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Sea Control First

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Sea Control First
By Vice Admiral Thomas A. Rowden, U.S. Navy


Our Navy must control the sea to project power anywhere around the globe. Yet despite the primacy of sea control to all other naval operations and to our nation’s security, we struggle at times to define “this wonderful and mysterious power,” not only to the public but also to ourselves. It is important to get the terms right, as it is only then that we can shape the path to our return to sea control.

Talking about Sea Control

Naval thinkers often write of “command of the sea,” which I assert is the general condition of superiority of one naval force over all contenders. Command of the sea can be regional or global, depending on the era under consideration and the nation exercising it, and it exists in peacetime as well as during conflict. While it is a useful term for historical analyses, it is less useful in modern parlance.

“Sea control,” on the other hand, denotes a condition that is both temporally and geographically constrained. When a navy has established sea control, it can exercise the full range of operations of which it is capable within and from that area. In exercising sea control, a navy (or a portion thereof) dominates in all domains essential to its operations—undersea, surface, air, and electronic.

The challenge when using “sea control” with a modern audience is the degree to which the listener believes it is a term germane only to naval conflict—that the standard condition of the seas is to be uncontrolled and that control must be established, either by asserting dominance over a previously uncontrolled area or by displacing another naval force from a position of control through combat.

In contrast, I offer that sea control is a condition that exists when a naval force is capable of mounting the full range of combat operations within acceptable levels of risk given the threat and the desired combat objectives. Sea control can be either actual—in which case combat operations have occurred and maritime territory has been seized; or assumed—in which case a preponderant naval force reasonably can expect to be able to exercise the full range of combat operations should they become necessary.

The Decline of U.S. Sea Control

Sea control was a point of contention between the U.S. Navy and the Soviets during the Cold War. Each side contended with the other to be able to establish sea control where and when it was needed. When the Soviet Union fell, there were no remaining impediments to the U.S. Navy and its quest for sea control. No nation could mount a serious threat to U.S. ability to dominate the seas and the skies above them.

From this position of maritime dominance, the U.S. Navy evolved into a power-projection force without equal. Aircraft carriers could cozy up to the shorelines of nations without sophisticated air defense networks and generate massive numbers of strike sorties with impunity. Air and missile defense of the carrier went from an intricate and layered model during the Cold War to a simpler, more concentrated notion that relied heavily on a sophisticated Aegis destroyer or cruiser “riding shotgun” with the carrier to defend it. Over-the-horizon antisurface warfare (ASUW) migrated from the surface force to the air wing as the Flight IIA Arleigh Burke destroyers hit the fleet without ASUW missiles and sonar technicians became more proficient in manning .50-caliber machine guns and serving on boarding teams than in identifying a submarine turbine-generator line on a passive acoustic display. In other words, the major mission areas that comprise the surface force’s participation in sea control—integrated air and missile defense and antisurface and antisubmarine warfare—were lower priorities than maritime security and precision strike.

When the Cold War ended, more risk could be assumed, concentration of force could be accommodated, the fleet could get smaller, and operational redundancy (multiple methods of servicing targets) could be eliminated. But times have changed. The global security environment demands that the surface Navy rededicate itself to sea control, as a new group of potential adversaries is working to deny us command of the seas.

The Imperative for Sea Control

The nation’s theory of conventional naval deterrence since the end of the Cold War has been one of compellence, aimed largely at middling powers prone to disturbing regional peace. Under this theory, there has been comfort that there would be sufficient time to meet regional aggression from deployed forces, and saving that, that the Navy could summon a great deal of force to reverse whatever gains were made. Deterrence was less concerned with denial and punishment and more attuned to the threat of what would follow. This approach, however, is unlikely to be effective against peer and near-peer competitors, as well as regional threats enjoying favorable geography. Some nations are capable of launching operations in their near-abroad in which considerable combat power can be brought to bear in support of fairly narrow and limited objectives. These kinds of short, sharp operations become increasingly more dangerous as the balance of power among forces in some regions alters. These circumstances could pose significant challenges to our ability to protect U.S. interests, but we are moving forward to address them.

Impact of Distributed Lethality

The force we send forward to control the seas must be powerful, hard to find, hard to kill, and lethal. These are the bedrock tenets of distributed lethality, a concept introduced in “Distributed Lethality” in the January 2015 Proceedings. Distributed lethality looks at each unit of the surface force as an offensive machine, and then drives the force to increase that offensive capability through modifications to existing weapons and sensors. By being in place, lethal, and resilient, more heavily armed surface ships can stand and fight, denying aggressors their immediate and limited objectives and raising the cost of such aggression in the first place.

We have made great progress in implementing distributed lethality in the past two years, to include deployment of the first Navy Integrated Fire Control Counter-Air Strike Group that is pressing our antiair warfare (AAW) prowess into the outer-air battle again by networking sensors and weapons in a lethal integrated fire control loop. This capability will give us the option of shooting down bombers before they release their weapons, turning what has become a largely defensive mission (AAW) once again into an offensive one.

We are extending the reach of our ship-killing weapons with the funding of an antisurface variant of the Tomahawk missile and the successful test of the SM6 antiair missile in a surface engagement. The longer ranges of these weapons are important because our ability to provide high-quality targeting data at greater ranges has improved dramatically. And because high-quality tracks sometimes can be held for only a few minutes, it is essential that we are able to get a weapon moving downrange when actionable targeting is attained.

In antisubmarine warfare (ASW), our ships equipped with the AN/SQQ-89(A) V15 signal processing system are continuing to generate contact on real-world targets at ranges that would have made our Cold War sub hunters’ eyes water. In addition, the proliferation of multifunction towed arrays creates the conditions for networked and cooperative ASW, in which active emitters can be dislocated from the receiving array, providing a means of distributing targeting data and allowing our ships to remain undetected.

Although our efforts to increase the offensive lethality of our ships get the most attention, defensive resiliency— the ability to stand toe-to-toe with an adversary in a contested environment—is an important part of distributed lethality. Two systems in particular are moving us in this direction. The first is Sea-RAM, which combines the proven Phalanx system with a lethal close-in antiair missile. This system was fielded speedily on our Mediterranean destroyers to counter upgraded threats in the region. Second, we shortly will begin fielding the ESSM Block II, an antiair missile with an active seeker that can launch from a variety of systems, including a quad-pack vertical launch system (VLS) variant. The point of these measures is to force an adversary to reckon with both our ships’ offensive might and the added difficulty (measured in weapons necessary to achieve a hit) of achieving a mission kill. Both are necessary to institute a more effective brand of conventional deterrence.

Closing the Sea Control Gap

The “gap” in our sea control capabilities is between those we have today and those we need for the future. The good news is we know where these gaps lie and have a plan (along with the U.S. defense industry) to address them. Some areas where we are working hardest include:

  • Cruiser Modernization and Long-Term Air Defense Commander Capabilities. Ensuring the surface force provides unmatched air and missile defense command-andcontrol capabilities remains a crucial emphasis. We are upgrading cruisers and extending their service lives, even as we consider how to replace this foundational capability.
  • Offensive Surface Warfare (SUW). Our surface ships must be able to actively target and engage other surface ships over the horizon (OTH). We are applying this approach with the LCS OTH missile program, even as we look to upgrade selected amphibious warfare ships.
  • F-35/Surface Force Integration. The F-35Bs and Cs will provide the fleet with target-quality tracks on air and surface targets. Off-porting those targets from the aircraft in tactically relevant ways to enable other platforms—including surface ships—to engage them is a key enabler of a more distributed and lethal force.
  • Organic Intelligence, Surveillance, and Reconnaissance (ISR). The surface force requires organic, medium-altitude/ long endurance unmanned vehicles. In addition, unmanned surface vessels networked into the ISR picture and under the command and control of surface units can significantly extend force ISR, providing both active and passive electronic warfare and acoustic data. The ASW Continuous Trail Unmanned Vessel program offers real promise on this front.
  • Battle Management. We must fully integrate our combat systems at the platform, surface action group, strike group, and fleet levels. Modern warfare against peer and near-peer competitors will require us to conserve weapons and ensure they are employed wisely against the attacks of nations with deep magazines. A networked, scalable battle management function that determines the best combinations of hard and soft kill with the highest probability of efficient success is required. This function must be able to support a single ship in harm’s way and then scale up to support coordinated operations of surface action groups, strike groups, and even to the point of guiding the actions of an entire fleet.
  • Next Generation ASW. Submarine-launched antiship missiles are becoming the likely weapon of choice from adversary undersea forces, as the ability to get in close and target with torpedoes will be hotly contested. Given the great strides in theater ASW the surface force requires a weapon that enables us to act on solid but fleeting targeting data to get a weapon headed downrange quickly, with a payload that immediately puts the submarine on the defensive before it can obtain targeting data on the fleet.
  • Low-Cost/High-Capacity Munitions. It is imperative that we move toward low(er) cost/high(er) capacity munitions to meet two challenges—(1) high-end opponents able to devote more of their industrial base to producing weapon stockpiles, and (2) the need to better align a weapon’s cost with the target against which it is employed. Laser weapons offer the promise of meeting both these challenges for selected targets, and rail-gun technology offers promise in matching relatively low-cost projectiles against far more expensive missiles. In addition, a low-cost “quick-strike” land-attack weapon suitable for employment from VLS cells would give us the ability to destroy lightly defended land targets with lower cost weapons. When the USS Nitze (DDG-94) targeted Houthi radar sites in Yemen in October 2016, she did so with TLAM missiles from relatively short range. A more modestly priced weapon suitable for modestly defended targets would have been useful.
  • Investment in Manpower and Training. We must continue to invest in maintaining our best and brightest people and fund individual and unit training with realistic training systems. These systems must be capable of simulating complex operating environments. Our people—the center of our universe—deserve the best, and we need to deliver the resources that will prepare them for success if they are called to go in harm’s way.

Conclusion

Distributed lethality increases the U.S. Navy’s sea control capability and expands U.S. conventional deterrence. Funding the tactics, talent, training, and tools to field a more lethal and distributed force will enable us to establish sea control where it is needed for other naval operations, even as we contest opponents’ ability to deny us the use of the sea.

http://www.public.navy.mil/surfor/Pages/Sea-Control-First.aspx
 
i knew with a name like 'Zumwalt' there would be a 'president Trump' after obama
 
great article. thoroughly enjoying read.
 
How many destroyer will Trump 355 ship navy have.
Currently:
Planned = 76
Building = 7
Completed = 62
Active = 62
https://en.wikipedia.org/wiki/Arleigh_Burke-class_destroyer

Expect more ABs and Flight 3 in particular. Older flights will be modernized.

Over-the-horizon antisurface warfare (ASUW) migrated from the surface force to the air wing as the Flight IIA Arleigh Burke destroyers hit the fleet without ASUW missiles and sonar technicians became more proficient in manning .50-caliber machine guns and serving on boarding teams than in identifying a submarine turbine-generator line on a passive acoustic display.

Interesting contradiction in this Global Security piece on the Flight 2As:

The ARLEIGH BURKE class Flight IIA (DDG 79+) feature a hull lengthened five feet over that of the DDG 51 class.
The weight and metacentric height are reduced through using lighter superstructure scantlings. Lower hull plating thickness is increased over 3/4 the hull length amidships. Propellers have improved section to reduce onset of cavitation. The stern wedge (which improves fuel efficiency at cruising speeds) is extended out past the transom. Accommodations are increased for the air group, and have female berthing for four officers, six CPOs, and 18 other enlisted. There is no high-pressure air system; auxiliary power units are used to start the generators. The design uses a commercial slewing-arm davit for the 24 ft rigid inflatable boat (RIB). The computerized Operational Readiness Test System uses one UYK-44 computer with five OJ-454(V)/UYK display consoles in the weapon system equipment rooms. Other changes include the addition of five blast-hardened bulkheads to lessen vulnerability, adding a solid waste management system, and improving the air-conditioning system.
Combat systems include the Aegis Weapons System Mk 7 Mod 11. The aft pair of SPY-1D radar panels are raised seven feet to clear helicopter hangars. The torpedo reload magazine also accommodates Penguin and Hellfire air-to-ground missiles, Stinger infrared surface-to-air missiles, LAU 68 2.75-in rockets, and 25-mm gun and 40-mm grenade ammunition. It is able to carry up to 40 torpedoes for shipboard and helicopter use.
The at-sea reload systems for the VLS groups were eliminated to permit adding three VLS cells per group. The RIM-9P Evolved Sea Sparrow replaces the Phalanx installations when available; four missiles are carried in each of six Mk 41 VLS cells. Harpoon missiles were eliminated to reduce costs, but there is provision to reinstall them later between the stacks; without them, the ships will have no dedicated on-board antiship missile system.
These units incorporate CEC (Cooperative Engagement Capability) and will be able to counter theater ballistic missile attacks. Combat systems use UYQ-70 displays and a commercial fiber-optic distributed data interface network, and large-screen color displays in the CIC. The radar system incorporates a TIP (Track Initiation Processor). The Combat Direction Finding system is fitted.

The first 28 Arleigh Burke-class destroyers have a helicopter deck but no hanger or embarked helicopters. Ships in production Flight IIA, starting with USS OSCAR AUSTIN (DDG-79), also have landing and hangar facilities for operation of two multi-purpose Light Airborne Multipurpose System LAMPS MK III helicopters. This capability is added for the remaining 29 ships of the class.
The construction of the helicopter hangar is the most visible change for this new generation of AEGIS Destroyers. Located aft of the after Vertical Launching System (VLS), the hangar is large enough to accommodate 2 SH-60F helicopters, support equipment, repair shops and store rooms. The aft warping capstan and towing padeye are retractable to keep the helicopter deck clear.
As a result of the increased elevation of the after section of the Flight 2A ships, the aft facing AN/SPY-1D arrays were raised 8 feet to provide visibility over the hangar. The modifications require removal of Harpoon missile capability. Modifications were also made for additional crew required for a helicopter detachment to deploy with the ship..
http://www.globalsecurity.org/military/systems/ship/ddg-51-flt2a.htm

So, design or cost considerations? Either way, newer Burkes have provisions for Harpoon between the stacks. I'm sure they could also quite easily accommodate NSM deck launchers. Or LRASM from Mk41. THere will be a VL version of NSM coming too.
 
Currently:
Planned = 76
Building = 7
Completed = 62
Active = 62
https://en.wikipedia.org/wiki/Arleigh_Burke-class_destroyer

Expect more ABs and Flight 3 in particular. Older flights will be modernized.



Interesting contradiction in this Global Security piece on the Flight 2As:

The ARLEIGH BURKE class Flight IIA (DDG 79+) feature a hull lengthened five feet over that of the DDG 51 class.
The weight and metacentric height are reduced through using lighter superstructure scantlings. Lower hull plating thickness is increased over 3/4 the hull length amidships. Propellers have improved section to reduce onset of cavitation. The stern wedge (which improves fuel efficiency at cruising speeds) is extended out past the transom. Accommodations are increased for the air group, and have female berthing for four officers, six CPOs, and 18 other enlisted. There is no high-pressure air system; auxiliary power units are used to start the generators. The design uses a commercial slewing-arm davit for the 24 ft rigid inflatable boat (RIB). The computerized Operational Readiness Test System uses one UYK-44 computer with five OJ-454(V)/UYK display consoles in the weapon system equipment rooms. Other changes include the addition of five blast-hardened bulkheads to lessen vulnerability, adding a solid waste management system, and improving the air-conditioning system.
Combat systems include the Aegis Weapons System Mk 7 Mod 11. The aft pair of SPY-1D radar panels are raised seven feet to clear helicopter hangars. The torpedo reload magazine also accommodates Penguin and Hellfire air-to-ground missiles, Stinger infrared surface-to-air missiles, LAU 68 2.75-in rockets, and 25-mm gun and 40-mm grenade ammunition. It is able to carry up to 40 torpedoes for shipboard and helicopter use.
The at-sea reload systems for the VLS groups were eliminated to permit adding three VLS cells per group. The RIM-9P Evolved Sea Sparrow replaces the Phalanx installations when available; four missiles are carried in each of six Mk 41 VLS cells. Harpoon missiles were eliminated to reduce costs, but there is provision to reinstall them later between the stacks; without them, the ships will have no dedicated on-board antiship missile system.
These units incorporate CEC (Cooperative Engagement Capability) and will be able to counter theater ballistic missile attacks. Combat systems use UYQ-70 displays and a commercial fiber-optic distributed data interface network, and large-screen color displays in the CIC. The radar system incorporates a TIP (Track Initiation Processor). The Combat Direction Finding system is fitted.

The first 28 Arleigh Burke-class destroyers have a helicopter deck but no hanger or embarked helicopters. Ships in production Flight IIA, starting with USS OSCAR AUSTIN (DDG-79), also have landing and hangar facilities for operation of two multi-purpose Light Airborne Multipurpose System LAMPS MK III helicopters. This capability is added for the remaining 29 ships of the class.
The construction of the helicopter hangar is the most visible change for this new generation of AEGIS Destroyers. Located aft of the after Vertical Launching System (VLS), the hangar is large enough to accommodate 2 SH-60F helicopters, support equipment, repair shops and store rooms. The aft warping capstan and towing padeye are retractable to keep the helicopter deck clear.
As a result of the increased elevation of the after section of the Flight 2A ships, the aft facing AN/SPY-1D arrays were raised 8 feet to provide visibility over the hangar. The modifications require removal of Harpoon missile capability. Modifications were also made for additional crew required for a helicopter detachment to deploy with the ship..
http://www.globalsecurity.org/military/systems/ship/ddg-51-flt2a.htm

So, design or cost considerations? Either way, newer Burkes have provisions for Harpoon between the stacks. I'm sure they could also quite easily accommodate NSM deck launchers. Or LRASM from Mk41. THere will be a VL version of NSM coming too.



Are this number of AB class enough to counter the rising red fleet ?
 
Are this number of AB class enough to counter the rising red fleet ?
Why yes!

In addition to the 62 (76) Arleigh Burkes, USN operates 22 Ticonderoga class CG (11 to be modernized and active continuously through 2045)
  • Completed: 27
  • Active: 22
  • Laid up: 4
Also, 3 Zumwalt class planned.
  • Planned: 3
  • Building:1
  • Completed: 2

In its 2015 budget request the Navy outlined a plan to operate 11 cruisers, while the other 11 were upgraded to a new standard. The upgraded cruisers would then start replacing the older ships, which would be retired starting in 2019. This would retain one cruiser per CVN group to host the group's air warfare commander, a role for which the DDGs do not have sufficient facilities. Flight III Arleigh Burke destroyers equipped with the Air Missile Defense Radar give enhanced coverage, but putting the radar on standard DDG hulls does not allow enough room for extra staff and command and control facilities for the air warfare commander; DDGs can be used tactically for air defense, but they augment CGs that provide command and control in a battle group and are more used for other missions such as defending other fleet units and keeping sea lanes open. Congress opposed the plan on the grounds that it makes it easier for Navy officials to completely retire the ships once out of service; the Navy would have to retire all cruisers from the fleet by 2028 if all are kept in service, while deactivating half and gradually returning them into service could make 11 cruisers last from 2035 to 2045. There is no current CG replacement program, as most funding is committed to the Ohio Replacement Submarine, so work on a new cruiser is expected to begin in the mid-2020s, and begin fielding by the mid-2030s.
https://en.wikipedia.org/wiki/Ticonderoga-class_cruiser

By comparison, PLAN orbat:

28 active destroyers (with 8 more coming and 6 retiring in the foreseeable future / nearterm):
  • 052D: 4 active (+ 2 sea trials, 6 fitting out)
  • 052C: 7 active
  • 052B: 2 active
  • 052: 2 active (modernized)
  • Pr.956E/EM: 4 active (E's being modernized)
  • Type 051C: 2 active
  • Type 051B: 1 active (modernized)
  • Type 051: 6 (will be retiring)
49 active frigates (with 3 more coming and 13 retiring in the foreseable future):
  • Type 054A: 23 active (+2 sea trial, 1 fitting out)
  • Type 054: 2 active
  • Type 053H3: 10 (to be modernized?)
  • Type 053H2G: 1 (modernized?)
  • Type 053/053H/H2: 13 (likely to gradually retire in the near term)
30 active Type 056/A corvettes (with 2 more in sea trials)

Makes for a total of 28+49=77 active destroyers and frigates (30+39 = 69 in future). To this would be added 1 Type 055 currently building and another ordered (ie. at least 2 'cruisers'). So, you got about 70 major PLAN combattants against some 88 major USN combattants plus 3 Zumwalts.

The PLAN corvettes are mainly for coastal patrol / littoral and come into play only if USN comes in very close to the Chinese coast. In a comparable bracket, USN is operating LCS.
A total of 26 littoral combat ships are planned: 13 Freedom class ships and 13 Independence class ships. Curently active are 4 Independence and 5 Freedom class. Undergoing sea trials is 1 Independence class. Building are 5 Independence and 6 Freedom class. On order are 3 Independence and 2 Freedom class.
A report released in September 2015 indicated that the first 24 LCS ships would retain the basic design principles of the LCS program, with upgrades where needed. This group would be considered "Block 0" and also retain the "LCS" designation, for the time being. Ships 25 through 32 [i.e. at least 6 more over the first 26], "Block 1" would include significant upgrades and design changes, inline with the intended capabilities of the last 20 ships of the total 52-ship procurement, these being the new "Frigate" class. The new frigates will be larger, have increased defensive and survivability capabilities and more permanent missions packages, as opposed to the original modular design.On 14 December 2015, Secretary of Defense Ashton Carter ordered the Navy to reduce the planned procurement of LCS and FF ships from 52 to 40, and downselect to one variant by FY 2019. [i.e. at least 16 more over the first 26]
So, that makes 40 LCS/FF versus 30 or so Type 056.

The USN will have a far greater number of larger aircraft carriers and aircraft capable large assault ships relative to PLAN, whose amphibious capability is more oriented to and assault on Taiwan and hence large numbers of much smaller ships.

SUBMARINES USN (PLAN)
SSBN = 14 (5)
SSGN (VLS Tomahawk) = 15, plus 5 under construction and 2 on order (0)
SSN (tubelaunched Tomahawk) = 46, plus 2 in reserve (9)
SSK = 0 (57, of which 40 modern)

Clearly, neither USN nor PLAN would face only one another. Some forces will have to be kept back to prevent others taking advantage of a naval conflict between USN and PLAN. PLAN cannot ignore the navies of e.g. Japan, South Korea, India, Taiwan or even Russia. USN cannot ignore the navy of Russia, but otherwise does have fewer capable opponents to face concurrently.

How land based forces could/would weigh in depends on where exactly the naval engagements would take place.
 
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