By Dmitry Filipoff
“…changes in tactics have to overcome the inertia of a conservative class; but it is a great evil. It can be remedied only by a candid recognition of each change, by careful study of the powers and limitations of the new ship or weapon, and by a consequent adaptation of the method of using it to the qualities it possesses, which will constitute its tactics. History shows that it is vain to hope that military men generally will be at the pains to do this, but that the one who does will go into battle with a great advantage—a lesson in itself of no mean value.” –Alfred Thayer Mahan, The Influence of Sea Power Upon History, 1660-1783
Tactics are fighting techniques, and how to effectively employ the tools of war to win battles. Arguably the Navy’s largest obstacles to tactical innovation come from its lack of essential tools such as anti-ship missiles as well as the nature of its recent operations and training.
It should be fair to say that training and tactics are not developed for tools that are not equipped, and a history of scripted exercising means refined training and tactics have yet to come for much of what the Navy already has. The character of a power projection focus has divided the warfare communities of the Navy and fostered operating norms that directly inhibit the development of a network-centric warfighting doctrine.
The only U.S. military warfare community that has any history of devoting serious thought to sinking warships at more than 100 miles away using missiles is the carrier aviation community. They were the only ones with the required tools and doctrinal mandate. For everyone else the Navy violated one of the most fundamental maxims of naval warfare – to fire effectively first – by not providing serious offensive firepower to so much force structure that could have readily fielded it.1
The surface fleet is a prime example of the tactical deprivation that can come through lack of anti-ship weapons and the offensive roles they enable. Even with Harpoon and the first introduction of the anti-ship Tomahawk in the 1980s the surface Navy’s defensive focus in fleet combat remained consistent since WWII. For decades throughout the Cold War the surface fleet’s high-end warfighting proficiencies focused on anti-submarine warfare and protecting capital ships from aerial threats such as missiles. The job of sinking surface ships then mostly fell to submarines and carrier aviation. The tactical execution of the surface fleet’s primary anti-air mission became increasingly automated, a trend best exemplified by Aegis. However, a defensive, reactive, and highly automated mission focus makes for a poor foundation for learning how to fire effectively first.
The Navy’s firepower is about to experience a serious transformation in only a few short years. Comparing firepower through a strike mile metric (warhead weight [pounds/1,000] × range in nautical miles × number of payloads equipped) reveals that putting LRASM into 15 percent of the surface fleet’s launch cells will increase its anti-ship firepower almost twentyfold over what it has today with Harpoon.2 New anti-ship missiles will cause the submarine community and heavy bomber force to also experience historic transformations in offensive firepower.
The widespread introduction of these new weapons will present the U.S. Navy with one of the most important force development missions in its history. This dramatic increase in offensive firepower across such a broad swath of untapped force structure will put the Navy on the cusp of a sweeping revolution in tactics unlike anything seen since the birth of the aircraft carrier a century ago. How the Navy configures itself to unlock this opportunity could decide its success in a future war at sea. The Navy needs tacticians now more than ever.
Doctrine in Networked Warfighting
“I am here to encourage and support a new type of officer, one who is naturally inclined to operational experimentation and innovation. I foresee officers who view doctrine as a dynamic adaptive process rather than a refuge for the uninformed.”–Vice Admiral Arthur K. Cebrowski
Doctrine is a common vision of warfighting, and an understanding of how to skillfully employ tactics and procedure. Naval Doctrine Publication 1, Naval Warfare, offers insight into the nature of doctrine, where “It is not a set of concrete rules, but a basis of common understanding throughout the chain of command…Doctrine is the underlying philosophy that guides our use of tactics and weapons systems to achieve a common objective….Our training and education are based on doctrine.”3 Doctrine does not culminate in a publication but in the refined intuition of the warfighter.
Doctrine aims to produce both a strong sense of independent decision-making at the unit level as well as the ability to connect as a member of a team. Net-centric warfighting is especially dependent on doctrine because of how networked capability has affected individual and group relationships. Net-centric operations are based on networked connections between many actors, yet units face the risk of losing those links. Units can be forcibly cut off from one another through electronic attack, and often need to impose silence on themselves for the sake of tactics and survivability. Connected units can call on all other sorts of actors to provide capability and information. Networked warfighting can leave one completely in the dark on the one hand and connected to a multitude on the other. Net-centric doctrine can then focus on developing common understanding for those two major types of relationships and situations.
Being effective while cut off requires an independent sense of what to do without outside help. Refined doctrine will allow a unit under emissions control to handle itself in the dark and remain faithful to commander’s intent while also knowing when it makes sense to break silence.
With doctrine a connected unit will have a common understanding with the many actors it can leverage through networked relationships. Being connected to a multitude of other actors requires having some sense of what their thought process is like, and what sorts of conditions affect their ability to contribute to the fight.
The many relationships of a networked force can easily result in congested information pathways and communications overload. This means more emissions, greater lag times, and more people requesting information or calling for help. An issue is the scale of naval warfare given how sensing and weapons can go for hundreds of miles. The area of interest for an individual warship can cover tens of thousands of square miles which promises a significant amount of overlap with many others.
Refined doctrine is absolutely necessary to streamline networked relationships and deconflict actors. Many units will be connected to the broader network, but they must resist the urge to leverage the network for every problem within their immediate area of responsibility. Command by negation and the initiative of the subordinate for a networked force could easily devolve into chaos if taken to its fullest extent. Doctrine will provide that key degree of discretion that helps a frontline unit know when its immediate situation is important enough to tap the network and call for attention from the greater force. Doctrine aims to distill what is of importance, and will help keep communications brief because networked units will have a good sense of one another’s thinking without having to ask for it.
Commander’s intent is supposed to be succinct, but the less doctrine there is the more the higher-echelon commanders can find themselves micromanaging their subordinates. The degree of refinement for doctrine can then be directly measured by how little a commander needs to convey to subordinates to successfully fulfill their intent. In his seminal “The Role of Doctrine in Naval Warfare,” published in 1915, Lieutenant Commander Dudley Knox used the example of how doctrinal development was able to shrink an operations order from 1200 words to 44 words for a 20-ship, six-hour night maneuver.4 How many words would it take that many warships to do the same thing today?
The present culture of a command and control system heavy on reporting requirements has given the Navy an unwieldy doctrine of information overload.5 This excessive reporting culture is built in part on a level of openness and ease of communication that comes with operating in the uncontested environments of the power projection era. Being micromanaged from higher headquarters feels like the norm in today’s U.S. Navy, and where a risk-averse culture is prone to micromanaging at the expense of trust-building. But doctrine can only work to condense complex operations into simple instructions if there is a high degree of trust.
Consider the challenge of command and control for a distributed force in both an offensive and defensive context, and how doctrine could shape the nature of trust. The speed of aircraft and incoming missiles compared to the range of defensive weapons means a distributed fleet will rarely be able to mass defensive firepower from across the force in a timely way. Commanders of dispersed units will likely need to have the authority to independently prosecute their local air defense missions with great initiative in order to avoid defeat in detail.
When it comes to anti-ship firepower the relatively slow speed of warships can provide much more opportunity to network effects. If a fleet commander discovers a concentration of hostile ships he or she can use networking to generate the firepower overmatch needed to overwhelm their defenses. A fleet commander could launch and collect anti-ship firepower from a variety of platforms across the distributed fleet using engage-on-remote networking. In-flight retargeting could then be used to better concentrate salvos, ensure their accuracy, and create multi-axial angles of attack. Doctrine that seeks to make this concentration of firepower possible for a distributed force would have to take some authority away from individual units when it comes to using their anti-ship missiles. The doctrine of a distributed fleet is therefore likely to keep the release authority for anti-ship weapons at a higher level of command than defensive anti-air weapons because of key differences in the feasibility of timing and concentration.
However, even with networking, tactics should be humble in their design. The expansive nature of networked capability can produce a strong urge to develop elaborate tactics that operate on more assumptions and dependencies, such as on close coordination and timing. But tactics and operations that are too complex could easily fall apart when put to the test. The nature of low-risk scripted exercising can cause tactics and concepts of operation to suffer from this runaway complexity. Capable opposition forces are absolutely indispensable for forcing humility on the developmental process and for identifying what is reasonably simple to execute. Resilience through simplicity is an ultimate goal of doctrine.
The Navy is itself a joint force involving aviation, surface fleet, and submarine communities. But power projection missions and training have divided the Navy’s communities from one another, and where these missions allowed units to act more independently. While effective independent execution is a primary goal of doctrine the nature of low-end missions meant that independent execution was not often directed toward a common operational goal. Carrier aviation could be focused on air-to-ground strikes, surface warships could be patrolling or conducting security cooperation, and submarines could be executing ISR missions. Low-end operations and training events often require little in the way of harmonized tactics or doctrine across communities, unlike net-centric concepts.
The Navy’s current system of training and operating can hardly allow the individual communities to say they are familiar with the full breadth of capability of even their own platforms, let alone those of other communities. Every community’s training has been heavily shaped by the power projection era at the expense of high-end skills and inter-community relations.6 U.S. naval officers Fred Pyle, Mark Cochran, and Rob McFall wrote of the poor connection between the surface fleet and aviation communities with respect to anti-surface warfare in “Lessons Learned from Maritime Combat”:
“Although Navy tactical literature frequently speaks to the use of air power in SUW, there doesn’t appear to be any formal training provided to the surface warfare community…Much like the SWO community, aviators are deploying without a basic understanding of surface-combatant capabilities or missions. Generally, aviators don’t know the differences in capability between cruisers and destroyers, or the variants of the standard missile used to augment the fleet air defense mission that they train for so often…The naval aviation community states that AOMSW (air operations in maritime surface warfare) is a primary mission set—yet only minimal training is conducted in flight school and in the fleet. The majority of squadron sorties are focused on air-to-air intercepts and air-to-ground weapons…The Navy as a whole has very limited access to sea-based opposition forces (emphasis added), and the tactical aviation community is afforded only limited integration opportunities with the surface Navy…With the number of other demands in the schedule and limited underway steaming days, DDGs cannot easily go to sea for daily integrated training missions with the air wing…AOMSW is by default a distant third priority behind air-to-air employment and strike warfare.”7
This points to a significant issue within the Navy’s workup cycle. The amount of time a strike group actually trains as a strike group before deploying is a very small minority compared to how much time individual ships and squadrons train at the unit level.8 If the Navy is to heal the divide between its communities and better prepare for the high-end fight then integrated training needs to take on a far greater share of time within the workup cycle’s training phase compared to individual training.
It is hard to imagine the Navy’s warfare communities would work well to network their capabilities together if they have a poor understanding of one another’s tactics and doctrine. Unprecedented cross-community understanding is necessary if a networked doctrine is to come alive. But the great divide between the Navy’s communities will stand as a tall obstacle to any net-centric vision.
Sea Control Tactics in the Age of Missile Warfare
“As a matter of tactics I think that going out after the Japanese and knocking their carriers out would have been much better and more satisfactory than waiting for them to attack us…” –Admiral Raymond Spruance9
Many of the possibilities of combat can be dictated by relationships between time, distance, and concentration. Fundamental characteristics such as weapons range, flight profiles, and magazine capacity outline tactical options for the application of force. War at sea is especially attrition based where tactical outcomes can quickly turn based on how firepower overmatch plays out between offense and defense. Knowing how certain platform attributes and tactics influence the nature of attrition is central to designing favorable tradeoffs. By focusing on how to best optimize critical factors such as endurance, survivability, and firepower overmatch one can begin to see a framework of tactics and operations.
While there is some merit to the current construct of focusing ships on air defense and using aircraft to sink ships at range the nature of modern war at sea may preference different roles. The Navy’s scripted style of training may also suggest that tactical risk is not well-understood despite the fact that naval combat in the missile age is a staggeringly vicious form of warfare.
Any warship must account for the immutable obstacle posed by the curvature of the Earth’s surface. Radar, being a line-of-sight system, can see things further away the higher they are. But the horizon as the limit of direct sight creates a large space beneath it that cannot be sensed by a ship’s radar (unless enhanced by certain environmental conditions). This effect is known as the radar horizon. The distance from the average warship’s radar and the horizon is barely under 20 miles.10
For decades anti-ship missiles have had the ability to execute low-altitude flight profiles, often described as sea-skimming flight, to take advantage of the radar horizon for the sake of greater effectiveness. By paying a price in fuel, range, and endurance, low-flying aircraft and missiles can exploit this space to lower detectability, increase survivability, and earn the element of surprise.
It is remarkable that the words “firing from a position of minimum uncertainty and maximum probability of success” could ever be used to describe training for modern naval warfare when just 20 miles away from a ship lies a long, near-invisible space missiles can exploit to achieve surprise.11 No matter how powerful a warship is it can be forced to wait until those final moments before it can bring most of its defensive firepower to bear. The curvature of the Earth itself is one of the deadliest things to a warship.
Once a sea-skimming missile salvo breaks over the horizon it will only be tens of seconds away from impact. Defensive firepower will be reactively fired soon after an attacking salvo crosses the horizon. But by the time that first wave of defensive firepower clashes with supersonic anti-ship missiles they can already be a third of the way to their target ship.12 And anti-ship missiles can still be lethal even when they are shot down within those final miles.
As defensive firepower is brought to bear powerful missiles will be detonating against each other at thousands of miles per hour not far from the ship. Exploding missile shrapnel will spray out, often in the direction of the ship, easily shredding radar arrays and degrading the ship’s ability to defend itself. Many sensors cannot be effectively armored without diminishing their performance. The close-in weapon systems and electronic warfare suites that are critical to a ship’s last line of defense could also be easily shredded by missile shrapnel. Weapons mounted on the deck such as Harpoon missiles and torpedoes may also pose risks. This shrapnel factor is already recognized in test and evaluation where supersonic test missiles are intercepted at a minimum offset of several miles away from test platforms to help avoid flying missile debris.13 This may be one reason why it is unrealistic to think a warship can sustain high kill ratios against missiles in the close-in engagement zone. Because of this exploding shrapnel factor ships should be concerned about how many nearby missile shootdowns they can withstand.
SM-6 anti-air missile intercepts a relatively small, 600lb AQM-37C test missile. Note the shrapnel. (Source: U.S. Missile Defense Agency Multi-Mission Warfare Flight Test Events)
The range advantage anti-ship missiles often enjoy over defensive firepower gives the offense a better ability to fire effectively first in the age of missile warfare. This also makes it more difficult to deal with launch platforms before they fire their payloads, otherwise known as the more preferable tactic of dealing with archers before arrows. This offensive range advantage can also convert into greater lethality and survivability for the missile salvo by allowing for more sea-skimming flight. The more a launch platform can get inside the range of its anti-ship missile, the more a payload can maximize its time flying at sea-skimming altitude to stay below the radar horizon of defending warships. Some anti-ship missiles like Harpoon sustain a sea-skimming flight path throughout their flights, but many missiles in the hands of competitors have more flexible flight profile options.14 The range advantage anti-ship firepower often has over defensive firepower therefore increases the probability of ships being forced to face sea-skimming missiles in the lethal close-in engagement zone.
The deadliness of confronting sea-skimming salvos just after they break over the horizon adds urgency to early detection and to targeting platforms before they fire their missiles. It also makes it necessary to have the capability and tactics to defeat sea-skimming missile salvos long before they break over the radar horizon of defending warships.
This makes aviation indispensable to missile defense when many anti-ship weapons intentionally fly below the radar horizon of warships in spaces only aircraft can see from above. A certain amount of airpower would have to be kept on hand just to deal with sea-skimming missiles that have the potential to travel beneath the radar horizons of defending warships. For the sake of fleet defense air wings must be very proficient at shooting down sea-skimming missile salvos, including weapons capable of flying supersonic speeds. This will also require a refined doctrinal relationship between the aviation and surface fleet communities to coordinate the air defense mission, a relationship the abovementioned authors suggest barely exists.
Only now are warships able to shoot below the radar horizon limitation using revolutionary capabilities like NIFC-CA, but this requires networked dependencies on other platforms like aircraft. NIFC-CA could prove to be a very burdensome kill chain to manage with Captain Jim Kilby describing it as “operational rocket science” and that it requires “a level of coordination we’ve never had to execute before.”15 Using aircraft to shoot missiles below the radar horizon of ships may be a much simpler kill chain to manage compared to NIFC-CA. The Navy also has probably yet to develop refined tactics and training for NIFC-CA given how new and sophisticated it is. However, using aircraft to cue shipborne firepower in any case could help keep warships relevant to the fight even with shredded radar arrays.
Defensively using the air wing to focus on defeating missile salvos may prove extremely favorable, especially from an attrition standpoint. Aircraft should be able to conduct this mission with some altitude and thus retain greater endurance. They could also likely be more proximate to the carrier rather than be asked to strike ships far forward which also converts into extra endurance. They would be able to maximize their anti-air loadout which is thousands of pounds lighter than a full anti-ship loadout, earning still more endurance.16
A squadron of F-18s fully equipped with anti-air weapons can carry over 100 anti-air missiles which is comparable to the anti-air firepower of a large surface warship. Through speed and altitude aircraft will also have far more time and opportunity to shoot down sea-skimming missiles compared to warships. Perhaps best of all, anti-ship missiles, at least for now, can pose no threat to aircraft. The cost exchange should be distinctly one sided.
The tactical characteristics of the air wing’s anti-ship mission are quite the opposite in many respects, yet this is what the carrier-centric U.S. Navy has long committed itself to.
Besides endurance, one of the greatest limiting factors of airpower is its resilience. Losing only a few aircraft per sortie could leave a carrier with a fraction of its strength after a hard day of high-end combat. Losing only four percent of aircraft per mission will result in losing 70 aircraft out of 100 over the course of 30 missions.17
Just like missiles, anti-ship aircraft will likely have to fly at sea-skimming altitudes to earn surprise and preserve survivability, but pay a severe price in range, endurance, and fuel. However, unlike aircraft, missiles are only interested in making a one-way trip. Anti-ship aircraft may also have to strike far forward of the fleet which also incurs a greater price in fuel and endurance. Low-altitude flight and closing with enemy ships can also lead to more restricted emissions.
Aircraft have to be concentrated in order to deliver large enough salvos to overwhelm the powerful anti-air defenses of modern warships. A large surface warship can carry dozens of anti-air missiles and feature many layers of defensive capability in the form of electronic warfare, close-in weapon systems, and decoys. Attacking a surface action group of a few modern destroyers could take a squadron of aircraft to field enough firepower to overwhelm shipboard defenses. This anti-ship squadron may also have to be further augmented with more aircraft dedicated to jamming, refueling, and scouting roles. A single attack on a surface action group of several large surface warships could plausibly tie up a quarter of a carrier’s strike fighters, leaving gaps in coverage elsewhere.
Using carrier aircraft to prosecute the anti-surface mission with a short-ranged anti-ship weapon such as Harpoon makes it easier for modern warships to shoot down archers instead of arrows. The shorter the range of the air-launched anti-ship missile the less attacking aircraft can disperse from one another to mass firepower effectively. This in turn dictates the extent of possible concentration and bears an effect on survivability if more aircraft find themselves within the envelope of defensive fire.
For now, the Navy’s current carrier-based anti-ship tactic could easily turn into sending concentrated groups of aircraft into the teeth of modern shipborne air defense while bleeding fuel at low altitudes and across great distances. Survivability could be substantially improved with the air-launched version of LRASM that has better range than many anti-air weapons, but it will not do as much to ease concerns over endurance and fuel. The tactic of using carrier aircraft to sink modern warships with the short-ranged Harpoon is far less favorable with respect to survivability, endurance, and attrition compared to having the air wing focus on defeating anti-ship missiles in a defensive role.
Putting long-range anti-ship missiles on warships allows the logic of attacking archers in the form of ships to extend to most of the fleet beyond the carrier. Shifting more missile defense responsibility to the air wing frees up more shipboard launch cells for anti-ship fires and other payloads of interest. Ships can provide a solid and steady wall of firepower compared to the more transient presence of aviation. The transient presence of aviation for the anti-ship mission may at first suggest a more favorably discrete operating posture for the carrier. However, the need to maintain a screen of airpower to intercept scouts and bombers for the outer air battle would still bind the disposition of aircraft to a degree.
With respect to attrition anti-ship firepower can see a far greater proportion of its missiles wasted away against defenses compared to anti-air firepower focused on shooting down missiles. This can necessitate follow-on attacks on ships. Even though ships may discharge a large portion of their anti-ship firepower in a salvo they could readily leverage their deep magazines to launch another attack rather than be forced to wait for another anti-ship squadron to make a fresh attempt. This key distinction is where the staying power of warships can prove superior to the transience of airpower with respect to sustaining attacks on well-defended ships.
A closer team between warships and aviation along the lines of these roles can be more favorable with respect to information management. Aircraft can better manage the risks of emitting through speed and maneuver, and air defense is an especially emissions-intensive fight. A ship can preserve emissions if it has aircraft to support local awareness. By conducting air defense for forward units aircraft would also be well-poised to cue offensive fires from ships, conduct in-flight retargeting as needed, and perform battle damage assessment.
Anti-ship missile fire from submarines can be an especially powerful tactic, though it may be more dependent on outside cueing. Unlike most other platforms undersea forces can easily bypass defensive screens of ships and aircraft to get in close. Putting anti-ship missiles on submarines would also significantly enhance platform survivability. Submarines would be able to fire from a distance that far outstrips torpedo range which would make their attacks much more difficult to attribute. If a ship comes under sea-skimming missile fire it may not know which sort of platform launched the attack, but if a ship finds itself under torpedo fire then it could easily reckon a submarine is close by. From a defensive perspective the threat of missile submarines unleashing sea-skimming salvos from unexpected directions and at close range could tie down more airpower for missile defense across a broad space.
A considerable amount of the fleet’s ability to manage the fight would be centered around the E-2 aircraft whose powerful radars and communications make it the Navy’s “carrier-based tactical battle management, airborne early warning, command and control aircraft.”18 A carrier fields very few of these critical command and control aircraft, usually close to half a dozen.19 Despite the fact endurance is one of the most important attributes that governs the operations of airpower the crucial E-2 command and control aircraft will finally be getting an aerial refueling capability in 2020.20 This upgrade comes over 50 years after the aircraft was introduced and despite the fact in-flight refueling was already commonplace in the aviation-centric U.S. Navy since the Vietnam War. Israel purchased the E-2 aircraft from the U.S. during the Cold War and installed an in-flight refueling capability at some point in their service lives. Now after decommissioning these aircraft an E-2 Hawkeye capable of in-flight refueling rests at the Israeli Air Force Museum.
“Sound strategy depends on a knowledge of all forces and their tactics sufficient to estimate the probabilities of winning. Thus…it will not do to study strategy and offer strategic plans without first studying in detail the forces and tactics on which those plans depend. Strategy and tactics are related like the huntsman and his dog. The hunter is master, but he won’t catch foxes if he has bought and trained a birddog.” –Capt. Wayne P. Hughes Jr., (ret.), Fleet Tactics and Coastal Combat
The Navy is looking to move to a more distributed warfighting construct, otherwise known as distributed lethality or distributed maritime operations.21 A major tactical and operational advantage distributed warfighting hopes to achieve is diluting the firepower and sensing of the adversary across a larger space. With respect to great power adversaries that enjoy steep land-based advantages for sea control these constructs are based in part on the hope that distribution will hurt opposing anti-access/area-denial forces more than they will hurt expeditionary forces. Like so much else in the U.S. Navy these distributed warfighting constructs hope to achieve greater effectiveness in part through affecting efficiency. The tactics suggested above are certainly guilty of this to an extent. While affecting the timely concentration of effects is a fundamental principle of warfighting, especially in attrition-centered naval combat, these distributed warfighting constructs are fundamentally incomplete without more specific techniques at the tactical level.
The tactics suggested above envision a closer relationship between carrier aviation and warships where they leverage one another’s platform advantages. It argues that the deep capacity of surface warships is better put to use for the offensive anti-ship mission, and that aviation’s speed and maneuverability is better focused on defending against missiles. This is the opposite logic of what the Navy has long subscribed to.
But the tactical analysis above is still very rudimentary. It does not attempt to account for things like electronic warfare, cyber effects, and space-based capabilities where each can be very critical in its own right. So much decisive space in a future war at sea could lie within circuits, algorithms, and computer code. These tactical ideas may be nothing more than mere speculation, and perhaps some variable that was left unaccounted for could make it all fall apart. But one couldn’t know until they tried.
The question remains as to what are the tactical deficiencies of a carrier-centric Navy that chose to starve the vast majority of its force structure of the ability to sink ships at range, and instead chose to focus perishable aviation on one of its most difficult missions. Aircraft would already be split between conducting major scouting functions, maintaining an outer screen to intercept enemy scouts and bombers, and guarding against sea-skimming threats. Concentrating airpower to sink ships at range would add enormous strain to the air wing.
The force structure of competitors is far more wholesomely armed with anti-ship weapons, but the carrier-centric U.S. Navy chose to confront these threats with offensive missile firepower coming from a sole, central source. This echoes a now familiar theme. By forcing the air wing to take on so many kinds of missions – scouting, counterscouting, outer air battle, defeating sea-skimming threats, and attacking ships – the U.S. Navy inflicted distributed lethality against itself.
Part Four will focus on Technical Standards.
Dmitry Filipoff is CIMSEC’s Director of Online Content. Contact him at Nextwar@cimsec.org.
1. The maxim comes from Fleet Tactics, Theory and Practice, U.S. Naval Institute Press, 1986, first edition, by Capt. Wayne P. Hughes, Jr. (ret.)
2. Total Harpoon strike mile lethality for surface fleet comes is about 13,708. Total strike mile lethality for LRASM using 15 percent of the surface fleet’s launch cells is about 267,000.
For more on strike mile metric: Alan Cummings, “A Thousand Splendid Guns: Chinese ASCMs in Competitive Control,” U.S. Naval War College Review, Autumn 2016. https://digital-commons.usnwc.edu/cgi/viewcontent.cgi?referer=https://cimsec.org/?p=37357&preview_id=37357&preview_nonce=33a19394d2&post_format=standard&_thumbnail_id=37675&preview=true&httpsredir=1&article=1143&context=nwc-review
3. Naval Doctrine Publication 1, Naval Warfare. U.S. Department of the Navy, March 1994. http://www.iwar.org.uk/military/resources/aspc/pubs/ndp1.pdf
4. Lieutenant Commander Dudley Knox, USN, “The Role of Doctrine in Naval Warfare,” U.S. Naval Institute Proceedings, March-April 1915. https://www.usni.org/magazines/proceedings/1915-03/role-doctrine-naval-warfare
5. For more on the Navy’s current command and control culture with respect to micromanagement and risk aversion see:
Lieutenant Commander Colin Roberts, USN, “In the Long Calm Lee of Midway,” U.S. Naval Institute Proceedings, January 2018. https://www.usni.org/magazines/proceedings/2018-01/long-calm-lee-midway
Admiral Scott Swift, USN, “Master the Art of Command and Control,” U.S. Naval Institute Proceedings, February 2018. https://www.usni.org/magazines/proceedings/2018-02/master-art-command-and-control
Lieutenant Commanders Kit de Angelis and Jason Garfield, USN, “Give Commanders the Authority,” U.S. Naval Institute Proceedings, October 2016. https://www.usni.org/magazines/proceedings/2016-10/give-commanders-authority
6. For power projection training focus for submarine force see: Megan Eckstein, “Navy Wants More Complex Sub-on-Sub Warfare Training,” U.S. Naval Institute News, October 27, 2016. https://news.usni.org/2016/10/27/navy-wants-complex-sub-sub-warfare-training
For aviation see: Captain Fred Pyle, Lieutenant Commander Mark Cochran, and Lieutenant Commander Rob McFall, USN, “Lessons Learned for Maritime Combat,” U.S. Naval Institute Proceedings, January 2016. https://www.usni.org/magazines/proceedings/2016-01/lessons-learned-maritime-combat
For helicopter community see: Commander Ben Reynolds, USN, “Time to Think Tactically,” U.S. Naval Institute Proceedings, September 2013. https://www.usni.org/magazines/proceedings/2013-09/time-think-tactically
For surface fleet see: Vice Admiral Thomas Rowden, Rear Admiral Peter Gumataotao, and Rear Admiral Peter Fanta, USN, “Distributed Lethality,” U.S. Naval Institute Proceedings, January 2015. https://www.usni.org/magazines/proceedings/2015-01/distributed-lethality
For a more general description of changed training see: Captain Pete Pagano, USN (ret.), “Have We Forgotten How to Fight?,” U.S. Naval Institute Proceedings, February 2018. https://www.usni.org/magazines/proceedings/2018-02/have-we-forgotten-how-fight
7. Captain Fred Pyle, Lieutenant Commander Mark Cochran, and Lieutenant Commander Rob McFall, USN, “Lessons Learned for Maritime Combat,” U.S. Naval Institute Proceedings, January 2016. https://www.usni.org/magazines/proceedings/2016-01/lessons-learned-maritime-combat
8. COMNAVAIRFORINST 3500.20D CH4, Chapter 3: Training Cycle. http://elearning.sabrewebhosting.com/CVnTraining/tramanfiles/chapter3.pdf
For balance of time between integrated and other forms of training see pg. 11 of: Bryan Clark and Jesse Sloman, “Deploying Beyond Their Means: America’s Navy and Marine Corps at a Tipping Point,” Center for Strategic and Budgetary Assessments, November 2015. https://csbaonline.org/uploads/documents/CSBA6174_(Deploying_Beyond_Their_Means)Final2-web.pdf
9. This quote from Spruance is followed by the qualifier: “but we were at the start of a very important and large amphibious operation and we could not afford to gamble and place it in jeopardy” and was made in reference to the Battle of the Philippine Sea and defending the Saipan invasion force. However, even in its unqualified form, the quote still suffices to make a key point “as a matter of tactics.”
10. For 18nm radar horizon see: Lee O. Upton and Lewis A. Thurman, “Radars for the Detection and Tracking of Cruise Missiles,” Lincoln Laboratory Journal, Volume 12, Number 2, 2000. https://pdfs.semanticscholar.org/e603/f87c32337e5feb7a0b9995356d5bbe8748c1.pdf
Caveat: Over the Horizon-Backscatter radars are not limited by the horizon by reflecting radar energy off of the ionosphere. These radars are land-based, and while they can detect contacts of interest at a great distance the fidelity is much more poor compared to line-of-sight radar systems. To see operating principles of various radars and sensors see: Jonathan F. Solomon, “Defending the Fleet from China’s Anti-Ship Ballistic Missile: Naval Deception’s Roles in Sea-Based Missile Defense,” Thesis Defense submitted to Faculty of the Graduate School of Arts and Sciences of Georgetown University, April 15, 2011. http://citeseerx.ist.psu.edu/viewdoc/download?doi=10.1.1.454.8264&rep=rep1&type=pdf
11. Admiral Scott Swift, USN, “A Fleet Must Be Able to Fight,” U.S. Naval Institute Proceedings, May 2018. https://www.usni.org/magazines/proceedings/2018-05/fleet-must-be-able-fight
12. This figure is based rough calculations using supersonic missile speed, defensive missiles featuring a speed of around Mach 3 such as Standard Missile, and to discern the point they would first meet once the former crosses over the horizon. A key advantage attacking missiles will likely have is coming over the horizon at maximum speed and where defensive missiles would have to accelerate to full speed once they are reactively launched.
13. Director, Operational Test and Evaluation, “DDG 51 Flight III Destroyer/Air and Missile Defense Radar (AMDR)/Aegis Combat System,” FY17 Navy Programs. http://www.dote.osd.mil/pub/reports/FY2017/pdf/navy/2017ddg51.pdf
Excerpt: “Use of manned ships for operational testing with threat representative ASCM surrogates in the close-in, self‑defense battlespace is not possible due to Navy safety restrictions because targets and debris from intercepts pose an unacceptable risk to personnel at ranges where some engagements will take place.”
Director, Operational Test and Evaluation, “DDG 51 Flight III Destroyer/Air and Missile Defense Radar (AMDR)/Aegis Combat System,” FY15 Navy Programs. http://www.dote.osd.mil/pub/reports/FY2015/pdf/navy/2015ddg51.pdf
Excerpt: “In addition to stand-off ranges (on the order of 1.5 to 5 nautical miles for subsonic and supersonic surrogates, respectively), safety restrictions require that ASCM targets not be flown directly at a manned ship, but at some cross-range offset, which unacceptably degrades the operational realism of the test.”
14. For variable flight profiles of anti-ship missiles see:
Dr. Carlo Kopp, “Killing the Vampire,” Defence Today, 2008. http://www.ausairpower.net/SP/DT-Vampires-2008.pdf
Dr. Carlo Kopp, “Evolving Naval Anti-Ship Weapons Threat,” Defence Today, 2010. http://www.ausairpower.net/SP/DT-ASBM-Dec-2009.pdf
15. For quotes see:
Sam LaGrone, “The Next Act for Aegis”, U.S. Naval Institute News, May 7, 2014. https://news.usni.org/2014/05/07/next-act-aegis
Captain Jim Kilby, USN, “Surface Warfare: Lynchpin of Naval Integrated Air/Missile Defense,” Center for International Maritime Security, April 4, 2014. https://cimsec.org/surface-warfare-lynchpin-naval-integrated-airmissile-defense/10748
Harpoon weighs 1,523 pounds (See U.S. Navy Harpoon fact file), full load of four Harpoons: 6092 lbs.
For max F-18 Harpoon load see: “F/A-18F Super Hornet take on a full load of Harpoons Anti-ship missiles for the first time,” http://www.navyrecognition.com/index.php/focus-analysis/naval-technology/1346-video-fa-18f-super-hornet-take-on-a-full-load-of-harpoons-anti-ship-missiles-for-the-first-time.html.
17. John Stillion and Bryan Clark, “What it Takes to Win: Succeeding in 21st Century Battle Network Competitions,” Center for Strategic and Budgetary Assessments, 2015. https://csbaonline.org/uploads/documents/What-it-Takes-to-Win.pdf
18. “E-2 Hawkeye Early Warning and Control Aircraft,” U.S. Navy Fact File. https://www.navy.mil/navydata/fact_display.asp?cid=1100&tid=700&ct=1
19. Seth Cropsey, Bryan G. McGrath, and Timothy Walton, “Sharpening the Spear: The Carrier, the Joint Force, and High-End Conflict,” Hudson Institute, October 2015. https://s3.amazonaws.com/media.hudson.org/files/publications/201510SharpeningtheSpearTheCarriertheJointForceandHighEndConflict.pdf
20. Valerie Insinna, “Northrop to Begin Cutting in Aerial Refueling Capability in E-2D Advanced Hawkeye Production this year,” Defense News, April 11, 2018. https://www.defensenews.com/digital-show-dailies/navy-league/2018/04/11/northrop-to-begin-cutting-in-aerial-refueling-capability-in-e-2d-advanced-hawkeye-production-this-year/
“E-2D Conducts Successful Aerial Refueling Tests,” Naval Aviation News, March 21, 2018. http://navalaviationnews.navylive.dodlive.mil/2018/03/21/fuel-factor/
21. Vice Admiral Thomas Rowden, Rear Admiral Peter Gumataotao, and Rear Admiral Peter Fanta, USN, “Distributed Lethality,” U.S. Naval Institute Proceedings, January 2015. https://www.usni.org/magazines/proceedings/2015-01/distributed-lethality
Navy Warfare Development Command, “CNO Visits Navy Warfare Development Command,” April 2013, 2017. https://www.nwdc.navy.mil/PressRelease/9.aspx
“Specifically, the CNO was updated on NWDC’s development of the Distributed Maritime Operations (DMO) Concept, a central, overarching operational concept, that will weave together the principles of integration, distribution and maneuver to maximize the effectiveness of the fleet Maritime Operations Centers to synchronize all-domain effects.
“DMO will describe the fleet-centric warfighting capabilities necessary to gain and maintain sea-control through the employment of combat power that may be distributed over vast distances, multiple domains, and a wide array of platforms,” explained Mark Coffman, DMO concept writing team lead, “The concept’s action plan will drive the development of these new capabilities so that fleet commanders will be able to distribute but still maneuver the fleet across an entire theater of operations as an integrated weapon system.”
Featured Image: ARABIAN GULF (Dec. 6, 2017) – The aircraft carrier USS Theodore Roosevelt (CVN 71) transits the Arabian Gulf. Theodore Roosevelt and its carrier strike group are deployed to the U.S. 5th Fleet area of operations in support of maritime security operations to reassure allies and partners and preserve the freedom of navigation and the free flow of commerce in the region. (U.S. Navy photo by Mass Communication Specialist 3rd Class Anthony J. Rivera/Released)