon lethality on the battlefield grew, the rate of personnel casualties per unit time shrank. Why? One prominent reason was the increased dispersion of troops on the battlefield.

On counterforce:

Even in their heyday, armor and hull strength were rarely thought of as offering as much security against shells as deep bunkers in the ground. Armor was a dilatory device, used to forestall enemy firepower until one’s own offensive power took effect. In those days, there was much discussion of the division of a ship’s displacement between firepower, staying power (protective armor), and propulsion power. Before and after World War I, each country had its own style: Americans sacrificed speed for guns, armor, and radius of action; the Germans opted for staying power; the Italians emphasized speed; and the British (like the Americans today) incorporated habitability for extended worldwide deployments in big ships.

In the war games of the battleship era, the typical first-line dreadnought had a life of about twenty major-caliber hits; the pre-dreadnought had a life of twelve hits. The loss of firepower and maneuverability was treated as a nonlinear function of the number of hits—that is, a dreadnought suffering ten hits in U.S. war games would lose more than half its firepower and speed.

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American fears centered on the Japanese advantage in line speed (twenty-three knots for the Japanese versus eighteen knots for U.S. forces), the possibility of surprise, and the lurking danger that the U.S. Fleet would be too crippled after eliminating the Japanese to fulfill its mission. (In war games, this was the relief of the Philippines.) The Japanese hoped that their submarines would inflict initial damage, their aircraft and Long Lance torpedoes would effect further damage, and that their Mogami-class light cruisers, retooled secretly with 8-inch guns, would significantly augment the battle line. There were, as we know now, catastrophic surprises to both sides after the war in the Pacific commenced.

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In World War II defensive weapons assumed unprecedented prominence. By 1942 a flood of AAW weapons was being installed, with radar sensors, deadly proximity fuzes, and new, capable fire-control systems to lead and hit fast-moving targets. By 1944 attacking aircraft faced a veritable curtain of fire. In the last year of the war, modern surface combatants had redressed the balance of power they had lost to naval aircraft.

The ascendancy of the ship lasted a mere moment, for at the end of World War II it was eclipsed by the atomic bomb, and armor was not effective as a protection from nuclear blasts. Cover and deception and the urgency of a first strike took on overwhelming significance. Air interceptors, AAW missiles, and ASW weapons were more than ever temporizing weapons. The American posture was all the trickier because the U.S. Navy could never attack first, certainly not with nuclear weapons. How to buy enough time to deliver a massive strike ashore was the tactical question.

Judging from the enormous Soviet naval effort to counter U.S. carrier task forces, the Americans were eminently successful. But they paid a price: with nuclear war in mind, they built ships without much survivability against conventional munitions. They concentrated on long-range defensive weapons—air interceptors and missiles—and neglected the guns and the modern close-in “point” defenses that were analogous to the 20-and 40-mm guns of World War II. They also neglected the development of new soft-kill devices—short-range systems that could not reach out far enough against nuclear weapons.

The Royal Navy followed a similar bent and neglected damage control and point defense. It suffered the consequences when its ships fought to retake the Falklands with conventional weapons.

By contrast, Israeli warships prepared for the 1973 war by developing soft-kill defenses against Syrian and Egyptian weapons so successfully that they all survived unscathed.

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For example, infantry small arms exceeded artillery in producing casualties after the range and lethality of artillery rose dramatically. Often the second-best weapon performs better because the enemy, at great cost in offensive effectiveness, takes extraordinary measures to survive the best weapon.

We saw this phenomenon in the Falklands War. The Argentine air force lost only eight, or about 10 percent, of its aircraft to the British ships’ most expensive AAW defense, their SAM missile batteries (Sea Darts). The Argentine pilots knew that if they hugged the water the SAMs would be ineffective, and the British ships shot down most of the attackers with short-range weapons. Nevertheless, the “ineffective” SAMs were vital to the defense because they constricted the Argentine pilots’ maneuvering room, helped make the British close-in defenses more effective, and forced the pilots to drop their bombs at so short a range that sometimes the ones that hit had had no time to arm.

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Dupuy estimates that between the Napoleonic Wars and the 1973 Arab-Israeli War the average density of troops on the battlefield was diluted by a factor of two hundred.

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When dispersion is an important means of defense, small ships and distributed firepower are an important advantage.

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It was defensive fighting power that decided whether a force should mass or disperse. Today if fleets comprise large ships with strong defenses, commanders mass them and fight the enemy off. If they have small ships or weak defenses they must disperse.

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Tacticians should always remember that the reason for building survivability into a vessel is to gain time for the offense. Critics who talk about surface ship vulnerability ignore this. The less knowledgeable assume that expensive ships should stand up in combat forever; the wiser contend that big ships are not worth the money, and that if someday there is an alternative that delivers superior net force—that is to say, delivers firepower over a ship’s combat lifetime—they will be correct.

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Defensive systems collectively act like a filter (not a wall or a Maginot line) that extracts a certain number of incoming aircraft or missiles. As it is able, a hull absorbs hits and enables the warship to conduct curtailed offensive operations.

World War II AAW weapons destroyed some air attackers and distracted others with a curtain of fire. Modern hard-and soft-kill defenses do the same.

Up to a point, the defense takes out a high percentage of the attackers. When the attack is dense and well coordinated, an active AAW defense will become saturated at a certain point, beyond which most missiles or aircraft will get through.

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Two other trends bear mentioning. One is the growth of a tactical no-man’s-land, a region where neither side can operate its main force and where pickets (aircraft, submarines, and small-surface missile craft) will fight fierce subordinate engagements to create weakness or gather information. The no-man’s-land exists because defense needs room. In conventional war, battle space translates into time to react against attack. In missile warfare it may be that no defense is adequate and that space is needed simply to stay out of reach or to make it too difficult for the enemy to target moving ships.

A smaller no-man’s-land has long existed. In the past, daylight surface actions that used guns did not occur at less than two thousand yards: action was fatal before the range closed to that point. Battle lines did not expect to fight at ten thousand yards, the zone where destroyers lurked. Carriers did not want to approach other warships closer than one hundred miles. A miscalculation or an adverse wind would put guns within range, and it would all be over in fifteen minutes. HMS Glorious discovered this, and many more of the U.S. jeep carriers off Samar might have been sunk at the Battle for Leyte Gulf had Vice Admiral Takeo Kurita not lost his nerve and retreated with his overwhelmingly superior Japanese surface fleet.

The second is the growing vulnerability of ships in port. Ports have traditionally been havens for navies superior and inferior. Although few harbors have ever been absolutely safe from attack, the strategy of the nation that has the weaker navy has been heavily influenced by the consideration that a fleet-in-being could be reasonably safeguarded in port. But this has changed; the security of ports has diminished. Pearl Harbor, of course, marked the transition, as did several other striking if less well-known events. On the night of 11 November 1940, for example, a handful of torpedo planes from HMS Illustrious surprised the heavily protected Italian fleet at the port of Taranto. They put three of six Italian battleships out of action for six months and one for the rest of the war, and the Italian fleet fled to Naples. 14 After Sherman’s carriers struck Rabaul in November 1943, the Japanese navy was so stunned that it soon withdrew to Truk. Not much later, in 1944, carrier strikes penetrated Truk, and the Japanese, unable to challenge the United States at sea and completely frustrated by the U.S. Navy’s ability to concentrate overwhelming air power against any island bastion, withdrew into the western Pacific. Today, almost half a century later, ships are often safer outside of home port than in.

On scouting:

The dominant trend in scouting has been the increasing rate of search and the increasing range of reconnaissance, surveillance, and intelligence-gathering systems.

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Double the range of the enemy’s attack aircraft and you quadruple the area to be searched. A barrier search—a scouting line—can sometimes cover the perimeter of this expanded area. The bent-line screen invented late in World War II to detect submarines in front of a carrier is an example. Still, tactical commanders cannot often be satisfied with a scouting line. For one thing, it is usually pervious: submarines that can approach submerged and launch missiles are a threat that seemingly springs from anywhere at or inside a missile range. For another, searches cannot always be continuous. In World War II, when scouts or patrol planes in tactical support were launched by the Japanese and Americans at dawn after a night without reconnaissance, they were never sure how far out the enemy might be found.

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Recall the scouting line thrown out in advance of the World War I Grand Fleet. Its placement was not governed by gunnery range, but by calculating the time it would take to relay a signal to Jellicoe by wireless, plus twenty minutes to allow for the shift from cruising formation to battle line before the enemy closed to weapon range.

As we have noted, in warfare space is equivalent to reaction time. Now that missiles can approach at twice the speed of sound or greater, reaction time is so compressed that the scouting line must account for both missile range and the time it takes to act against air, surface, or submarine launch platforms.

Some authorities illustrate this with three circles or pie slices. The smallest is the region of control: any enemy inside it must be destroyed. The next is the region of influence or competition, something like a no-man’s-land. The largest is the region of interest: friendly ships must be prepared to deal with an enemy inside it. Scouting seeks targeting data in the first region; tracking in the second; and detection in the third. So the effect of the increase in weapon system range and speed has not been simply to increase the area in which weapons may be delivered, but also to expand the size of the battlefield so that it includes the entire region of scouting and preliminary maneuver.

The vertical dimension of the battlefield also has been extended—deeper beneath the surface to the seabed and higher above it to space.

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Space will be an additional plane of action, as different tactically from the air as the air is from the surface.

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The first wartime role of aircraft, on land and at sea, was scouting. Aircraft were so successful in this that the antiscout—the pursuit plane—was invented. In World War I all other aircraft roles were inconsequential by comparison. The same sequence of events is certain to hold in space.

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Like antiaircraft fire in World War I, earth-launched anti-satellite systems are not the best countermeasure. Neither are the current means of cover and deception. As a direct result of the fundamental importance of scouting, “pursuit” systems in space will be invented to destroy surveillance satellites. Space bombers will follow some day soon.

On command and control:

The great deadliness of modern surprise attack can be illustrated numerically. When guns answered guns, a two-to-three disadvantage could not easily be offset by surprise. For example, according to Bradley Fiske’s model of exchanged broadsides, to gain equality the inferior force (call it B) would have to fire for ten minutes unanswered by A. That is about 60 percent of the time it would take A to eliminate B if both sides exchanged fire. For B to obtain a two-to-one advantage over A before A started to return fire, B would have to fire unanswered for twenty minutes, the military equivalent of the Chesapeake being caught unprepared by the Leopard in 1807. Compare this with the model of carrier warfare in World War II. If B, with two carrier air wings, could surprise A, with three, B would sink two carriers at a blow and have instant superiority. Coordinated modern missiles have the potential of inflicting similar shock on a fleet. A surprise attack of the scale from which a fleet might recover in the age of big guns will be decisive in a modern naval war.

To this day, most warships have little staying power

Wednesday, April 1st, 2026

Fleet Tactics and Naval OperationsThe development of Germany’s V-1 and V-2 and the US’s atom bomb led the Navy, Fleet Tactics and Naval Operations explains, to develop missiles — first Regulus and then Polaris — that could deliver warheads at very long ranges with reasonable accuracy.:

The new missiles were called “strategic” weapons because, much like strategic bombers, their purpose was to destroy an enemy’s means of waging war.

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This led to a bitter rivalry between the newly created U.S. Air Force, which claimed the mission as its own, and a recalcitrant Navy, which saw difficulties with intercontinental bombing at the time and balked at the hidden costs of maintaining bombers at fixed bases far forward in host countries.

The Navy proposed delivering nuclear bombs from carrier-based aircraft, arguing that the mobility that ships offered would enable the bombers to fly shorter distances and would be less vulnerable than land-based airfields.

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In the 1950s, with remarkable energy and technological acumen, the Navy developed and deployed Polaris missiles—and long-range submarines to carry and fire them—arguing that the undersea craft constituted a more stable and survivable deterrent than bombers and land bases because they could not be pinpointed for attack.

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Some of the early Soviet missiles were cruise missiles, fitted with nuclear warheads and designed to be fired by Russian warships—submarines, surface ships, and long-range land-based aircraft.

Their targets were to be American surface ships, particularly aircraft carriers. Since detonating even one nuclear weapon in the vicinity of a ship was certain to destroy it, staying power derived from armor, compartmentation, damage-control techniques, and large displacement would have little value.

Using antiaircraft guns in an effort to shoot down an attacker would be useless if a nuclear weapon were designed to detonate when the warhead was hit.

The U.S. Navy developed surface-to-air missiles (SAMs) to destroy a bomber or missile far enough away for the ships to be able to survive. Indeed, Talos, Terrier, and Tartar SAMs—all defensive weapons—were the Navy’s first substantial venture into guided-missile technology.

The tight defensive formations of World War II no longer were appropriate; adjacent ships would be incapacitated by the massive explosion and poisonous radiation.

Designers initially intended that SAMs would cover several ships at the same time, employing the World War II tactic of defending your neighbor while defending yourself. SAMs were expensive, however, and any one ship could only carry so many. They had to be delivered accurately because commanders could not fill the sky with them by the hundreds the way 40-mm and 20-mm shells were expended in World War II. If anything, SAM distribution against incoming aircraft or missiles had to be coordinated so that commanders could rely on an efficient system of assigning targets to individual ships.

In time the formations were loosened even more and spread out in dispersed configurations. One such was a “haystack” disposition, developed so that enemy bombers could not easily locate the vital ship—the carrier—especially where commercial shipping resulted in the generation of many radar contacts. The fleet’s prime targets were supposed to disappear like needles in a haystack.

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The modern U.S. Navy is a victim of outmoded nuclear war thinking. To this day, most warships have little staying power. One or two hits with modern missiles such as an Exocet or Harpoon will put most warships out of action.

To survive an attack and continue to perform a task, a modern American warship depends heavily on reduced susceptibility—avoiding detection and carrying the kind of technology that will enable it to prevent incoming missiles from hitting at all.

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The Vietnam War contributed to loosening up American formations because warships were able to stand off at sea to deliver ordnance while they themselves were relatively safe from attacks.

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History’s most profuse application of cruise missiles has been against tankers and other commercial ships in the Persian Gulf. The attacks started in May of 1981 and continued for seven years, until mid-1988, ending a year after U.S. intervention that provided protective escorts for ship traffic.

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French arms sales equipped Iraq well to carry out air-launched Exocet missile attacks.

Seemingly, missiles had been used between 257 and 261 times, or in about 80 percent of all Iraqi attacks on commercial ships.

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Only a quarter of the ships hit were destroyed; large tankers proved to be the sturdiest and most resilient.

The so-called Tanker War constitutes by far the biggest campaign against shipping since World War II.

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Estimates show that by 1986 the tonnage damaged beyond economic repair already had reached some 20 percent of all Allied merchant ships sunk during World War II.

Navias and Hooton estimate that less than 1 percent of the 800 to 1,000 ships that entered the Gulf each month were hit—about the same overall total as the fraction of sailings lost in the Battle of the Atlantic, although not as bad as the worst of that period, when up to 20 percent of merchant traffic was lost. 4 Also reminiscent of the Battle of the Atlantic, there was a remorseless buildup of shipping losses in the Gulf until the United States responded to pressure from the neutral states there and started to convoy reflagged Kuwaiti tankers.

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Like torpedoes, tactical missiles were conceived and developed to attack warships.

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Broadly, the carrier battle groups of the U.S. fighting fleet could not offer direct protection for tankers sailing up the Persian Gulf; only individual convoy escorts could fend off attacks by the Iranian threat, which in this instance comprised land-based aircraft and a flotilla of assorted small coastal combatants. But the security of the escorts depended upon air cover, present or prospective, from the American carriers standing outside the Strait of Hormuz.

Safe transit through the Gulf waters also depended on mine-clearance operations, carried out largely by European countries, which had joined the effort by the mid-1980s.

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The axiom that “a ship’s a fool to fight a fort” is tempered by the caveat that in order to influence events on land, navies must either circumvent or destroy the enemy’s ability to send land-based aircraft and missiles over the coastal seas.

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In the first cruise-missile attack on a ship, during the Arab-Israeli War of 1967, an Egyptian salvo of four Soviet-made Styx missiles sank the Israeli picket-destroyer Eilat. In 1970 the Egyptians conducted what was in effect a live-target test of the ability of the Styx to home on targets smaller than a destroyer; they fired four missiles and sank an Israeli fishing boat, the Orit. In the Indo-Pakistan War of 1971, India successfully employed nine Styx missiles against Pakistani warships and merchant vessels, some of which were in port.

Next came the best wartime laboratory for study of missile combat—the Arab-Israeli War of 1973. The two sides exchanged 101 Styx and Gabriel missiles in five separate battles with devastating effects on the Syrian and Egyptian flotillas and no harm whatsoever to the Israelis.

After that came the South Atlantic War of 1982, in which Argentina achieved well-publicized results with air-launched Exocets and, for the first time in combat, with land-launched missiles as well. In the same war, but less well-known, Royal Navy helicopters launched Sea Skua air-to-surface missiles at two Argentine patrol boats, sinking one and severely damaging the other.

In February 1991, during the Persian Gulf War, two Silkworm antiship cruise missiles (ASCMs) were launched from a land site in Kuwait, aimed at the USS Missouri (BB 63), which was bombarding Iraqi positions with 16-inch shells. Although the Silkworms malfunctioned and did not inflict any damage, the incident is noteworthy as the first and only time in a war that a ship-fired surface-to-air missile has shot down an ASCM, the honor going to a Sea Dart fired by HMS Gloucester.

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Whether in terms of incidents, damage achieved, weapons fired at a target, or cost of ordnance expended, missiles and missile warfare dominate modern combat at sea.

Briefly, large, defenseless commercial ships showed very high hit-probabilities, but the damage by no means has been uniformly fatal. Hit-probabilities against warships that defended themselves were far lower, yet substantial and usually with devastating effect. Perhaps the most interesting and alarming statistic is the number of successful attacks on defendable ships, such as HMS Sheffield, that failed to protect themselves.

Disconcerting in its tactical implications is the case of the Atlantic Conveyer, hit and destroyed in the South Atlantic War. Two Exocets, launched by a pair of Argentine Super Étendard jet fighters, homed on HMS Ambuscade, one of the screen ships in the Royal Navy formation stationed east of the Falklands. The Ambuscade launched chaff, which distracted the ASCMs and saved her from harm. But once the Exocets had flown through the chaff cloud they searched for another target and found the SS Atlantic Conveyor, destroying the ship and the important cargo on board. By saving herself, Ambuscade failed in her mission to protect the other ships in the formation.

A further irony is that the Argentine pilots actually had hoped to hit the aircraft carrier HMS Hermes, which was also in the formation and had a flight-deck full of Harrier jets.

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If there is a new lesson from the South Atlantic War, it is not that warships are vulnerable to missiles, but that aircraft armed with bombs cannot compete against warships that are equipped with modern defenses.

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Large, protected ships such as battleships are valuable partly because they can take hits and continue fighting.

[…]

Ships must have warning in order to deal successfully with missile attacks. In modern sea warfare the outcome between two forces armed with missiles will often be decided by scouting and screening effectiveness before any missiles actually are launched.

[…]

In World War II it took a lot more punishment to sink a warship than to incapacitate it. Comparing tables 7-1 and 7-2, the average was five times as many 1,000-pound bombs and two or three times as many torpedoes.

[…]

Beall’s conclusion is that vulnerability is proportional to the cube root of displacement. Since displacement is roughly proportional to the three dimensions of length, beam, and draft, the cube root reduces the measurement to one dimension. The Brookings study concluded that a hit by one large warhead would incapacitate a modern warship up to 300 feet long, and another similar warhead is required for every additional 100 feet. By that measure, the Proceedings article concluded that to kill (not sink) an aircraft carrier would require seven missile hits, three missile hits would kill an Aegis cruiser, one or two were required for a frigate, and one would be enough for a patrol craft.

[…]

The results are disconcerting to the tactician because all of them show the flatness of the kill curve. In fact, the BuShips data indicate that only a few more hits were required to sink a battleship or carrier than to sink a heavy cruiser. Can modern designs be effective against cruise or theater ballistic missiles to keep a modern combatant in action? The classified 1990 study by NSWC Carderock asserted that a great deal can be done; moreover, the toughening will come at only a modest increase in cost. Whether this is so, the Navy’s current inventory is mainly in large warships that are potent offensively but depend almost entirely for survival on reducing susceptibility by a layered defense of combat air patrols, SAMs, and hard-kill and soft-kill point defenses. Even more important, American warships depend for survival on out-scouting the enemy and attacking him not only effectively, but decisively first. These are tactics suitable for a fleet in the open ocean. The tactics will lose their efficacy in littoral waters.

[…]

Since a large ship enjoys economies of scale, it will carry more fuel, ordnance, aircraft, or Marines than several smaller ships of the same total cost. The analytical conclusion is, therefore, “bigger is better.” The important disadvantage of a large, supposedly efficient ship is the hazard of putting many eggs in one basket. Indeed, the Beall, Humphrey, Schulte, and BuShips studies all reflect a diseconomy of scale. If a 60,000-ton ship carries twenty times the payload of a three-thousand-ton ship but can only take three or four times as many missile or torpedo hits as a small one before it is out of action, then that is a substantial disadvantage offsetting its greater payload.

[…]

Coastal navies use land installations to scout and attack from as safer, cheaper, and more resilient than large warships. Their fighting ships are small and heavily armed. They depend for success on stealthy attack and surprise by out-scouting the enemy. Their ships are short-legged with austere habitability, because they can sortie to perform brief, stressful tasks.

[…]

Borrensen puts the operational aim of a competent coastal defense in full strategic context: a coastal state will not attempt to defeat the navy of a maritime state, but instead will endeavor to inflict sufficient pain on that navy in an extended campaign so that the enemy will not think the game worth the candle.

[…]

Joergensen offers a pointed warning that the U.S. Navy is not sufficiently configured or practiced to defeat a coastal power without severe losses. The implication of both articles is that it will not take a high-technology coastal defense to inflict pain and suffering on a high-technology, blue-water navy.

[…]

The U.S. Navy’s principal responsibility is to safeguard the oceans almost anywhere, though not everywhere at once. The other side of the coin is to deny movement of enemy shipping and the means of war—an easier mission that usually comes with the territory when the first mission is achieved.

Weakness that comes from disregarding these two missions invites another country to build up a blue-water fleet to move into the power vacuum.

Any encyclopedia of war will show that there have been far fewer sea battles than land battles throughout history

Monday, March 30th, 2026

Fleet Tactics and Naval OperationsWhen World War II ended, Fleet Tactics and Naval Operations explains, the U.S. Navy shifted its focus from battle tactics to a wide array of fleet operations that included an unprecedented long-term presence in the European and East Asian theaters:

The new war-at-sea component might well have been called “operational logistics” because the huge geographical span typical of operations at sea entailed the movement of maritime forces over vast distances. A map of a maritime theater usually covers an area at least ten times as large as that of a typical ground campaign, and some 80 percent of the planning and effort in a modern naval campaign—or even a peacetime “presence” operation—involve supplying vessels and air fields with the supplies and ammunition that they need.

Over the centuries the foremost objective of sea power has been to influence events on land by delivering ground forces and supplies to the battlefield via the oceans and, more recently, by conducting air strikes against targets on land and destroying enemy resistance when necessary. Only secondarily have naval forces conducted operations exclusively for a narrowly maritime purpose, such as protecting fishing and offshore oil rigs.

[…]

Uhlig emphasizes three ways that the Navy has contributed to U.S. success: (1) to ensure “that friendly shipping [in the broadest sense] can flow”; (2) “to ensure hostile shipping cannot”; and (3) having accomplished these two things, “navies can risk landing an army on a hostile shore, supporting it with fire and logistics.”

[…]

The oceans are a vast two-dimensional highway, and historically the shipping that traverses them has required naval protection. Whichever country has controlled the seas has enjoyed a great advantage; invariably, losing that edge has led to dire consequences. There is uncontestable historical evidence that naval powers usually defeat land powers. That was the theme of Mahan’s work, beginning with The Influence of Sea Power upon History, 1660–1783.

[…]

Professor John Arquilla of the Naval Postgraduate School has provided a recent, more quantitative book in his landmark treatise, Dubious Battles, in which he offers evidence of an even bolder assertion—that in conflicts since 1815, land powers not only have usually ended up being defeated by sea powers, but they almost always have started the wars they later lost.

[…]

A navy is a means to the end of controlling an enemy land force. Although there have been some exceptions, rarely has the center of a military conflict been on the oceans or in the air. Sea power’s greatest payoff comes from the highly efficient movement of goods and services into either friendly or hostile territory.

[…]

A battle fleet of capital ships and accompanying forces meets and destroys the enemy’s battle fleet.

[…]

Cruisers attack enemy commerce or help defend it from attack.

[…]

A third category for today’s fleet is a flotilla that operates in littoral waters that are too dangerous to expose a battle fleet of large capital ships. Since the beginning of the twentieth century maritime powers have used a distinctively different fleet of small combatants, usually armed with torpedoes, to fight the enemy in the coastal waters of the Baltic, North Sea, and Mediterranean Sea, and in the Dardanelles.

[…]

First, sea power prevents the enemy from attacking from the sea. Second, it gives a maritime state the freedom to choose the scene of action anywhere on a land power’s coast. The reason, Bubke explained, was the operational movement advantage that ships have over almost any form of ground transportation. At sea an amphibious force will move around five hundred nautical miles a day. Fast containerships will move farther still, but in the twentieth century the norm for merchant ships was more like four hundred miles a day. By contrast, on land an army moving at operational speed against weak opposition will advance only about twenty-five miles a day. The famous German blitzkrieg in Poland and France in 1939 and 1940 moved no faster than that. In operation Iraqi Freedom in 2003 the American army took three weeks to reach Baghdad, which was hailed as a swift advance against moderate opposition of fifteen miles a day.

Thus, in terms of speed, ships involved in an operational movement have at least an order-of-magnitude advantage over an army advancing against light resistance on land. In terms of the number of logistical personnel required to move a force to the scene of action and sustain it, the advantage of ships over land transport is one or two orders of magnitude. In the weight of combat potential carried to the scene of action per unit of energy expended, the ships’ advantage can be two or three orders of magnitude.

[…]

Nevertheless, Bubke shows clearly that because a sea power cannot be invaded it does not have to maintain a large standing army in peacetime, and often it can find and fund allies for coalition operations against the dominant land power that threatens them.

[…]

Any encyclopedia of war will show that there have been far fewer sea battles than land battles throughout history.

[…]

Until the twentieth century surface raiders and pirates routinely evaded searchers for months at a time. The onset of aviation enabled army (and later navy) scouts to cover wide swaths of ocean and report the raiders’ positions by wireless radio. Within a decade, the raiders had all but disappeared.

[…]

Historically, naval strategists have sought to equip more and more ships, including commercial vessels, with weapons. In the Anglo-Dutch wars, for example, both sides employed armed merchant ships, which could be built quickly in large numbers and armed with the best weapons of the day. Today missiles of various ranges and homing characteristics can be placed in manned and unmanned ships and aircraft at a relatively low cost. With the onset of information-warfare concepts, this looks like the beginning of a lasting change in naval warfare.

[…]

In the seventeenth century the Dutch and English fought repeated campaigns that were almost completely restricted to the seas. This phenomenon was tied to technology. At the time, an entire fighting fleet could be built in a few years. A country’s whole navy could be lost in a crushing and decisive battle, yet it could be restored and ready for action within a few years. Hence a fleet was more often risked.

The eighteenth century marked a transition period in which ships became larger, more heavily armed, and more expensive. There were fewer battles, and naval commanders became more cautious, partly because it took much longer and cost more for a defeated state to replace its losses or build a new navy.

During the battleship era of the early twentieth century the number of battles continued to decline. Between 1890 and 1910 the world’s sea powers built seventy-four pre-dreadnought classes of battleships; yet, during the entire battleship era, from roughly 1885 to 1935, there were only seven fleet actions for command of the sea. 11 The statistics provided strong evidence to support the maxim that arms races do not lead to war, but rather that the prospect of war leads to arms races.

[…]

Part of the reason for the decline in the incidents of major sea actions was the dominance of Great Britain, with its policy of enlightened self-interest, during the nineteenth-century era of Pax Britannica. Under British policy, the Royal Navy protected the trade of all friendly nations. As a result, the number of naval battles fought on the high seas (and those fought near land) remained low from 1815 to 1894.

[…]

Our own review suggests that using quantitative operations analysis techniques has yielded greater benefits in achieving wartime success than employing tactical analysis, which relies on highly variable hit probabilities, damage estimates, casualty ratios, Lanchester and Salvo equations, and other measurements to evaluate combat performance.

It was the destroyers’ torpedoes, not the cruisers’ guns, that ruled at night

Saturday, March 28th, 2026

Fleet Tactics and Naval OperationsRadar and radar countermeasures were the most important of the sensory tools that came of age in World War II, Fleet Tactics and Naval Operations explains:

This category also includes the proximity fuze—a tiny, shock-resistant radar that significantly improved the effectiveness of weapons of many kinds. Used in shells fired against aircraft by a 5-inch, dual-purpose gun, the proximity fuze not only increased the allowable fire-control dispersion error by two or three times, it also simplified a three-dimensional fire-control problem by effectively turning the target area into a two-dimensional challenge.

[…]

Britain established the first five radar stations, on the east coast of England, in December 1935.

[…]

The radiation laboratory at the Massachusetts Institute of Technology, for example, increased its hiring a hundredfold—from forty to four thousand—to accommodate research in the new field of technology.

[…]

As a tool of war, radar was ubiquitous. By the end of 1939 shipboard prototypes were being tested for long-range aircraft detection, antiaircraft fire control, and surface tracking. British and American collaboration produced a series of remarkable breakthroughs beginning in 1940. Centimeter-wavelength radars were ready for production in 1942, offering sufficient definition to be used for detection of single aircraft, for fighter direction, day or night, and for accurate gun-laying for both surface and AAW targets. By 1943 radar had been fitted in enough reconnaissance aircraft to have a major influence on search-and-attack missions against surface ships, and in enough antisubmarine patrol aircraft to reverse the momentum of the U-boat campaign in the Atlantic. From 1940 on, radar was vital to fighter defenses over land, and it was the key to the effectiveness of the offensive fighter and bomber sweeps before the Normandy invasion. For antiaircraft defenses, radar was just as important over land as at sea.

Radar quickly became an indispensable navigating tool as well. It permitted high-speed surface operations in narrow seas, and it came to be relied upon so much that when a ship lost her radar at night she was literally and psychologically lost.

[…]

From the outset, Japanese tactics usually called for approaching in short, multiple columns, getting all ships into action at once, and maneuvering in defense against torpedoes. Sometimes destroyers would be positioned ahead as pickets to avoid ambush. When the pickets detected an enemy force, they would close, pivot, fire torpedoes, and turn away. Sometimes they would not fire their guns at all.

The U.S. tactic was to use a long, single, tightly spaced column. The Navy expected and achieved first detection and tried to position its columns so that all guns would bear across the enemy’s axis of approach, crossing its T.

[…]

It was at the Battle of Vella Gulf on 6 August–7 August 1943 that U.S. tactics came together.

[…]

Both divisions would move in, their bows to the enemy torpedo threat, wheel around, and launch their fish. As with Japanese tactics, all this would be done stealthily, without gunfire. After the shock of the torpedo barrage was over, gunfire and aggressiveness could be used in proportion to the damage done, but at that stage the destroyers would have to watch out for the death-sting of the now alerted enemy.

[…]

The firing range was just 6,300 yards for a running range of 4,000 yards—as good a setup as could be expected, and all one could ask for. A minute later, a “turn nine” order came from Moosbrugger. His division executed a simultaneous 90-degree turn to starboard to clear out, combing the wakes of the predictable enemy torpedo counterattack. At the same time, Simpson wheeled his three destroyers to port and bored in.

[…]

As in all good naval battles, the outcome was determined by the adoption of a feasible plan whose tactical cohesion came from training, good scouting, and the swift thrust of a killer weapon.

[…]

They could now beat the Japanese with torpedoes—their adversary’s superior weapon. Good sensors, tactics, and scouting could overcome better firepower. And the United States would win with small ships because the destroyers carried the big weapon. It was the destroyers’ torpedoes—not the cruisers’ guns—that ruled at night. Hit-and-move was the answer, not crossing the T; units had to be nimble rather than fixed in a sturdy, steady, cohesive—and suicidal—column.

[…]

In the conditions under which these battles were fought, crossing the T meant very little. The best tactic was to approach on a broad front, bows on (short columns abreast in practice), wheel anywhere within range and fire a barrage of two or three dozen torpedoes, then point all sterns toward the enemy’s reply. One of the American errors was to forget that combat is two-sided competition. Line tactics were based on the strength of the broadside, which nominally had twice the firepower that could be unleashed end-on. Line tactics overlooked the fact that a beams-to column exposed ten times as much hull to torpedoes as a line abreast pointed toward or away from the enemy. In force-on-force computations, by using the line-ahead formation the U.S. Navy imposed a fivefold penalty on itself.

There was a no-man’s-land of at least five miles in which no cruiser belonged. Experience had shown that with a torpedo barrage a handful of small ships could destroy a force that was larger and superior in killing power, at least by conventional reckoning. Somewhere in the Valhalla of warriors, Jellicoe must have looked down on those dark nights punctured with the violence of the torpedo and with a thin smile, shaking his head at the Americans who took so long to learn what he knew in 1916.

[…]

If one counts large, light, and escort carriers together, then during World War II the aircraft of all countries sank twenty carriers, totaling an aggregate 342,000 tons. By comparison, submarines sank fifteen carriers amounting to 306,000 aggregate tons. For their part, surface warships sank only two carriers, for a total of 30,000 tons.

[…]

Nazi Germany missed a golden opportunity to exploit land-based aircraft at sea. After the fall of France, a few sorties by the Luftwaffe demonstrated that its medium-range bombers could attack Allied Atlantic convoys effectively. But Hermann Goering’s penchant for attacks on land targets ruled out the development, production, and commitment of German aircraft to attack shipping in great numbers. The possibility that Germany might wake up to the opportunity haunted the harried Royal Navy through much of the war.

The Middle East is a region composed primarily of poor, strategically unimportant countries

Friday, March 27th, 2026

Bret Devereaux argues that the Middle East is a region composed primarily of poor, strategically unimportant countries:

The entire region has exactly two strategic concerns of note: the Suez Canal (and connected Red Sea shipping system) and the oil production in the Persian Gulf and the shipping system used to export it. So long as these two arteries remained open the region does not matter very much to the United States. None of the region’s powers are more than regional powers (and mostly unimpressive ones at that), none of them can project power out of the region and none of them are the sort of dynamic, growing economies likely to do so in the future. The rich oil monarchies are too small in terms of population and the populous countries too poor.

In short then, Iran is very big and not very important, which means it would both be very expensive to do anything truly permanent about the Iranian regime and at the same time it would be impossible to sell that expense to the American people as being required or justified or necessary. So successive American presidents responded accordingly: they tried to keep a ‘lid’ on Iran at the lowest possible cost.

The phenomenal shift in tactics during World War II took almost everyone by surprise

Thursday, March 26th, 2026

Fleet Tactics and Naval OperationsThe phenomenal shift in tactics during World War II took almost everyone by surprise, Fleet Tactics and Naval Operations explains:

Even the airpower zealots, who professed to have foreseen the tactical revolution, had been too conservative in their predictions.

[…]

To illustrate: in 1940 two German battleships caught the British aircraft carrier HMS Glorious in the open sea and sank it; by 1944 U.S. Fleet anti-air warfare (AAW) defenses were so impregnable that Japan had to abandon bombing attacks and instead resort to kamikaze missions. Land-based horizontal-bomber attacks against warships—the original mission of the B-17—proved not to be effective. The torpedo bomber, while scoring successes, came to be a kind of unintentional kamikaze. In the end only the dive-bomber spelled the difference.

[…]

For one thing, aerial bombing tests in the early 1920s against the old U.S. battleships Indiana (BB 58), New Jersey (BB 62), and Virginia (BB 64), and the new but uncompleted Washington (BB 56), along with Billy Mitchell’s rigged attacks on the Ostfriesland, proved not so much that heavy bombs could sink warships as that the aircraft of that day would have great difficulty sinking a moving, well-defended, buttoned-up warship.

[…]

Between 1922 and 1925 the budget for naval aviation held steady at 14.5 million dollars while that for the Navy as a whole shrank 25 percent. From 1923 to 1929 the naval air arm increased by 6,750 men, while Navy manning overall decreased by 1,500—and those figures do not include the crews of the manpower-intensive USS Lexington (CV 2) and USS Saratoga (CV 3).

In an astonishing sleight-of-hand, all five major signatories of the Washington Disarmament Treaty of 1921 were permitted to maintain substantial total carrier tonnage—135,000 each for the United States and Great Britain; 81,000 for Japan; and 60,000 each for France and Italy—at a time when “no naval power … possessed a single ship that could be applied against the allowed carrier tonnage.”

[…]

In sum, the Washington Treaty and those that followed it over the next several years did not impose a constraint on airpower, but rather provided an incentive for expanding it.

[…]

In the delicate balance of interactions it is noteworthy that the greatest swing factor in the battleship versus carrier issue may have been the actual performance of the newly introduced technology of radar. If [radar] had proven more effective in directing heavy AA guns [or if, as others have said, the proximity fuze had come along a few years sooner], the effectiveness of tactical strike aircraft might have been largely neutralized. If it had been markedly less effective for early warning and fighter direction, carrier vulnerability might have been too great to bear. In either case, the fleet would have been dramatically different in 1945.

[…]

Aircraft were essential as scouts and—not to be overlooked—acted as spotters for gunfire in those days before radar.

[…]

“Opposing carriers within a strategical area are like blindfolded men armed with daggers in a ring. There is apt to be sudden destruction to one or both.”

[…]

In large measure the fleet tactics anticipated for World War II were similar to those that had been used in the previous war, except that aircraft, the new mad dogs of their day, would finally fight one another in the air. This outlook prevailed in all navies. After the war actually broke out, tacticians had to adapt so extensively that by the end of the war every major category of warship that the U.S. Navy was deploying—except for minecraft—was being used for a different purpose from the one for which it had been built. The striking and supporting roles of battleships and aircraft carriers were reversed; heavy cruisers, designed in part for fleet scouting, did almost everything but that; light cruisers, designed as destroyer-leaders, became AAW escorts for carriers; destroyers, conceived for defending the van and rear of the battle line against torpedo attacks from other destroyers, were adapted to function as antisubmarine warfare (ASW) and AAW escorts; and submarines, designed for forward reconnaissance and attacks on warships, were diverted to attack merchant ships and the sea lines of communication.

[…]

The Japanese solution was three-fold—to seek qualitative superiority in battleships, naval aircraft, and submarines; to outnumber the U.S. Navy in cruisers and destroyers; and to develop complicated but coherent tactics that would whittle down the American battle line before the decisive battle, which would then be fought in the western Pacific.

[…]

Thanks to prewar experimentation, both U.S. and Japanese naval aviators understood the advantages of the circular formation for the defense of a carrier.

[…]

The increasing maximum range of attack aircraft opened up the possibility of mounting joint sorties from two or more carrier formations that were physically separated by hundreds of miles. In practice, the need for radio silence hampered—perhaps even spoiled—this possibility, and the United States never entertained it.

[…]

Carriers dominated the daylight hours, but they were sitting ducks for gunfire at night.

[…]

Typical American planning before the war would have held that the U.S. battle fleet steaming west to relieve Guam and the Philippines would be met by the Japanese battle fleet and a great decisive action would take place. It is true that as logistical considerations intruded, this simple tactical paradigm was complicated by the need for bases and the fleet train. But guarding the train or an invasion force was not yet a mission about which fleet tacticians worried much.

The airplane changed that. Until there was a threat of invasion by the navy on the strategic offensive, a weaker battle fleet on the defensive could not be induced to fight. But an invasion force had the responsibility of protecting amphibious assault ships, and with aircraft in the offing this presented new and complicated problems. Aircraft had to cover the transports as well as attack the enemy.

[…]

Fiske envisioned a mutual exchange of salvoes that would erode the residual strengths of both sides simultaneously. His aim was to show the cumulative effectiveness of superior firepower; how a small advantage could dominate the action if it could be exploited with coherent maneuvers; and how the inferior force would inflict disproportionately scant damage no matter how well the battle was handled tactically. Gun range was a matter of indifference to Fiske because both sides faced essentially the same range. He felt free to disregard (at least for purposes of illustration) the possibility that one side could out-range the other and maintain a significant advantage. In effect, the pace of the battle would accelerate as the range closed, but the final ratio of losses would not change.

His model took into account the “staying power”—that is, warship survivability—in accordance with the assessments of his day: a modern battleship would be reduced to impotence in about twenty minutes by unopposed big guns within effective range.

The gunfire model of simultaneous erosive attrition does not work for the World War II carrier offensive force. That force is best represented as one large pulse of firepower unleashed upon the arrival of the air wing at the target.

[…]

So in carrier battles, the crucial ingredients were scouting effectiveness and net striking power.

[…]

The wisest conclusion is probably that in 1942 single-carrier screens were best because defenses were poor, aircraft could be launched and landed more efficiently when carriers had their own screens, and attacking first was the primary objective. Single carriers separated by even as little as ten or twenty miles might escape attack, as the carriers Zuikaku in the Coral Sea and Saratoga in the eastern Solomons did.

By 1944, however, U.S. tacticians had concluded that they could give up something in offensive efficiency to exploit the potentially withering defenses of the tight AAW circle. U.S. formations enclosed three or four carriers, and the entire disposition was kept close enough so that the entire fleet could be protected by a massed CAP.

[…]

As the war progressed, the U.S. Navy strengthened its carrier defenses. First, it increased the number of fighters at the expense of bomber totals. Second, it steadily added AAW batteries, it began using the Atlanta-class AAW cruisers, and, starting with the Battle of the Eastern Solomons, it integrated fast battleships into carrier screens. Third, it emphasized and improved damage-control procedures and equipment on its warships. As a result, defensive considerations came to dominate and ultimately the destruction of aircraft became more significant than the destruction of carriers.

By 1944 the simple but elegant model of the carrier battles in use for the two previous years was beginning to fail. It asserted that one carrier air wing would, throughout 1942, sink one enemy carrier if and when it found a carrier:

CVs out of action = Attacking airwings

[…]

In 1944, when the U.S. Fleet swept across the Pacific from Pearl Harbor to the Philippines in less than twelve months, it was so strong that it could accompany the landing force and dare the Japanese to come out. It had a two-to-one numerical advantage in carriers, decisive in itself, and an even greater advantage when the quality of pilots and screening ships was factored in. Moreover, it no longer was necessary for U.S. forces to attack first. Mass and unity of action were the keys to effective application of force.

[…]

Although we are not likely to see the Pacific war over island air bases reproduced, we can anticipate the recurring tactical problem that a commander with superior forces faces when pitted against enemies who know their own inferiority and decline battle. When mounting an attack on a land target is the decided-upon way of drawing out an inferior enemy, it is too easy for planners to permit the land attack to become the end itself and to forget that the attack is but the means to a greater end—in this instance that of destroying the enemy’s seagoing forces.

[…]

The Japanese had to attack effectively first. A simultaneous exchange of attacks with similar losses on both sides would ruin them in the long run because they could not afford to exchange carriers on a one-for-one basis. They had to attempt stealth, deception, and divided forces as a calculated risk. They gambled, likely even believed, that one carrier could sink two. Even though they were wrong, it was still a good gamble at the beginning of 1942; by the end of 1942, it was a very bad gamble.

There were many reasons for the resurgence of defense. True, AAW guns alone could have been enough to cause it, but the final and decisive factors responsible for the success of American defense were two factors that the Japanese could not possibly fold into their early planning—radar and cryptanalysis. Except in the Battle of Britain, nowhere was radar more quickly put to decisive use than in the Pacific carrier battles. Cryptanalysis for its part almost eliminated the chance of the Japanese achieving surprise. Stealth and deception were foredoomed.

The idea behind the SCAMP was similar to that of modern personal defense weapons

Wednesday, March 25th, 2026

This piece on five firearms that died at the prototype stage features the usual suspects — SPIW, HK G11, HK XM8, XM25 — and one I wasn’t familiar with, the Colt SCAMP:

SCAMP (which is such a rad name for a gun) stands for Small Caliber Machine Pistol.

The idea behind the SCAMP was similar to that of modern personal defense weapons: it was intended to arm officers, vehicle crews, and personnel who weren’t on the front lines. These personnel were often issued the M1911, a .45 caliber handgun; and the SCAMP gave the troops increased firepower over the M1911 thanks to its select fire.

Colt SCAMP Drawing

Machine pistols are famously difficult to control, so to make the SCAMP easy to use, it was chambered in a new cartridge called the .22 SCAMP which was a fast 5.56x29mm round.

The small round resulted in light recoil; further, an integrated compensator helped increase the pistol’s overall control. The smaller round also allowed for a magazine capacity of 27 rounds.

By all accounts the SCAMP was a controllable and easy to shoot weapon. What sent it to the graveyard was that the military simply wasn’t willing to part with the M1911 at that time. Handguns are very rarely used in combat, so the investment into a new platform and ammo wasn’t an attractive prospect.

The years from 1865 to 1914 marked a golden age of tactical thought

Tuesday, March 24th, 2026

Fleet Tactics and Naval OperationsFor the world’s navies, Fleet Tactics and Naval Operations explains, the years from 1865 to 1914 marked a golden age of tactical thought, without parallel before or since:

One cannot read letters and papers of naval officers such as Ambroise Baudry, Bradley Fiske, Romeo Bernotti, William Bainbridge-Hoff, and Stepan O. Makarov, and naval journals around 1900 without being inspired by the tremendous outpouring of technical and tactical creativity.

[…]

In the end, tactical analysis erred in only two significant respects: it too often overvalued the impact that greater speed would have on fleet actions, and it failed to foresee the limitations that poor visibility would continue to impose.

[…]

With the exception of modern methods of fire control and the self-propelled torpedo, all of the elements for the transition from sail to steam warships were conceived between the Napoleonic Wars and the American Civil War. The list included steam propulsion and screw propellers; iron hulls and armor; bigger guns with greater muzzle velocity and more penetrating power; breech-loading guns; effective shells and their necessary companions, fusing and rifled gun barrels; and gun turrets.

[…]

The British, slow as they were to adopt iron hulls, never built another wooden-hulled ship after they launched the formidable nine-thousand-ton HMS Warrior in 1860; instead, the Royal Navy was replaced from scratch. Strategy, too, was overturned. The advent of reliable steam propulsion set off a worldwide race to provide for coaling stations—a move made necessary by the spread of colonialism; in turn, the construction of more coaling stations made it easier for countries to support still more colonies.

[…]

Not only could a superior fleet now attack directly into the wind, but it could close an enemy in the lightest wind and run the gauntlet of opponents’ fire at double or triple the former speed.

[…]

At this stage armor was ahead of armaments in the race for technological superiority, so the attractiveness of the ram was linked to tactical mobility, kinetic energy, and the ability to close an enemy whose effective range and rate of fire had not kept pace with ship speed.

[…]

Ironclads, not very seaworthy, nonetheless demonstrated their ability to stand up to forts and land batteries—a capability that hastened their development over the next several years and in the U.S. Civil War. In 1853 the Battle of Sinope was seen as the proving ground for the explosive shell. Six large Russian ships descended out of the haze on 7 hapless Turkish frigates and smashed them all, killing or wounding nearly 3,000 Turks with the loss of only 266 Russians.

[…]

The U.S. Civil War was almost devoid of fleet-on-fleet battles. Almost all fleet actions were what we call today littoral operations—inshore work—undertaken to control seaports, harbors, and rivers.

[…]

The ascendancy of armor plate over gunshot and early shells was so fleeting that some analysts are prone to make light of the ram. But writings of the 1870s and 1880s extolled the ram. For some twenty-five years the mobility of steamships enabled them to “charge”—a common description at the time—through a gauntlet of effective fire that was short, only a half mile deep at most. A fleet of rams could run eight hundred yards in three minutes or less and (it was thought) devastate a column that was armed with guns. And it could steam right into the wind. The more a defensive column closed up to concentrate its fire, the more vulnerable it was to ramming. The bigger the fleet was in single column, the longer the column and the easier it was for a ramming fleet to concentrate on a single segment.

[…]

Between 1877 and 1879, just before the end of the ram’s perceived dominance, there were some engagements on the west coast of South America that indicate what might have happened had major fleets engaged in battle. In four drawn-out fights between one or two ironclads and other warships, there were several attempts to ram the opposition force, and nearly all of them were unsuccessful. The performance showed that it had been underestimated how difficult it would be to hit a moving target, especially in engagements where ships were freer to move than they would have been in larger fleet actions.

[…]

It is widely thought now that gunnery usurped the ram, or that the ram was never an effective weapon at all. A better conclusion is that the torpedo superseded the ram. The Whitehead torpedo was a ram with reach: if it hit, it was almost as lethal and was a lot safer to use. As a result, the study of gunnery became as obsessed with countering torpedo boats as it had been with regard to penetrating armor.

[…]

The Spanish-American War proved that even when gun shells had the potential to penetrate iron and steel plates, in at least two navies the gun could seldom hit a target in motion.

[…]

Admiral Fiske presented three rules of thumb:

A 6-inch gun fired eight times as fast as a 12-inch gun.

A 12-inch projectile carried eight times the energy of a 6-inch-gun projectile.

A 12-inch-gun system weighed eight times as much as a 6-inch gun.

Therefore, on equal ship displacements, 6-inch guns delivered eight times the projectile energy of 12-inch guns.

[…]

A significant break point occurred at the 6-inch gun, because its 100-pound projectile was the heaviest that sailors could handle.

[…]

Small-and medium-caliber gunfire could inundate an enemy at short range, as the Japanese amply demonstrated at Tsushima in the Russo-Japanese War (1905), where their gunnery ranges were maintained at four thousand to six thousand yards. To dominate the battle, big (10-or 12-inch) guns needed accurate fire control at ranges beyond the reach of medium (4-or 6-inch) guns.

[…]

Around 1910, when continuous-aim fire and director control replaced local gunlaying, the all-big-gun ship was certain to dominate.

[…]

By World War I, a mere ten years after Tsushima, big guns of the 12-to 15-inch class were the weapon, hitting repeatedly on a clear day after a few ranging salvoes out to eight miles and more.

[…]

Battleships did not defend themselves against torpedoes; light cruisers and destroyers were built for that purpose, and they would be responsible for fending off enemy destroyers and torpedo boats. Scouting cruisers were the eyes of the fleet and would remain so until airplanes or dirigibles were sufficiently advanced to do the job. Battle cruisers, a vestige of the late nineteenth-century influence of land combat on naval thinking, would be a heavy cavalry in support of the scouting cruisers and able in theory to outrange or outrun any opposition. Mines were a wicked and ungentlemanly threat in shallow water, but they were largely defensive and had to be planted by surface ships. Submarines, like mines that had a deep-water offensive potential, were worse—an instrument of the devil. The wireless radio was a new tool of command, above all useful tactically to speed the results of scouting.

[…]

When the big gun dominated, it was weapon range that made “crossing the T” so advantageous; instead of a single ship of the line in raking position, the whole fleet could concentrate fire on the enemy van.

[…]

Tactical discussions centered on how to cross the T. In tabletop tactical studies, the only means of achieving this concentration by maneuver was speed, and speed along with armor and armament was in every tactical and technological discussion. As events transpired, the tabletop would prove to be misleading.

[…]

Greatly increasing weapon range and effectiveness was also having a profound influence on the need for reconnaissance. The commander of a large fleet in World War I had to have information about the enemy’s force well before he could see it.

[…]

At Jutland both the British Grand Fleet and the German High Seas Fleet committed 20 to 25 percent of their heavy firepower and 35 to 45 percent of their supporting cruisers and destroyers to scouting forces.

[…]

The scouting line, which covered about 35 degrees on either bow of the battle fleet, was sufficient to sweep out a wide swath of ocean and protect against an undetected approach. No enemy could make an end run past the scouting line as long as the fleet was steaming ahead smartly. Reorienting the axis of advance of such a disposition was a tense and prolonged experience for every flag officer and ship captain.

[…]

The wireless made scouting lines feasible and enabled commanders to alter the cruising and battle dispositions of fleets themselves.

[…]

First, experience is the best way for a crew to learn the intent of its commander; teamwork is the result of a lot of work as a unit. Second, developing a set of simple, clear signals, used navy-wide and practiced frequently, is the next best technique for avoiding ambiguities and misunderstandings. Third, some messages will be lost, delayed, and misunderstood anyway; no human system can eliminate communication errors—they are to be expected and as far as possible hedged against in tactical doctrine. Finally, the more commanders plan in advance, doctrinally and operationally, and the simpler the plan, the fewer the communication gaffes will be and the more smoothly the action will flow.

[…]

And as for the execution of some theoretical tactical initiative on the spot, it would have been impossible. Only today’s game-players, who have the magical power to move whole fleets on video screens with buttons, can carry out such unpracticed maneuvers. An admiral of a fleet does not expect to exploit opportunities with tactics that have not been inculcated.

[…]

A handful of tactical surprises, however, did arise. Prominent among them was an almost total disregard before World War I of the importance of deception. Every major engagement in the North Sea, the cockpit of the naval war, was part of an effort at seduction. Both sides knew the advantage of numbers and the N-square law (described in footnote 11). Neither fought voluntarily when it was outnumbered ever so slightly; as a result, trap and counter-trap became the method of war, and more often than not the schemes backfired—even at the Battle of Jutland.

If planned surprise through traps did not work very well, unplanned surprise resulting from failures in scouting abounded.

[…]

A dominant feature of Jutland was poor visibility, caused by the gun and engine smoke of 250 warships. There is something about the game floor or video screen that deludes the tactical planner, who may forget that circumstances can drastically foreshorten opening ranges and change the whole nature of the battle. Certainly that is what happened to the Americans in the night actions around Solomons Island in 1942–43, when, unlike the rehearsals of the 1930s, the battles often opened at point-blank range.

[…]

Prewar writers thought, correctly, that gunfire would work very quickly once forces were within effective range. As a result, they envisioned elaborate maneuvers beyond effective range to achieve an advantageous position. In practice, however, it usually was futile to use engineering speed to achieve tactical advantage. The practical speed of a fleet was the speed of the slowest ship in formation.

[…]

The speed that mattered was in the realm of decision-making: decisions had to be made quickly and transformed into simple, correct maneuvers.

Nelson stands out in memory because the Battle of Trafalgar was the last big fleet action for more than a century

Sunday, March 22nd, 2026

Fleet Tactics and Naval OperationsFleet Tactics and Naval Operations starts with “the Age of Fighting Sail”:

Since it was natural for sailing ships to fire abeam, the practice of positioning ships in a straight line in order to fight an enemy was entirely logical for that day. At the same time, because the admiral’s signal flags—then the only effective way of communicating orders within a squadron or fleet—were difficult to see for vessels arrayed in a single line, command-and-control was more reliable if the admiral placed his flagship in the center of the column.

[…]

His objective was to bring all of his force against the enemy, “well ordered, well knit, and simultaneously,” and with no unengaged reserve. Training at sea improved captains’ seamanship skills, enabling fleet commanders to place a tightly spaced column alongside a raggedly disposed enemy line—a step that could significantly bolster the squadron’s collective firepower, especially in cases where enemy ships were spread thinly or where they overlapped and masked each other’s fire.

Indeed, it took skillful seamanship to bring the firepower of even two ships simultaneously against a single enemy. To be fully effective, guns had to be well within three hundred yards of the enemy, firing essentially at point-blank range. The maximum significant range for naval guns was eight hundred or nine hundred yards; beyond this the probability of hitting the enemy was remote and round-shot would barely be able to penetrate a hull. The firing arcs of broadsides were limited to about 25 degrees forward and aft of the beam. Training a gun was a slow and awkward process, so that, by and large, it was easier to train a ship’s guns by maneuvering the ship herself than by trying to turn her cannon to one side or another. As a result, it was rare for two consecutive ships in a column to enjoy the advantage of directing fully effective fire at a single enemy simultaneously.

[…]

The most effective method of massing force and increasing the density of firepower was to stack cannon vertically—hence the logic of building two-deckers and three-deckers.

[…]

In 1697 the highly respected Jesuit priest and French naval tactician Paul Hoste would write that the size of vessels contributed more than numbers to the strength of the fleet. Hoste cited two reasons—first, that larger ships had more and heavier guns, and, second, that a fleet of large ships would bring more and larger guns to bear in the same length as a column made up of smaller ships that were spaced more closely together.

[…]

From combat experience the two-decker was known to have more than a two-to-one advantage over a single-decker (which later would be known as a frigate).

[…]

Barring a lucky shot that landed in a magazine, ships were not often sunk by gunfire (although they later sank from hull damage, which is a separate issue). Ships were defeated by what today we would refer to as a firepower kill—by knocking out their guns and gunners and crushing the ships’ morale and their will to fight. As many ships were captured as were sunk. Since British seamen fought better and French ships had excellent sailing qualities, many of the ships sailing in the Royal Navy were rehabilitated French vessels.

[…]

According to the computation, with simple continuous fire on both sides and no hull strength advantage for either, the two-decker would lose only five guns, at the same time destroying the frigate’s entire broadside of eighteen.

[…]

If a two-decked seventy-four were matched against a three-decker rated at one hundred guns, then, using the same model and assumptions as before, the two-decker would be forced to capitulate before the three-decker had lost twenty guns.

[…]

Admirals also learned, however, that keeping a close interval between ships could provide them with increased mutual support, so the distance specified in their Fighting Instructions could be almost unattainably short—as little as three ship lengths between vessels.

[…]

A second reason for tight spacing was to prevent an enemy from breaking through the column and raking ships on either side with entire broadsides at pointblank range, and from an angle where the target ship was unable to return the fire.

[…]

As a result, the tactician’s primary problem during this era was to concentrate firepower at sea at a time when effective gun range was very short—less than five hundred yards.

[…]

The eighteenth-century French were such a reluctant enemy. Seeking to avoid a decisive action, they concentrated on improving their accuracy instead of on increasing the volume of their fire, arming their ships with more long-range guns, positioning themselves to leeward, and firing high into the rigging to cripple English ships, forcing them to slow, drop back, and weaken the line.

[…]

Nelson stands out in memory because the Battle of Trafalgar, fought on 21 October 1805, was the last big fleet action for more than a century. Yet, his fame does not rest on an accident of history. The reason that there were no more fleet actions was that Nelson did what no one else had been able to do: he eliminated the enemy fleet, ending the need for further fleet actions and setting the stage for a hundred years of British naval dominance.

[…]

The order of sailing will be the order of battle, he said. This notion, now a pertinent watchword for a modern fleet, was a stunning innovation in 1805.

One can learn the wrong lesson from Trafalgar. Had Nelson used his Trafalgar tactics against, say, Dutch Admirals Maarten H. Tromp or Michiel de Ruyter or France’s de Suffren, the result would have been disastrous. Every one of his ships in those light winds of October had to run a gauntlet of three or four unanswered broadsides, which would have guaranteed his defeat had his opponent been firstrate.

[…]

For the Dutch, commerce via the English Channel was survival. With it they would prosper; without it they would wither into nothing. Neither side could decline battle and still achieve its purpose in the war. It either built up its navy and fought, or made peace and lost its objective. The wars had limited objectives, so the winner could indeed anticipate a net financial gain and the loser could anticipate financial and national ruin. As a result, the motivation to fight and fight to win was strong.

[…]

It suited France’s strategic objectives to decline to engage in a decisive battle. For the French, the ocean was a flank to be held while the decision was fought out on land. Whenever they believed their war aim would be determined on land, they adopted one of two naval strategies: they either would maintain a substantial fleet to divert the British navy (not always successfully) and look for opportunities to do so, or they would conduct a guerre de course, raiding commerce in hopes of achieving a moderate gain at little cost.

[…]

When the Royal Navy learned how to close and fight a decisive battle, the French, who wished to avoid fighting, were devastated tactically and therefore were severely hampered strategically.

The A-10 wasn’t designed for drones

Saturday, March 21st, 2026

The A-10 Warthog is the ultimate drone hunter for the modern battlefield:

In an era where cheap, slow-moving drones like Iran’s Shahed-136 (and its Russian Geran-2 cousin) are flooding the skies flying at just 115 mph while costing as little as $20,000–$50,000 apiece traditional air defenses are bleeding money dry.

[…]

Here’s why the A-10 is built for this mission like no other platform.

1. Speed & Loiter Time: The Perfect Match for Slow Drones

The Shahed-136 cruises at a leisurely ~185 km/h. The A-10’s top speed is ~420 mph, but its real strength is its cruise and loiter speed around 300–340 mph at low altitude. It was designed to loiter for hours over the battlefield, giving pilots plenty of time to spot, track, and engage slow-moving targets that fast jets would blast right past. (Helicopters like the AH-64 Apache can do similar work, but the A-10 is faster, has far greater range, and can cover more ground without needing to land and refuel as often. In saturation attacks, one Warthog can patrol a wide area and knock down drone after drone on a single sortie).

2. Firepower: Cheap, Precise, and Devastating

The A-10’s legendary GAU-8 Avenger 30mm cannon is overkill for tiny drones one burst would shred a Shahed into confetti. But the real gamechanger is the APKWS II (Advanced Precision Kill Weapon System). These 70mm laser-guided rockets cost roughly $20,000 each a fraction of an AIM-9 Sidewinder or AMRAAM. An A-10 can carry dozens of them, turning the jet into a flying rocket truck with massive magazine depth. The FALCO software upgrade (cleared on the A-10) gives the rockets a proximity fuse and laser guidance perfect for subsonic, low-maneuverability drones. Pilots use targeting pods to paint the target the rocket does the rest. And if the drones get too close, the cannon is always there as backup.

3. Built Like a Tank

The Warthog’s famous titanium “bathtub” armor protects the pilot from ground fire up to 23mm. In drone-hunting missions, it can operate low and slow in contested airspace where fragile fighters or expensive stealth jets would be too vulnerable or too fast to be useful. Self-sealing fuel tanks and redundant systems mean it can take hits and keep flying exactly what you need when hunting cheap drones that might be escorted by basic air defenses.

4. Cost-Effectiveness That Actually Makes Sense

This is the killer argument in the drone age. Shooting down a $20k Shahed with a million-dollar missile is economic suicide. The A-10 flips the script: cheap rockets, reusable platform, and the ability to stay on station for extended periods. Analysts have called it a “sweet spot” platform faster than helicopters, slower and more persistent than F-16s or F-35s for this specific threat.

[…]

The A-10 wasn’t designed for drones, but the drone wars have found the perfect aircraft for the job. Its combination of loiter endurance, low-speed agility, massive cheap firepower, and legendary toughness makes it the ultimate drone hunter. While fifth-generation fighters chase high-end threats, the Warthog can stay low, stay long, and swat Shaheeds (and their kin) out of the sky for pennies on the dollar.

The difference between a good officer and a poor one is about ten seconds

Friday, March 20th, 2026

Fleet Tactics and Naval OperationsFleet Tactics and Naval Operations explains how naval combat differs from land combat:

For example, journalists who observed British and Argentine ships being sunk during the South Atlantic War of 1982 predicted there would be a dire future for surface warships because they had no knowledge of how deadly naval battles have been in the past.

[…]

An abiding success has been our adoption of the inelegant turn-of-phrase as our central maxim of naval tactics, “Attack effectively first.” It has proven to be accurate, enduring, and much quoted.

[…]

Another source of confusion is that substantial portions of modern “fleets” are land based. Much of the Soviet navy was made up of long-range bombers and missiles tasked with sinking American warships and shipping. The Chinese navy increasingly relies on those weapons as well.

[…]

Prominent among the terms used here is scouting, which means reconnaissance, surveillance, code-breaking, and all other ways to obtain and report combat information to commanders and their forces. For all practical purposes the Russian word razvedka means the same thing. Screening, another navy word of distinguished lineage, is very similar to antiscouting, but screening includes the possibility of attacking a threatening enemy.

[…]

Since a great constant of tactics is that there is never enough scouting capacity, these are some of a tactical commander’s most critical decisions.

[…]

This volume uses the word littorals to describe “where the clutter is”—first, the sea side of the littoral, where islands and inlets, shoals and shallows, oil drilling rigs, commercial air traffic, coastal shipping and fishing, and electronic transmissions of many kinds abound to complicate combat tactics; and, second, the land side, where airfields, missile-launch sites, electronic detection systems, and dense populations complicate coastal warfare.

Technological advances have extended the lethal ranges of missiles, aircraft, and unmanned systems; and satellites or over-the-horizon radars now extend detection well beyond the clutter into blue water.

In narrow waterways such as the Skagerrak Strait, Taiwan Strait, Dardanelles, Strait of Hormuz, and the Bab el Mandeb, the littoral extends from coast to coast.

[…]

The commercial airways of sea and land and radio broadcasts add to the clutter. Shoals and shallows affect underwater operations. A major factor in planning is the existence of so-called “moving clutter,” such as commercial ships and aircraft that are either transiting or operating in the region. In July 1988 the USS Vincennes (CG 49) mistakenly shot down an Iranian airliner in the belief that the plane was an attacking jet fighter. Again, in the confined Arabian Gulf during operations preparatory to Desert Storm, Iraqi ground forces fired two Silkworm missiles at the USS Missouri (BB 63), which was shooting 16-inch shells at Iraqi coastal emplacements. Although the Missouri was eighteen miles to seaward no U.S. escort vessel got off a shot, partly because in the coastal clutter that filled the area the Navy ships wanted to be sure they were not shooting at an innocent aircraft.

[…]

One may infer what it takes to win a battle from ADM Arleigh Burke’s often quoted words: “The difference between a good officer and a poor one is about ten seconds.”

[…]

Leadership, morale, training, physical and mental conditioning, willpower, and endurance are the most important elements in warfare.

[…]

Sailors matter most.

[…]

Doctrine is the companion and instrument of good leadership.

[…]

The nineteenth-century Prussian army leader Helmuth von Moltke said, “No plan survives contact with the enemy.” Nelson understood as well as anyone that doctrine is the glue of good tactics.

[…]

Tactical and technological developments are so intertwined as to be inseparable. That is why ADM Alfred Thayer Mahan, USN, rejected (rather too readily) the constants of tactics while promoting the principles of strategy.

[…]

To know tactics, you must know weapons.

[…]

The seat of purpose is on the land.

[…]

“A ship’s a fool to fight a fort.”

[…]

The tactical maxim of all naval battles is: attack effectively first.

[…]

There is no way to judge Napoleon’s assertion that “the morale is to the material as three is to one.” Although that may be true in ground combat, the ratio in naval warfare is probably narrower because in ships at sea the crews must go where the leaders go.

[…]

Superior tactics may tip the balance, but in the latter stages of a long war the wit and ingenuity required for such tactics ultimately are overshadowed by sheer grit.

At sea the predominance of attrition over maneuver is a theme so basic that it runs throughout this book. Forces at sea are not broken by encirclement; they are broken by destruction. Over the years naval strategists have been careful about committing their forces to battle at sea because of its awesome destructiveness. Compared with land warfare, major sea battles have been few and far between. Partly this is because the estimation of material superiority is relatively easier to gauge at sea than ashore, and strategists in an inferior navy have tended to avoid battle until the jugular vein was threatened.

As a result, a superior navy with a modest force advantage often has been able to contain and neutralize a strong enemy and carry out many strategic objectives without fighting—up to a point. Considering the death and destruction wrought by naval warfare, it may be that the very decisiveness of battle at sea, which so often leads tacticians to try to avoid it, is actually a virtue for which the civilized world can be grateful.

[…]

Doctrine is the commanders’ way of controlling their forces in writing before military action.

[…]

Two points about doctrine must be remembered—that it is vital and that it must not become dogmatic.

[…]

To a person, strong military leaders want freedom for initiative from their seniors and reliability from their juniors. Doctrine in the hands of able commanders will, at its most sublime, allow the achievement of both these things.

[…]

The clearest evidence of doctrinal deficiency is too much communication—reams of orders and directives that in the planning stage are little more than generalities and exhortations, and which defer too much to the moment of decision.

[…]

Doctrine is the basis for training and for measuring what training standards should achieve.

[…]

Doctrine provides continuity of operations when captains are transferred or killed.

[…]

Tactical doctrine is the standard operating procedure that the creative commander adapts to the exigencies of battle.

[…]

Paradoxically, doctrine generates initiative: a trained subordinate can see from it not only what will be done but what will not be done and will know—as Nelson did at Cape St. Vincent—how to save the battle.

[…]

These two facts are universally recognized: that continual advances in technology keep weapons in a state of change, and that tactics must be designed to fit the capabilities of contemporary weapons. The U.S. Navy in particular has been fascinated with hardware, esteems technical competence, and is prone to trying to overcome its tactical deficiencies with engineering improvements. Indeed, there are officers in peacetime who regard the official statement of a requirement for a new piece of hardware as the end of their responsibility in correcting a current operational deficiency. This is a trap. Former Atlantic Fleet commander ADM Isaac Kidd Jr. was always a champion of the need to be prepared to fight with what you have. And no wonder: his father died fighting in the USS Arizona (BB 39) at Pearl Harbor.

[…]

Our ablest naval officers were tacticians who knew their technology. RADM William S. Sims, with his continuous-aim fire; RADM Bradley A. Fiske, with his host of patents, including one for aerial-torpedo-release gear, before aircraft were even capable of lifting a torpedo payload; and RADM William A. Moffett and other early aviators who foresaw the day when naval aircraft would be potent ship-killers and who helped develop bigger engines, better navigating equipment, and carrier arresting gear—all machinery to fulfill their visions.

The great historian of the Civil War, Douglas Southall Freeman, condensed the ten commandments of warfare into three: “Know your stuff; be a man; and look after your men.”

[…]

But what is true in ground combat, where machines serve human beings, is magnified at sea, where human beings serve machines.

[…]

For one thing, the study of maritime history shows that fleet battles have been rare; once again, the most common use of navies has been for the landing of ground forces, the support of operations ashore, and the protection of shipping at sea.

[…]

The reason a fleet did not choose to fight protected land batteries toe-to-toe was well expressed by a man who ought to have known—John Ericsson, the designer of the armored Civil War ship Monitor. “A single shot can sink a ship,” he said, “while a hundred salvos cannot silence a fort.”

[…]

When guns had far shorter ranges than they do today, a fleet could risk a run past to get beyond them. The gauntlet of fire usually was short enough to endure—if the reward were worth the price. The American Civil War is full of examples of subtlety and brute force, of success and failure. The many Union fleet engagements with fortifications along the Confederate coast and western rivers show that victory was difficult to achieve, and that it depended on preparation, choice of the moment, and well-coordinated execution, often in cooperation with land forces.

Strange to say, after the range of cannon had increased substantially, large guns ashore were no longer the sort of “forts” that frightened battleship captains the most. In World War I torpedo boats, minefields, and submarines held the Royal Navy at bay. In that conflict and again in World War II, the narrow waterways of the English Channel and North Sea were the domain of a flotilla of many small combatants. The flotilla threatened (yet could not stop) coastal shipping, dropped off spies and raiders, and rescued pilots who bailed out over water.

In missions involving an attack on a fleet that was anchored in a protected port, many commanders chose to approach from the rear. That was the tactical plan at Port Arthur in the Russo-Japanese War, Santiago in the Spanish-American War, and Singapore in World War II. The attackers landed ground troops against weak opposition and away from the center of gravity—the harbor—so that it could be overwhelmed by land, though sometimes at considerable cost, lives and time required. At Guadalcanal, where the airfield was still under construction and not yet operating, the American Navy was able to put the Marines so close to land that the leathernecks could walk ashore.

[…]

In the battle over the Falklands, when the British were planning for their own amphibious landing, they saw that the islands covered enough real estate to ensure that their ground forces could get ashore at San Carlos Sound, remote from Stanley, banking on the navy’s mobility to help surprise the Argentine forces.

[…]

In the few times when the opposition was weak and Marine Corps losses light, Nimitz used the Navy’s mobility to strike across vast distances before the Japanese could prepare a fortified response. A second advantage—and offsetting the punishment to an opposed assault—was that the tactic isolated the defenders so they could not be reinforced.

[…]

GEN Douglas MacArthur’s long strides up the New Guinea coast are often cited for skill at maneuver warfare and his landing against weak opposition at Inchon is regarded as a masterpiece almost without parallel. This is the essence of operational maneuver from the sea and its latest Marine Corps manifestation, ship-to-objective maneuver.

[…]

In World War II, carrier air strikes greatly increased the Navy’s potency from the sea. The British attack on the Italian fleet at Taranto in 1940 and the Japanese destruction of American battleships at Pearl Harbor a year later were precursors of crushing attacks by American airmen during the remainder of the war. U.S. carrier strikes against the air bases and ships at Pacific islands such as Truk and Rabaul were spectacular successes because a fleet of aircraft carriers could run in at twenty-five knots under cover of darkness to surprise the unalerted—and immobile—defenders. But it was not until October 1944 that the American Third Fleet and Fifth Fleet were strong and supple enough to begin in-and-out raids against the large airfield complexes of Formosa and Japan. These were land bastions indeed. When the fleet came and stayed—in support of the landing and of extensive ground campaigns in the Philippines and Okinawa—it relearned the hard lesson that when ships fight forts (in this case “forts” in the form of kamikazes), the ships will suffer again as they have in the past.

[…]

The rule for ships is to move and hit from a place where a fort cannot hit back. If a “fort” is weak—whatever its composition—then crush it; if it is strong, avoid it. If a fortification itself is the center of gravity and is too resilient to be put permanently out of action from the sea—for instance, enemy bases, sensors, and a command-and-control system—then commanders should use the operational mobility that ships provide to gain a foothold ashore and then deploy Marines or special forces to attack the fortification from its metaphorical rear. If all these choices are foreclosed and the reward is worth the punishment, then mass against it in overwhelming numbers, assault it, and face the bloody consequences. Play the fool and fight the fort!

[…]

At sea there is no high ground, no river barrier, no concealment in forests that requires what is often used as a rule of thumb on land, a three-to-one preponderance of force to attack a prepared position. As others have said, battle at sea and conflict in the open desert have much in common. Sun, wind, and sea state all affect naval tactics, but not to the extent that terrain affects ground combat. It is because of this that attacking has not carried the penalty at sea that is imposed ashore. Over the course of history, the central problem of naval tactics has been to attack effectively—that is to say, to bring the firepower of the whole force into battle simultaneously.

[…]

Since the range of action of carrier-based aircraft on both sides was comparable in 1942, the side with superior reconnaissance and intelligence—in other words, better scouting—was the one that launched the first effective attack.

[…]

Effective fusion of reconnaissance, surveillance, and intelligence information is so important that it must receive the same emphasis as the delivery of firepower. Contrarily, obstructing the enemy’s scouting by cover, deception, confusion, or distraction merits enormous attention, for successful scouting and screening are relative to each other and are a matter of timeliness.

But at the opportune moment they were ready to shoot the works

Wednesday, March 18th, 2026

Soldier’s Load by S. L. A. MarshallThe finest young battalion and company officers that S.L.A. Marshall knew, he explains (in The Soldier’s Load and the Mobilty of a Nation) were men of this type:

They were sedulous in planning and preparation. They made their dispositions painstakingly. They insisted on personal reconnaissance to a point where it nettled their subordinates. Thus they had at all times the feel of their own situation, which is half of the battle. But at the opportune moment they were ready to shoot the works.

Knowing is half the battle. The other half is extreme violence.

The autonomy software wasn’t supposed to be enabled until the boats were suitably far out to sea

Tuesday, March 17th, 2026

Project Maven by Katrina MansonOne day in June, 2025, a group of self-driving military boats lined up for a test event at Channel Islands Harbor Marina, a mile north of Port Hueneme Naval Base:

The boats were part of the Replicator program, which was then two years old and less than two months away from the official deadline to deliver thousands of maritime and air drones. The pressure was building.

Things began with support vessels towing autonomous boats out to sea; the drones’ engines were set to neutral and their autonomy mode turned off. The test focused not so much on the vehicles themselves—known as global autonomous reconnaissance crafts, or GARCs—as on the software that allowed them to function on their own. Two separate companies, the defense contractor L3Harris Technologies and Anduril, had made autonomous operating systems for the boats. That day, Replicator was testing GARCs that ran on each company’s product.

As a safety precaution, the autonomy software wasn’t supposed to be enabled until the boats were suitably far out to sea. But one drone running L3Harris’ system suddenly lurched forward. Its autonomy mode, which had somehow turned on, required it to keep a distance of 80 meters (262 feet) from all other objects. The robo-boat sped away, still tethered to the towboat. It alternately accelerated and decelerated, then started crisscrossing in front from port side to starboard side in a semicircling action.

The captain of the towboat had no way of taking over control of the automated vehicle, whose erratic movements caused his own vessel to capsize, throwing him into the water. Still tethered to the towboat, the drone turned back toward it and—for reasons that remain unclear—started advancing at rapid speed.

A captain towing a separate GARC saw what was happening and raced toward the scene, positioning his vessel between his floating comrade and the advancing drone. A third towboat pulled the captain out of the water, and he escaped without serious injury. It had been just three minutes since the drone had gone rogue.

A safety investigation soon diagnosed the problem: An operator on the dock had inadvertently sent a message to the drone remotely disabling the safety lock meant to prevent it from switching into autonomy mode—a classic “fat-finger mistake.” A spokesperson for L3Harris said in a statement that the operator who caused the issue didn’t work at the company and that its software had “demonstrated its ability to control a mix of uncrewed platforms, payloads, and commercial technologies even if they were produced by different manufacturers.” A physical button was added to drone boats to block such accidental commands, and the boats were tweaked to prominently display the mode under which they were operating. Rival companies would start sharing safety lessons.

But the incident illustrated problems that still existed with the Pentagon’s drone strategy and couldn’t be resolved with the addition of another button or two. Replicator had still not progressed to the point that its creators were comfortable putting live ammunition on an unmanned vessel, let alone sending one into a scenario where it would be expected to coordinate with other vehicles or carry out a specific attack plan. The program did manage to deliver hundreds of drones by the August deadline, but it fell far short of its initial goal.

Only the matériel moved and used contributes to success in war

Monday, March 16th, 2026

Soldier’s Load by S. L. A. MarshallS.L.A. Marshall explains modern supply chains (in The Soldier’s Load and the Mobilty of a Nation) in 1950:

The greater becomes the mobility and carrying capacity of an army’s transport system, the stronger becomes the necessity for keeping the supply system fluid, for reducing surpluses all along the line from the factory to the front, and for G-4′s learning to sleep without dreaming of disaster because he has no strategic reserve.

In industry or in military organization, what is the final justification for putting more money into an improved transportation system? Simply that it is the best way to forestall the waste that comes of warehousing, stockpiling and deterioration of goods. To develop yet greater road speed and dependability in military transport serves a valid strategic purpose only in the measure that it enables us to reduce the supply burden. It simply defeats its own ends if it finally builds up supply volume until it chokes movement and drains the fighting line of needed manpower. Tactical strength depends on fighting power based on freedom to supply the combat troops. But oversupply will as surely stifle that freedom as overproduction will impair the prosperity of a civilian economy.

Only the matériel moved and used contributes to success in war. That which remains stored is a gift to the enemy.

He then veers into what’s coming militarily:

Highly mobile advanced bases, field bases that scarcely need to resort to dumping, ports that measure their capacity in the speed of the tum-around of the carriers in both directions, maintenance crews as adept with a Tommy gun as with a grease gun-these things mean the kind of strategic mobility the future requires.

It is said that we are entering an era of area warfare, and that at last the old alignments are gone forever. Fronts may be anywhere; guerrilla warfare will be the normal order. Any link in the communications zone will be in danger of being overrun.

[…]

The more fluid the form of war, the more necessary it is for flexibility to be the main characteristic both of the machinery and the lrainiPg doctrine. That is the logical counter to the increased range and killing power of today’s decisive weapons. As the threat rises against all rear installations, wholly new requirements will be imposed on military organization. And chief among them that all soldiers be trained for fighting — that the rear be supplied with mobile counteroffensive power — and that the structure of the rear avoid massiveness, and acquire a new mobility.