The Hon. Greg Combet AM MP
Minister for Defence Materiel and Science
“From Collins to Force 2030: The Challenge of the
Future Submarine”
SPEECH TO THE SYDNEY INSTITUTE
Wednesday 4 November 2009
CHECK-AGAINST-DELIVERY
Director of the
Institute, Mr Gerard Henderson, Ladies and Gentlemen.
I would like to
talk to you tonight on the topic of “From Collins to Force 2030 – the Challenge
of the Future Submarine” in order to highlight the importance of this project and
deal with some of my roles and responsibilities as the Minister for Defence
Personnel, Materiel and Science.
Submarines
represent incredibly challenging demands in the combined fields of personnel,
acquisition and procurement, and science.
The future
submarine project is itself perhaps at the margins of
For this reason, I
thought that you might be interested to know how we envisage setting about this
challenging task.
But firstly some
Australian submarine history.
Submarines in Australian Defence
Just on 100 years
ago, Andrew Fisher, Australia’s second Labor Prime Minister, introduced
legislation to create the national defence capabilities that would be tested a
mere five years later.
Only two years
before, Alfred Deakin – against the advice of his Commander of Commonwealth
Naval Forces, Captain William Creswell – had decided that
As costs escalated,
nine quickly shrank to two, and on Sunday 24 May 1914 the submarines AE1 and
AE2 completed their record-breaking journey from
Following the loss
of AE1 on 14 September 1914, AE2 was dispatched to
Thus ended
World War Two saw
submarines come into their own. With
John Curtin as Prime Minister, Fremantle, with 170 submarines home-ported
there, became the second largest operating base for the
Advances in
submarine technology, together with dramatic changes in the operating
complexity of surface fleets, led to the recognition in
Accordingly, in
1963 the Naval Board decided to re-establish the Australian submarine service
with the purchase of four, later six, Oberon class submarines. These highly effective vessels laid the
foundation for the submarine force we have today.
In 1985, the Defence
Minister Kim Beazley commissioned a major review of
The technological
and industrial achievement of the Collins project was immense. It is a matter of very considerable regret
that public confidence in the Collins class was undermined in the late 1990s,
just as the submarine was proving its formidable war fighting abilities in
international combined exercises coordinated by the
Given the fundamental
importance of our submarine force this has been very damaging.
The Strategic Argument for our Future Submarine
In May this year, the
Rudd Government released the 2009 White Paper.
This outlined a force structure – Force 2030 – that will enable
The White Paper
reaffirms the long-held view that the primary task of the ADF is to deter and
defeat armed attacks against
To this end, the
White Paper recognises that the aim of establishing sea and air control in our
primary operating environment does not entail a purely defensive or reactive
approach. Rather, we must be able to
conduct proactive combat operations at a distance from our shores.
This demands a mix
of intelligence, defensive and strike assets to ensure both deterrence and, if
that were to fail, an ability to impose unacceptably high costs on any
potential adversary. Put simply, we need
to be able to take warfare to an adversary’s front door.
The White Paper
identified the need for
Submarines are able
to stop an adversary from deploying its’ fleet by maintaining sea denial. By
imposing disproportionate costs on an adversary, submarines represent an
asymmetric threat well suited to
The Rudd Government
has announced its decision to acquire 12 next generation submarines. The future
submarine builds on our experience with the Collins class, aims to offer
greater range, endurance and payload.
As I noted earlier,
this is an extraordinarily complex task, imposing ground-breaking demands on
both science and industry. But the Rudd
government is confident that Australian industry can again rise to the
occasion, as it did with the Collins Project 25 years ago.
But it is important
to recognise that the future submarine’s development and delivery is intimately
dependent on our continuing ability to manage, crew and operate the Collins
class.
As they approach
middle age, the Collins submarines are throwing up a series of engineering and
operational problems that impose real demands on the Navy, the DMO and the
ASC. The Government is working together
with each of these to address these problems.
The Navy is
currently examining ways of building up the submarine personnel force in order
to ensure that the future submarine is properly crewed. The DMO is looking to
the improvement of its contract management to ensure that the technical
problems that Collins confronts from time to time can be managed quickly and
well, and the ASC is about to take on a new CEO.
So, within all of
that context, I now want to highlight some of the challenges we face in the future
submarine project, in the areas of my own responsibility including industry,
acquisition, personnel and science.
The Industrial Challenge
Without a doubt,
the key challenge for the future submarines will be the industrial challenge, which
also presents the greatest opportunity of the program.
The challenge to
industry covers facets of the design, construction and eventual maintenance of
our future submarine.
The Government is
carefully considering the issues that are raised under each of these phases in
order to inform the acquisition strategy to be utilised for this program.
The Design
Challenge
Firstly, on the
design stage of the project.
A constant
criticism of the Collins experience was the decision to design a submarine around
an evolved Kockums platform rather than simply purchase an existing ‘Off the
Shelf’ submarine.
It is worth asking
the question would
The available
evidence says no; the lead boat of the Dutch submarine design, Walrus, was
delayed 3 years due to a fire. The British Type 2400, the initial favourite for
the tender, suffered a three year delay due to construction faults and safety
concerns. The first Thyssen TR 1700 to be built in
It should also be
noted that none of these submarines matched the Collins in terms of performance,
then or now.
In planning for the
future submarine, we need to consider a range of engineering and production
solutions, ranging from the acquisition of a Military Off The Shelf (MOTS)
design, options consistent with the Kinnaird/Mortimer reforms, to a developmental
solution designed indigenously.
Another issue for
the Collins was the failure to adequately consider through life support issues
in concept, design and construction phases.
I recently visited the
US Navy’s Centre of Excellence for Ships and Ship Systems at Carderock and
Electric Boat. A key lesson reinforced
during these visits was that design development must be very mature before
construction commences.
Electric Boat have
a rule known as the ‘law of 1:3:8’, that is, a task that takes an hour in
module construction takes 3 hours when the hull has been assembled and 8 hours
when the submarine is in the water. In other words, make sure the design is
mature before you start cutting steel.
The Construction Challenge
Which brings me to
the construction of the future submarine.
The design and
construction of a fleet of 12 new advance submarines will be without doubt the
largest defence acquisition this country has ever engaged in. I would go as far
as to say that it is possibly the most complex and sophisticated industrial
project ever pursued in this country.
Some commentators
have begun to estimate costs in excess of $30 billion for the project. It is
too early for this. However these estimates give some idea of the potential
scale of the project depending on what choices are made.
To put this in
perspective, the entire Snowy Mountains Scheme cost around $7 billion in
today’s dollars. This project will be among the largest industrial project ever
contemplated in
Submarines are
extraordinarily complex systems. For example, each Collins Class Submarine has
over 3,800,000 parts, 75 kilometres of cable, 200,000 on-board connections,
23.5 kilometres of pipe, 14,000 pipe welds and 34.5 kilometres of pipe welding.
This complexity is akin to building a space shuttle.
The construction of
the Collins Class submarines in
When the Collins
project began, there were only 35 Australian companies certified to the quality
levels required for defence work. By 1998 there were 1500.
The Collins
construction involved 70 major subcontractors in
The Hawke-Keating
Governments sought a minimum local content target of 70 per cent for the
platform. This was a very ambitious target compared to the 30 per cent
participation that was the defence project average at the time. That this was
eventually exceeded is a tribute to all participants. Of the $5.1 billion cost
of the original Collins project, $4 billion was spent in
However, we have
found it difficult to maintain the industrial capacity built around this level
of local content. Some of the ongoing maintenance problems of the Collins are
driven by this issue. Accordingly, we are giving serious thought to what
industrial capabilities must be supported within country to sustain this
project.
The Sustainment
Challenge
Finally, we should
also consider the issues that we will face in maintaining our future submarine
fleet.
Sustainment of
submarines is always a challenge given the complexity of each boat.
However, on this
front,
For the Oberon
class submarines the Navy was dependent on overseas suppliers for some 85 to 90
per cent of the support and the refit of the first Oberon class submarine cost
76 per cent of its purchase price.
The maintenance of
the Collins Class, while not perfect, has obviously improved on that. But
significant challenges remain.
Quite simply, we
must lift the availability of our current submarines.
It is one of my top
priorities and is at the top of the project of concerns reports that I oversee
each month.
Acquisition Strategy
Our ability to get
on top of the design, construction and maintenance phases will largely
determine our acquisition strategy for the future submarine.
Studies have shown that 90 per cent of the discretionary decisions that affect
the outcome of a project are made in the first 7 to 12 per cent of the project’s
life.
There are three
things that we must get right:
·
We must adequately define the operating
concepts and requirements for the future submarine. The consideration of this
must involve a full understanding of the trade offs between different aspects
of capability.
·
We must develop a sophisticated
acquisition strategy that has the flexibility to solve any problems, but maintains
focus on delivering the agreed outcome. The contracting strategy is a very
important element of this.
·
Finally, we must understand the
interaction between capability and the acquisition strategy. It is often the
interaction between these two processes that leads to trouble.
One of the matters
that we will need to tackle early in the project is the need to invest in and
develop a sustainable industrial base that is capable of designing, constructing
and maintaining 12 large submarines.
On this subject,
some commentators have recently canvassed the concept of rolling production. Although it is far too early for the
Government to consider a detailed acquisition strategy, two contrasting models
would appear to provide the boundaries within which an acquisition strategy
could be designed.
In many instances
building 12 identical submarines may be the cheapest way to build the future
submarine. If you can ensure that you can acquire all the sub-systems for each
boat, building 12 submarines on the same design allows the boat builder to make
huge savings on the ‘learning by doing’ curve.
However, there are
good capability and industrial reasons why that strategy may be questioned. For
instance, it is almost certain the 12th submarine to be delivered will be at
least 15 years behind the latest technology. From a technological currency point
of view, there may be certain advantages to building batches of submarines.
For example,
designing and building in batches has been found elsewhere to support a more
sustainable industrial design, skills and maintenance base – leading in turn to
a greater capacity to develop a subsequent project and/or to deliver upgrade
programs.
Moreover, to
sustain the necessary design and engineering skills, it is critical that we
factor in an appropriate throughput. However,
let me repeat that no decision has been made, but building 12 identical
submarines or a few batches or blocks is one of the key choices that Government
will need to consider.
Selecting the right
contracting model will be an essential part of a successful acquisition
strategy. The Collins submarines were built using a fixed priced contract. A rigid,
inflexible commitment to the terms and conditions of the contract set in train
many of the subsequent problems. An adversarial relationship between customer
and builder was enshrined from the start.
This is not to say
that we should choose a cost plus contract. I was interested to learn in my
recent trip to the
Nevertheless, we
must be imaginative when looking at contracting options.
One of the lessons
from the Collins build was that there must be very close cooperation between
the navy, the project manager, the combat systems integrator and platform
builder. I am closely following the
The “People” Challenge
Of course, we
cannot discuss the future submarine force without also focusing on the
workforce that is needed to support it.
Demographic trends
indicate that
The submarine force
is one area where significant improvements are needed.
Navy continues to experience
shortfalls in qualified submariners.
This is a significant vulnerability as Navy transitions from the Collins
Class submarines to the new submarine.
To assist in
addressing these shortfalls, the Government has budgeted for additional
positions to support the future maritime force.
I would like to
touch on some of the reasons for these shortfalls and how we intend to resolve
them.
While the life of a
submariner can be one of excitement and professional satisfaction, it is not
without its challenges. Recent reviews undertaken by Navy confirm some systemic
problems within the submarine workforce that have impacted on morale and job
satisfaction, and consequently, on retention.
They include insufficient
support to families, a lack of posting stability, high stress, extreme fatigue
and widespread concerns about the sustainability of the current submarine
force. There has also been difficulty in finding the right balance between the
need to conduct effective training at sea and the need for respite while
on-shore.
We also should not
underestimate anecdotal community perceptions that a career at sea is
unappealing. Unfortunately, some young
people may be quickly discouraged from a life in the Navy by the prospect of
what they see as long periods away from family, friends and broader social
networks.
Navy is committed
to developing a positive cultural shift and enhanced employment conditions that
will help stabilise the submarine workforce.
Our key competitive
advantage is the unique nature of military work which comes with a comprehensive
package of pay, conditions and services. In short, the ADF is a rewarding
profession in every sense.
Through sensible
recruitment and retention measures, we can build a framework for a more
sustainable workforce culture.
The Science Challenge
Another challenge
for the future submarine will be to lock in the scientific support that will be
critical to the long-term sustainability of the future submarine.
If Force 2030 is to
have a capability edge over other forces, we must have submarines with advanced
technology and systems.
This capability
edge will be science driven. To this end, we are very fortunate to have the
Defence Science and Technology Organisation (DSTO).
The DSTO provided
research in all phases of the Collins Submarine build. It played a vital role
in the development of a new high-strength, low-alloy steel. The consistency
offered by this steel and the ability to weld it was an essential element in
the successful construction of the Collins.
Just as significant
was DSTO’s development of advanced anechoic tiles that render the submarine
“invisible” to enemy sonars and are at the leading edge of stealth.
The DSTO also made
an invaluable contribution to the development of the active sonar for the
Collins.
The DSTO was
instrumental in identifying the propeller and water flow around the hull as key
drivers of the noise problems that affected HMAS Collins after launch.
The US Navy’s
Centre of Excellence for Ships and Ship Systems at Carderock also provided
invaluable support. We will be highly dependent on the
We need to start
early on developing the science to underpin the future submarine. We have
already begun investing in these efforts.
For example, the
Government has invested $1 million in a new underwater test facility that will
be used for experiments to control underwater noise.
The DSTO has also
partnered with the
The DSTO is also looking
at a range of additional technologies that will be key drivers of future
submarine operation; these include energy storage, payload deployment,
communications, autonomous systems, Air Independent Propulsion and submarine
habitability.
The Management Challenge
The final challenge
we face is the management challenge.
Project management
performance during the design and construction of the Collins class was variable.
The project management unit was split between Canberra and Adelaide with the
prime contractor located in Adelaide. This led to poor communication at times
with issues taking longer than they should to resolve.
It’s also fair to
say that there was poor risk mitigation and inadequate contingency allocated.
There was also insufficient recognition of the ‘Parent Navy’ challenge and an
underestimation of through life support costs. Moreover, the through life
support contract was not in place early enough.
A further issue
that the Government is mindful of is the need to ensure, in light of the
Collins experience, that there is clarity over the ownership and use of
intellectual property.
One of the things
that the Government will need to consider is a dedicated policy cell located in
Additionally,
consideration will need to be given to an appropriately resourced design and
project management cell located in
The ongoing upgrade
of the Collins Class submarines will also be crucial to the successful
management of the future submarine. Managing these upgrades well potentially
provides a development path to the future submarine.
Conclusion
The future
submarine project is evidently ambitious.
In the view of the
Rudd Government, it is also achievable.
The combination of
Australian scientific, technological and industrial know-how, potential technical
support from Allies, sound project design and robust contract management should
deliver an unparalleled strategic asset.
In this enterprise,
we will strengthen our ties with the
That is what we
plan to deliver.
Thank you for your
time this evening and I am happy to take your questions.