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16 NAVY ENGINEERING BULLETIN SEPTEMBER 2003<br />

problem outside the normal<br />

scope of planned maintenance<br />

has to be referred ashore for an<br />

answer. The exchange of<br />

information and questions<br />

between the embarked flight and<br />

the ashore support can take an<br />

extended period of time due to<br />

the nature of communications<br />

with ships at sea and results in<br />

the aircraft being unserviceable<br />

for long periods. Is this what we<br />

want for our ships? Interestingly,<br />

in 2001 the aviation world trialed<br />

sending an engineer to sea with<br />

the embarked flight in an attempt<br />

to overcome this problem and<br />

also to give the engineer first<br />

hand experience of a flight at sea.<br />

AUSTRALIAN WARSHIPS<br />

Before looking at the value of an<br />

engineer at sea, we must<br />

understand what we want our<br />

ship to be able to do and the<br />

importance of each ship within<br />

our Fleet. A comprehensive<br />

answer to the question of the<br />

roles that can be given to<br />

warships by government is<br />

contained in the <strong>Australian</strong><br />

Maritime Doctrine. Chapter 6 lists<br />

the characteristics of maritime<br />

power, of which the following are<br />

relevant to the current discussion:<br />

resilience, poise and persistence,<br />

reach, adaptability and flexibility.<br />

The engineer plays an important<br />

role in each of these<br />

characteristics. An engineer<br />

contributes to the resilience of a<br />

ship through the management of<br />

redundancy within systems and<br />

through the assessment and<br />

repair of damage. The ability of a<br />

ship to remain in the area of<br />

operations without recourse to<br />

shore services relies heavily on<br />

the skills of an engineer. Similarly,<br />

to achieve the normal reach of a<br />

warship is dependent upon the<br />

ability of an engineer to sustain<br />

the operation of the ship for long<br />

periods and at extended<br />

distances from home base.<br />

Adaptability and flexibility will<br />

also provide many challenges to<br />

an engineer, especially in unusual<br />

tasks that may arise at short<br />

notice. CAPT Paul Field in the<br />

Feb 02 edition of the Engineering<br />

Bulletin makes a more detailed<br />

discussion on the role of<br />

engineers in support of Maritime<br />

Doctrine. To ensure that these<br />

characteristics of maritime power<br />

remain available in future<br />

warships, some form of tactical<br />

level engineering is vital.<br />

Another aspect of our <strong>Navy</strong> that<br />

distinguishes us particularly from<br />

the USN, is the value of each<br />

ship within our order of battle.<br />

Each ship within our Fleet is a<br />

significant element of our<br />

capability to defend Australia. The<br />

RAN is far less able to absorb the<br />

loss of even one ship than larger<br />

navies such as the USN or the<br />

RN. Consequently, the effort we<br />

put into sustaining a ship within<br />

an operational area needs to be<br />

greater than these larger navies. A<br />

larger navy has greater scope to<br />

withdraw a damaged ship from<br />

the area of operation and<br />

allocate another. For the RAN, it<br />

is far more important for us to<br />

engineer a way to keep a<br />

damaged ship operating to<br />

achieve its tasking.<br />

VALUE OF AN ENGINEER<br />

So, what does an engineer have<br />

to offer? LCDR Warren points to<br />

the IEAust to provide an<br />

understanding of what an<br />

engineer does, and proposes that<br />

engineers are primarily involved in<br />

design through improving systems<br />

or maintenance. But if we look at<br />

the competencies for registration<br />

as a Chartered Professional<br />

Engineer, we can see that an<br />

engineer can have a much greater<br />

role within an organisation.<br />

Although there is a heavy<br />

emphasis on design, there are<br />

also competencies related to the<br />

management of engineering<br />

within the business (ie, for<br />

business we can use the ship),<br />

management of engineering<br />

operations, and investigation and<br />

reporting of problems. A<br />

professional engineer therefore<br />

has a much more expansive role<br />

than merely design, they are the<br />

manager of a large and skilled<br />

technical workforce to assess<br />

reports properly and to assist<br />

with particularly complex<br />

problems.<br />

LCDR Warren suggests that<br />

advances in technology will result<br />

in a corresponding reduction in<br />

the requirement for engineering<br />

skills in these areas. The<br />

assertion that advancing<br />

technology leads to greater<br />

reliability does not seem to be<br />

supported by experience. Without<br />

having analysed any data, I do<br />

not believe that anyone would<br />

suggest that ANZAC Class ships<br />

are any more reliable than the<br />

FFGs. In fact, my experiences in<br />

early 2001, would tend to<br />

indicate that they are less<br />

reliable. However, even if this is<br />

the case, new technology has led<br />

to greater flexibility for both plant<br />

operating modes and plant<br />

control. This greater flexibility<br />

offers command more choices in<br />

terms of matching the plant to<br />

the current operational tasking.<br />

Engineering operations<br />

competencies then become even<br />

more important in helping<br />

Command manage the plant to<br />

maximise operational<br />

performance and minimise plant<br />

stresses. As we look forward to<br />

revolutionary engineering plants,<br />

such as the fully electric<br />

propulsion, the degree of system<br />

complexity and flexibility is only<br />

going to increase, resulting in an<br />

equivalent increase in importance<br />

of having an engineer to manage<br />

the plant.<br />

AN ALTERNATIVE FUTURE<br />

So, having established why an<br />

engineer is important on a ship<br />

and what an engineer has to<br />

offer, how might our future<br />

warships be manned. Although I<br />

have disagreed with the<br />

suggestion that technology makes<br />

systems easier to support, I do<br />

believe that it makes them easier<br />

to operate. Consequently, we now<br />

need less operators to control<br />

and adjust the ships systems and<br />

machinery, and as technology<br />

develops we could see an even<br />

greater reduction in the number<br />

of operators required to fight the<br />

ship as a whole. In fact, it may be<br />

possible next century to operate<br />

the warfare side of a ship via<br />

satellite from MHQ. Therefore, I<br />

believe that technology will allow<br />

us to reduce the number of<br />

operators in a crew, but for the<br />

reasons stated above, will still<br />

need engineers and maintainers<br />

onboard. Imagine an operations<br />

room with only the captain, a<br />

PWO and a system manager; a<br />

bridge with only an OOW; and a<br />

host of maintainers ready to alter<br />

the ship’s systems to meet the<br />

changing operational demands<br />

and limitations imposed by<br />

damage. We may well only need<br />

one or two engineers in this<br />

scheme rather than the five or six<br />

we have currently, but the<br />

ultimate ability of a ship to fight<br />

and win at sea can only be<br />

achieved with engineers at sea.<br />

1 LCDR Mark Warrens article from<br />

Engineering Bulletin Jun 01.<br />

About the Author LCDR Goldsworthy joined<br />

the RAN in Jan 1986 at ADFA where he<br />

completed a Mechanical Engineering<br />

Degree in Dec 1990. On completion of<br />

junior officer training at HMAS CRESWELL<br />

he joined HMAS DERWENT as an AMEO.<br />

Whilst an AMEO he also spent some time<br />

on HMAS TORRENS and HMNZS WAIKATO<br />

before being awarded an MEOCC. In mid<br />

1993 he took over as one of the Ship<br />

Managers at FIMA Sydney, primarily looking<br />

after IMAV work for FFGs. In late 1995 he<br />

posted onto HMAS CANBERRA to take up<br />

the role of DMEO. Once awarded a MEOCQ,<br />

he was posted to Canberra where he<br />

fulfilled a number of roles working with<br />

minor projects and the initial development<br />

of Certification. In Apr 2000 he assumed<br />

the role of MEO of HMAS ARUNTA before<br />

returning once again to Canberra where he<br />

is now working in the Logisitics Section of<br />

the FFG Upgrade Project."

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