Shaping A Way Ahead for the Hawkeye/ Stingray Cluster in the Integratable Carrier Air Wing

05/06/2020

By Robbin Laird

In my discussions earlier this year in San Diego with Vice Admiral Miller, we focused on the dynamics of change within and beyond the carrier air wing.

In that discussion, what was highlighted was a way to look at the shift from a legacy approach to the kill web approach, namely, the shift from the integrated to the integratable air wing.

That discussion highlighted that what is underway is a shift from integrating the air wing around relatively modest and sequential modernization efforts for the core platforms to a robust transformation process in which new assets enter the force and create a swirl of transformation opportunities, challenges, and pressures.

We discussed what might be called clusters of innovation, such as would be introduced as the MQ-25A Stingray comes onboard the carrier. In effect, the MQ-25 will be a stakeholder in the evolving C2/ISR capabilities empowering the entire combat force, part of what, in my view, is really 6th generation capabilities, namely enhancing the power to distribute and integrate a force as well as to operate more effectively at the tactical edge.

From this point of view, the MQ-25 will entail changes to the legacy air fleet, changes in the con-ops of the entire CVW and trigger further changes with regard to how the C2/ISR dynamic shapes the evolution of the CVW and the joint force.

The systems to be put onto the MQ-25 will be driven by overall changes in the C2/ISR force.

The cluster of innovation with the coming of the MQ-25A is being led by the transition from the legacy Hawkeye to the Aerial Refueling modified E-2D (AR) Advanced Hawkeye, which provides a game changing capability to a carrier air wing through advanced sensors & C2 networking capabilities, persistent presence, and greater operational reach.

That point was driven home to me in a discussion with CDR Christopher “Mullet” Hulitt, head of “CAEWWS,” the Navy’s airborne command & control weapons school located at Naval Aviation Warfighting Development Center (NAWDC) at Naval Air Station Fallon.

As the cluster evolves, the notion of a platform-centric functional delivery of airborne early warning and battle management shifts to a wider notion of providing support to the distributed integrated combat force which flew off of the carrier and adjacent capabilities working with the air maritime deployed kill web.

We discussed a number of issues, and while I will not quote the CDR directly, I will highlight a number of takeaways from our conversation which provide insights into shaping a way ahead in the crafting, training and further developing of the integratable air wing.

The first takeaway is precisely the emergence of a different approach from the legacy Hawkeye to a new operational and training configuration.

With the coming of the MQ-25A Stingray and emerging integrated sensor and command & control capabilities, the “Airborne Early Warning” community has transitioned its role and title to reflect emerging roles and functions within a maritime kill web, with an Airborne Command & Control and Logistics Wing under the leadership of a Commodore, currently CAPT Matthew “Duff” Duffy.  

The second takeaway is that with the coming of the F-35 to the carrier wing, there is a broader shift in working diverse sensor networks to deliver the combat effect which extended reach sensor networks can empower.

At Fallon, they are working the relationship between the F-35 and the E-2D and sorting through how to make optimal use of both air systems in the extended battlespace. Commander, Airborne Command & Control and Logistics Wing and Carrier Air Wing Two and are moving forward with a new initiative, the First Integrated Training Evolution (FITE), which will provide basic, tailored integrated training incorporating E-2D(AR) and F-35 paired with fourth generation platforms.

It is about deploying an extended trusted sensor network, which can be tapped through various wave forms, and then being able to shape how the decision-making arc can best deliver the desired combat effect.

The third takeaway is that the foundation is clearly being laid for the decade ahead for a fully operational maritime kill web.

The strategic objective is to be able to operate extended reach, integratable, and interconnected sensor networks that provide the reach of the air wing beyond where physically its flies to deliver an extended reach combat effect.

The fourth takeaway, one which I have spent a lot of time working on before, is that the radar on the advanced Hawkeye is not in any way a traditional radar.

The problem of terminology in discussing the new combat capabilities is certainly highlighted when discussing radars, built around modules which have a variety of combat capabilities built in, and in the case of the E-2D (AR) the traditional line between what airborne command & control, sensors, and electronic warfare systems do is clearly being subsumed into new integrative capabilities which can do more than the sum of the parts.

The fifth takeaway is that with the arrival of software upgradeable aircraft like the E-2D (AR), integrated with the MQ-25A, the entire process of evolving combat capabilities onboard an aircraft, and its ability to operate as an integratable of a kill web is changing significantly.

The goal is to get to the point where the core platforms are flexible enough to evolve software rapidly and interactively.

And rather than having to ensure that each platform is maximized for what it can do with organic systems, the approach would to determine which platforms with which capabilities can be a tasked for different functions and through integratability be able to contribute to a wider array of tasks as well.

For example, with the coming of the MQ-25A working with the E-2D(AR) , evolving the sensor loadout on the MQ-25A along with reach back to Triton can allow the E-2D (AR)to do core functions differently but also adjust how it can provide support for evolving C2 tasking as well.

Rather than following a classic AWACS like target identification and strike tasking function, the manned aircraft function will be to support the dynamic force packing function in the extended battlespace.

With regard to the E-2D (AR), the Navy is designing interfaces to manage the airborne MQ-25A.

And with the advanced Hawkeye, there is a shift to operating two aircraft at the same time, replicating to some extent the 4-ship formation approach of an F-35 whereby the four ships operate as one combat brain within the airspace in which they are operating.

This is a shift from the legacy Hawkeye where one aircraft operated off of the carrier to a seamless integration of a 2-ship formation of Advanced Hawkeyes.

The sixth takeaway is with the coming of the subsurface and surface weapons schools as participants in NAWDC the focus of operations for the E-2D(AR)/MQ-25A Stingray cluster will be open 360-degree domain knowledge and combat support to leverage assets through the maritime kill web.

The seventh takeaway is that the process of change we saw when visiting NAWDC a few years ago is accelerating.

What we saw then was shaping a way ahead to open the aperture of training to prepare for the coming of the F-35 and the focus on continuous development associated with the integratable air wing. In the case of CAEWWS, they will shortly have direct access to an integrated test configured aircraft.

This allows CAEWWS to operate an aircraft which is a baseline above the capability of what Navy operational test squadrons are flying.

This is especially crucial in an era of software block upgradeable aircraft.

NAWDC is in a position to release their recommendations concurrent with initial operational capability of a particular aircraft.

This means that when a new capability rolls out, they are able concurrently to provide vetted employment recommendations from NAWDC and its weapon school partners.

In short, the transition from core function platforms to working as enablers and nodes in a kill web is underway at NAWDC.

And the coming of the Advanced Hawkeye along with the Stingray in the same innovation cluster is a case in point.

Wedgetail at 10

By Bettina Mears

Important Defence industry partnerships and a culture of excellence have been key to the operational effectiveness of Air Force’s highly advanced airborne early warning and control capability – the E-7A Wedgetail – now celebrating 10 years since its introduction into RAAF service.

Air Force operates six E-7A Wedgetail aircraft from RAAF Base Williamtown, which provide Australia with one of the most advanced air battlespace management capabilities in the world.

Based on a Boeing 737-700, the E-7A Wedgetail combines long-range surveillance radar, secondary radar, passive detection surveillance receivers and tactical/strategic voice and data communications systems. This provides the Australian Defence Force with its ability to survey, command, control and coordinate a joint air, sea and land battle in real time.

As the sole operating squadron for the platform, Commanding Officer of Number 2 Squadron, Wing Commander Jason Brown, said over the past 10 years the E-7A fleet had been regularly dispersed around the world supporting concurrent exercises and operations, often with all aircraft deployed simultaneously with mission success.

“As commanding officer during this significant milestone, it is a great honour and I am immensely proud of what has been achieved by the squadron, not only during my command but historically, at home and abroad,” Wing Commander Brown said.

Major contributions since the E-7A’s introduction into RAAF service include Operations Spate, Atlas and APEC Assist; providing concurrent support for Operation Okra; and achieving a high mission success rate with No. 2 Squadron E-7A maintenance and aircrew in support of the US-led coalition operations.

“At Operation Okra, the RAAF E-7A Wedgetail had responsibility for the command and control of all coalition aircraft in a ‘battle management area’ and crews regularly managed more than 80 combat aircraft during a single mission,” Wing Commander Brown said.

“RAAF E-7A crews have also conducted record-breaking endurance sorties for their aircraft type.

“In an integrated force, the E-7A shared information with other coalition aircraft, which allowed the force to have situational awareness across air, land and sea domains. The E-7A Wedgetail provided a force multiplier effect, not only for RAAF but for all participating nations.”

With many operational milestones and achievements to reflect on, 2020 also represents a significant year for No. 2 Squadron association members, with some marking the 50th anniversary of their service contribution to the Vietnam conflict.

“In an integrated force, the E-7A shared information with other coalition aircraft, which allowed the force to have situational awareness across air, land and sea domains.”

No. 2 Squadron was awarded a Vietnamese Cross of Gallantry and a United States Air Force Outstanding Unit Commendation. It also received a US Presidential Unit Citation for service in World War II.

“The women and men of No. 2 Squadron continue to honour this legacy and are proven operators in a cohesive and agile team environment and their important contributions have provided Air Force with an advanced, highly capable airborne early warning and control platform that is the envy of armed forces worldwide,” Wing Commander Brown said.

“The ability to perform with excellence, consistently achieving a high rate of serviceability under diverse, demanding and complex conditions is a direct result of our personnel’s professionalism and dedication to duty.”

The squadron’s efforts have also been acknowledged with the 2018 Duke of Gloucester Cup for outstanding achievement as “the RAAF’s most proficient flying unit” supporting E-7A operations.

The important partnerships and successful collaboration with the Airborne Early Warning and Control System Program Office (Capability Acquisition and Sustainment Group) and Defence industry partners, including Boeing Defence Australia, have been a key contributing factor to the effectiveness and operational success of the platform – from its introduction into RAAF service to the continual sustainment and contribution to the Australian Defence Force capability at home and abroad, as called upon by government.

Boeing Defence Australia’s vice president and managing director Scott Carpendale said it was a partnership that continued to deliver successful outcomes for the Australian Defence Force, ensuring the highest levels of aircraft availability and mission readiness.

“We have built deep sovereign capability and are exceptionally proud of our contribution to the development and ongoing delivery of critical upgrades and sustainment for this world-class capability,” Mr Carpendale said.

Australian Department of Defence

April 30, 2020

Featured Photo: Maintenance and aircrew from Rotation 14 with the RAAF E-7A Wedgetail Airborne Early Warning and Control aircraft. 

An Update on Wedgetail: And Shaping a Way Ahead with a Software Upgradeable Multi-Mission 21st Century Combat Capability

 

 

The Maritime Patrol Enterprise: Shaping a Kill Web Future

05/05/2020

By Robbin Laird

I have had a chance to visit with Rear Admiral Garvin and his team in Norfolk last Fall and earlier this year.

We discussed the evolving approach to theater ASW in those discussions along with the evolving approach to training and shaping an effective distributed maritime force.

We continued our discussion during a phone interview on April 30, 2020 and focused on the evolving capabilities of the Maritime Patrol Enterprise and its intersection with the distributed maritime force and a kill web concept of operations.

Rear Admiral Garvin leads the U.S. Navy’s global maritime patrol and reconnaissance enterprise.

This means that he trains, certifies and deploys the U.S. Navy’s Maritime Patrol and Reconnaissance Forces worldwide in support of theater Fleet and Combatant Commanders.  This global oversight provides him a unique opportunity to focus on the entire scope of maritime operations, rather than focused narrowly upon one particular theater.

A 1989 US Naval Academy graduate, he witnessed the last 30 plus years of change in the political/military environment as a P-3 pilot. This meant as well that he was entering the force coincident with the perceived sunsetting of the Soviet Naval threat and transition to a new era of maritime patrol operations.

He began his deployed operational experience at Keflavik, Iceland as part of the US and NATO ASW force prosecuting former Soviet, now Russian submarines. Contrast this with his last operational deployment focused almost entirely on over land ISR contribution to CENTCOM forces.

Despite the decades-long increase in overland ISR and combat focused missions, the Navy did not abandon its key ASW mission set.

During my first discussion with a naval officer in 2011 about the coming P-3 to P-8/Triton transition, the Navy’s attention was focused squarely on delivering a new 21st century capability to effectively meet a growing ASW threat, and to do so via the kind of manned-unmanned teaming which the P-8/Triton dyad demands.

In that 2011 discussion with then Commander Jake Johansson,  he highlighted how he thought P-8 would change the approach.

The P-8 gives you a range of capabilities that could be flexibly used in different ways. They will allow you the ability to fly from different bases farther from the fight.  The ability to reach more distant operational areas may impact our onstation time but the increased reliability of the aircraft and the inflight refueling capability will ultimately result in a force with increased responsiveness as well as more capability and flexibility for Combatant Commanders. 

We can protect our P-8 fleet a little bit better by having a little bit of distance between us and the fight as well.  We will also be able to rapidly get into theater or into that area of responsibility that we need to be in, do our business and come back.

CDR Johansson then highlighted the potential synergy between BAMS, which has evolved into Triton, and the P-8 for the ASW mission sets.

I call them remotely-piloted, because it takes a lot of people to operate these systems. We moved to the family of systems (BAMS and P-8) because we felt that we could move some of the persistent ISR capabilities to a more capable platform, BAMS.  BAMS long dwell time can provide the persistence necessary more efficiently than a rotation of P-8 24/7/365.  Also, if we used P-8 to do that we would have to increase squadron manpower to give them the necessary crews to fly 24/7 MDA in addition to the ASW/ASUW missions. 

We hope to have 5 orbits flying 24/7/365 to cover the maritime picture were required. The great thing about BAMS and P-8 is that they can work together to meet the COCOMS requirements.  BAMS can provide the persistence and the P-8 can be used to conduct the specialized skill-sets that the BAMS cannot.  BAMS can provide you the maritime picture while the P-8 either responds to BAMS intelligence or conducts ASW/ASUW. 

This Family of Systems concept can become quite a lethal combination if we employ it correctly.

That was in 2011; now in 2020, I am talking with Rear Admiral Garvin and although the language has evolved somewhat, the operational experience being gained with P-8 and the coming of Triton certainly validates CDR Johansson’s forecast.

Question: In a way the approach we took with our allies to defend the GIUK, which included SOSUS, manned aircraft, and combat ships of various types, is being morphed today into a 360-degree manned-unmanned teaming tracking and kill web.

Is that a fair way to put it?

 Rear Admiral Garvin: It is. We are following a similar mission construct working with our allies but the thinking and modality has advanced significantly.

“We are taking full advantage of the leap forward in many sensors and communications technology to interoperate in ways that were previously impossible. Faced with a resurgent and challenging ASW threat, we have not given up on the old tool sets, but we are adding to them and weaving them into a new approach.

“We are clearly shifting from linear or sequential operational thinking into a broader understanding and implementation of a web of capabilities.

“In the past, when operating a P-3, you operated alone, you had to be the sensor and the shooter. To be clear, it remains necessary that every P-8 aircraft and crew be ready and able to complete the kill chain organically, but the fact of the matter is that is not the way it always has to be, nor is it the way that we’re planning for it to have to be going forward.

“On any given mission, the P-8 could be the sensor and perhaps the allied submarine is the shooter. Or vice versa. Or maybe the destroyer is the one that happens to get the targeting solution and the helicopter is the one that actually drops the weapon. Sensor, shooter, communications node, or perhaps several at once, but each platform is all part of a kill web.”

Question: The P-8 and the Triton are clearly a dyad, a point often overlooked.

How should we view the dyadic nature of the two platforms?

Rear Admiral Garvin: There are several ways to look at this.

The first is to understand that both platforms are obviously software driven and are modernized through spiral development.

We focus on spiral development of the dyad in common, not just in terms of them as separate platforms. It is about interactive spiral development to deliver the desired combat effect.

“Another key element of teaming is that during the course of their career, the operators of P-8 and Triton have the opportunity to rotate between the platforms. 

“This gives them an innate understanding of the mission set and each platform’s capabilities. They, better than anyone, will know what the dyad can deliver, up to an including a high level of platform-to-platform interaction. The goal is to be able to steer the sensors or use the sensor data from a Triton inside the P-8 itself.

The idea of P-8 and Triton operators working closely together has proved to be quite prescient.  

“Our first Triton squadron, VUP-19 is down in Jacksonville, Florida under Commander, Patrol and Reconnaissance Wing 11. And when we build out the full complement of Tritons, we’ll have VUP-11 flying out of Wing 10 in Whidbey Island, Washington. Triton aircrew literally work down the hall and across the street from their P-8 brothers and sisters.

“The Maritime Patrol and Reconnaissance aviator of the future will be well versed in the synergy inherent in both manned and unmanned platforms.

“The unblinking stare of a Triton enhances the Fleet Commander’s MDA and understanding of an adversary’s pattern-of-life by observing their movements in the optical and electromagnetic spectrum.

“Moreover, Triton serves as a force multiplier and enabler for the P-8. Early in Triton program development, we embraced manned and unmanned teaming and saw it as a way to expand our reach and effectiveness in the maritime domain.

“One key software capability which empowers integration is Minotaur.

“The Minotaur Track Management and Mission Management system was developed in conjunction with the Johns Hopkins University Applied Physics Laboratory. Minotaur was designed to integrate sensors and data into a comprehensive picture which allows multiple aircraft and vessels to share networked information.

“It is basically a data fusion engine and like many software capabilities these days, doesn’t physically have to present on a platform to be of use.

“These capabilities ride on a Minotaur web where, if you are on the right network, you can access data from whatever terminal you happen to be on.

Question: With such an approach to integratabilty, then this allows the fleet to be able to collaborate with one another without each platform having to be topped up with organic generators of data and to have to maximize the sensor-shooter balance on a particular platform.

This then must provide flexibility as well when flying a dyad rather than a single aircraft to work a broad range mission like ASW?

Rear Admiral Garvin: It does.

It also provides for resiliency through multiple sensor points in the kill web empowering multiple kill points on that web.

“This begs the question, how much resiliency do you want to build in? Do you need several platforms that carry the actual data engine, with the rest of the force simply having access to data produced by the data fusion engine?

“It becomes a question of cost-benefit and how much resilience do you want to build into each individual platform.

 Question: In other words, the new approach allows for a differentiated but integrated approach to system development across the force seen as interactive platforms?

Rear Admiral Garvin:  I think of it this way, rather than taking an evolutionary or iterative approach, what this allows for is a step change approach.

“We’re thinking beyond just the iterative.”

This discussion with Rear Admiral Garvin drives home a key point for me that the MPA dyad operates in a way that is not simply a U.S. Navy capability for a narrowly confined ASW mission sets.

The USAF is clearly concerned with the maritime threat to their air bases and needs to ensure that a joint capability is available to degrade that threat as rapidly as possible to ensure that the USAF has as robust an airpower capability as possible.

Certainly, the B-21 is being built in a way that would optimize its air-maritime role. And clearly a core bomber capability is to get to an area of interest rapidly and to deliver a customized strike package.

Hence, for me the new MPA approach is a key part of the evolving USAF approach to future capabilities as well.

The color of the uniform perhaps belies how joint a kill web approach to platforms really is.

The featured photo shows the MQ-4C Triton preparing for a flight test in June 2016 at Naval Air Station Patuxent River, Md. During two recent tests, the unmanned air system completed its first heavy weight flight and demonstrated its ability to communicate with the P-8 aircraft while airborne. US Navy photo.

Advanced Hawkeye Onboard the USS Ford

ATLANTIC OCEAN (Jan. 16, 2020)

An E-2D Advanced Hawkeye assigned to Air Test and Evaluation Squadron (VX) 20 lands aboard USS Gerald R. Ford’s (CVN 78) flight deck.

The arrestment marked the first time an E-2D had landed aboard Ford. Ford is currently conducting Aircraft Compatibility Testing to further test its Electromagnetic Aircraft Launch Systems (EMALS) and Advanced Arresting Gear (AAG).

(U.S. Navy video by Mass Communication Specialist 3rd Class Connor Loessin)

The New Build Australian Attack Submarine: Putting It Into Context

By Robbin Laird

Recently, I finished a study of the new build offshore patrol vessel and the shaping of a new template for shipbuilding in Australia.

This is the first of three new build ships for the Australian Navy and for the Australian Defence Force.

Next is the ASW frigate in this decade and in the decade after that the new build Australian Attack submarine.

This new build submarine – the Attack Class – has had much more press and public attention than the other two new classes of ships, but what can get overlooked is the context within which the new build attack submarine will enter the force.

By context in this article, I am referring to the evolution of the ADF and of the shipbuilding context.

The broader strategic context has been well treated in a number of articles focused on the nature of the Chinese and Russian air-maritime threats to the Australian forces and interests.

But clearly that operating environment is increasingly congested, contested, and complex.

There are three key elements of change shaping the operational context within which the Attack Class submarine will enter the force.

The first is a significant evolution of theater anti-submarine warfare, with the coming of the P-8/Triton dyad, likely leading to further integration of the Royal Australian Air Force with the Royal Australian Navy.

The second will be the rollout of maritime remotes as part of the kill web within which ASW will evolve, with sensor networks mutating and migrating through the arrival of artificial intelligence systems working networked sensors and with sensors themselves evolving to allow for direct interactivity among the sensor themselves.

The third is migrating the skill sets and innovations generated in this decade from the continued evolution of the Collins Class submarines.

During my visit to HMAS Stirling, I had a chance to discuss with submarine commander Robin Dainty.

“The demand side and the concepts of operations side of innovation affecting the naval forces will be very significant in the decade ahead. This will be a very innovative decade, one which I have characterized as building the distributed integrated force or the integrated distributed force.

“What this means for the submarine side of the house and for ASW is working new ways to cooperate both within national navies and across the air-naval-land enterprise of the allied forces. The decade will see new ways to link up distributed assets to deliver appropriate effects at the point of interest in a crisis.  It will involve working new weapon and targeting solution sets; it will see an expansion of the multi-mission responsibilities for platforms working in the distributed force.

“And the Collins class will be participating in this path of innovation and lessons learned as well as technologies evolved both on the ship or the extended battlespace enabling the evolution of an integrated distributed force.”

Recently, I had a chance to talk with the Deputy Chief of the Royal Australian Navy, RADM Mark Hammond.

Our conversation was to have taken place during my visit to Australia in March 2020, but COVID-19 raised its ugly head and that face-to-face conversation did not happen. We were able to talk by phone on April 28, 2020 about the context issue for the new build submarine.

RADM Hammond started by talking about the Australian context of submarine capability in terms of the significant range and endurance challenge posed by the Indo Pacific Theater through which Australia’s lifeblood or maritime trade flows (featured graphic above).

He then highlighted that during WWII the US conducted over 500 submarine operations across this Theater from Australia using S-class, Gato class, and Balao class submarines.

He noted that the Gato and Balao class were able to operate effectively at long distances across the Indo Pacific (as far north as Japan) from ports in Australia, but had to do so largely in surface transit mode for significant parts of the operation and only remaining submerged for short periods.

The smaller S-class lacked the endurance for this mission and were employed largely around the Solomon Islands and in areas close to the equator.

The Gato and Balao “Fleet boats” truly came into their own during the campaign and elements of their design arguably inform the ‘range and endurance’ DNA for successful conventional submarine operations from Australia today.

The Oberon class submarines operated by Australia from the late 1960s until 2000 were of similar but evolutionary capability, designed to transit at relatively high speed on the surface to an operating area, whereupon they would dive for more extended periods to conduct exercises and operations.

Oberon Class Submarine as Seen at the Australian National Maritime Museum in Darling Harbour, Sydney. Credit: Second Line of Defense

In an era predating effective broad area surveillance threats, this could be risk-managed and effective.

But “to emulate that capability today requires a bigger submarine because the entire deployment, including at nighttime, has to be undertaken under water because the environment has changed.

“Today anything on, or above, the surface of the ocean is liable to detection and targeting. And a submarine that has been detected and targeted is not very useful. As simple as that.”

We then discussed the impact of Collins modernization throughout the period of transition to the new build submarine.

“We are taking a continuous learning mindset that views the life cycle extension for Collins as an opportunity.

“It’s an opportunity to de-risk the future submarine program.

“It’s an opportunity to trial some technologies that will be integral to the future submarine program.

“And it’s certainly a mindset that recognizes that we must maintain lethal operational capability during the transition period.“

We then discussed the context for the new submarine which is being generated by innovations in theater ASW in the decade ahead.

“The Attack Class submarine will be a fully interoperable ADF asset optimized to survive and thrive in the contemporary and future ASW threat environment.

“This means deliberately designing for interoperability with our own forces, our partners and our allies.

“It also means integrating in the design and construction methodologies the options and margins to enable future capability enhancements.“

“In my view, our Future Force must be designed to safely and effectively operate in the ‘environment of relevance’ and fight at the ‘speed of relevance’.

“Neither of these reference frames are static, and both are ambiguous. But failure to consciously consider and mitigate the risks posed by either will lead to inferior capability”

We next discussed the Arafura Class OPV template, its impact on the future submarine program and the integration of maritime remotes into the future combat environment.

“The Arafura OPV has a great deal of inherent design flexibility – especially wrt its capability to employ unmanned and remote sensors.

“With regard to the future submarine program, we’re looking for similar opportunities.

“But future proofing in a submarine design is a different challenge than doing the same in a surface vessel.

“The goal is the same though – to enhance through life relevance, recognizing the environment and speed of relevance are going to continue to change.

“In this context the more flexibility you have to upgrade sensors and weapons through life, the greater your capacity to maintain relative operational effectiveness and to exploit tactical advantages of the platform in the evolving threat environment.”

Obviously, this approach will also reduce the time to modernize and enhance cost effectiveness of the ongoing upgrade cycle as well.

“The design approach for the future submarine fully embraces the evolution of maritime remotes in the maritime combat environment.

“We are working through the role of maritime remotes within the ADF, and as we develop that experience, we will fold that into the operational employment doctrine for the future submarine as well.”

And we concluded by discussing the impact of COVID-19 on perceptions of what Air Vice Marshal (Retired) John Blackburn refers to as Smart Sovereignty.

As RADM Mark Hammond put it: “I think in the age of COVID-19, it is likely the decision made by our island nation to establish an Australian national sovereign shipbuilding program, supported by largely sovereign supply chains, will be recognized as the right approach for Australia.”

Rear Admiral Mark Hammond

Rear Admiral Mark Hammond joined the Royal Australian Navy in 1986 as an electronics technician. He was commissioned as a naval officer in 1988 and is a graduate of the RAN Recruit School (1986); the Australian Defence Force Academy (1990); Australian Command and Staff College (2004); and the Centre for Defence Strategic Studies (2014).

Rear Admiral Hammond completed seamanship and navigation training in various ships then volunteered for submarine service. Qualifying in Oberon Class submarines in 1994, Hammond joined HMAS Collins as Navigating Officer in 1996 (during First of Class Trials), and was selected as Flag Lieutenant to the Chief of Navy.

He subsequently completed the Principal Warfare Officer’s Course and Submarine Warfare Course in 1998, and served as the commissioning Operations Officer in HMAS Waller. In 2001 Rear Admiral Hammond instructed the Submarine Warfare Officer Course and assumed duties as Executive Officer in HMAS Sheean. In 2003 Hammond completed the Netherlands Submarine Command Course (Perisher) and the US Navy’s Prospective Commanding Officer Course.

Rear Admiral Hammond served as Staff Officer Future Concepts at Naval Headquarters in late 2003, and graduated from Command and Staff Course in 2004. Hammond then deployed on operations with the Royal Navy Submarine force, before assuming command of HMAS Farncomb and completing two years of demanding operations in the Indo Pacific region.

Subsequent shore postings included Assistant Naval Attaché – Washington DC, USA; Director Future Submarines – Operational Requirements; Joint Exercise Director (J75) at Joint Operations Command; Director Submarine Sub-Program (Collins and Future Submarines); and Chief of Staff to the Chief of the Defence Force, performing the latter role for General Hurley from November 2012 to December 2013.

In late 2014 Rear Admiral Hammond was appointed as Director General Maritime Operations, exercising OPCON of the Navy’s ships, submarines and detachments, before relocating in 2017 to the United States for duties in the Pentagon as the Chief of Defence Force Liaison Officer to General Joseph Dunford, the Chairman of the US Joint Chiefs of Staff.

Rear Admiral Hammond returned to Australia in March 2018 to assume duties as the Deputy Chief of Navy.

Rear Admiral Hammond has sea experience in French, British and US nuclear attack submarines, Australian and Dutch conventional submarines, and multiple surface vessels. Academic qualifications include Bachelor of Science (UNSW, ADFA, 1991); Masters in Management (Defence Studies, UCAN, 2004); and Masters in Maritime Studies (UoW, 2005).

The featured graphic was taken from the following report:

Andrew Forbes, Protecting the Ability to Trade in the Indian Ocean Maritime Economy (Sea Power Centre-Australia, 2014)

SPS3_Protecting_Trade_IndianOcean

 

 

 

 

 

 

 

 

 

NATO and Defense of NATO Air Space: Intercepts Ramp Up During COVID-19

05/04/2020

RAMSTEIN, Germany

NATO aircraft have been busy over the past two days intercepting Russian aircraft flying close to NATO airspace.

On 28 April Polish fighters were scrambled under NATO’s Baltic Air Policing mission from Estonia to identify two Russian Tu-160 long range bombers, escorted by several fighters and supported by an Airborne Early Warning aircraft. The formation was later intercepted again by fighters of the Royal Danish Air Force.

On the same day a Russian Airborne Early Warning aircraft as well as two Russian Tu-22 long range bombers with fighter escorts approached NATO airspace off the coast of Norway and were intercepted by Norwegian fighter jets.

On 29 April Norwegian fighters were scrambled twice more against two Russian Maritime Patrol aircraft, approaching NATO airspace close to Norway. After the first intercept by Norwegian F-16 aircraft, the Royal Air Force launched their Quick Reaction Alert Typhoon fighter aircraft from RAF Lossiemouth to meet and escort the Russian planes as they tracked south towards the North Sea. They operated around the North Sea and turned north where Norwegian F-35 fighters met them and escorted them out of NATO’s area of interest. 

All intercepts were conducted in a professional manner, demonstrating that NATO fighters across the Alliance remain ready and poised to protect Allied skies 24/7.

April 30, 2020

NATO

The First Arafura class OPV Hull Assembly

In a further milestone for the Offshore Patrol Vessel (OPV) program, the two halves of the first of class ship, Arafura, built by Luerssen Australia and its partner ASC have been brought together and welded to form a complete hull.

In what was the largest block move in the history of the Osborne Naval Shipyard and a considerable engineering feat, Australian Naval Infrastructureís (ANI) operations team manoeuvred the two mega-blocks together, with only millimetres between them.

Australian Department of Defence, April 26, 2020.