I often follow the debate on
the profiles, experiences, expectations and opinions of the issues concerning the
Baby Boomers (born 1940 t0 1960), The Generation Xs (1960 to 1975-ish), and the
Generation Ys (post 1976). These periods are derivations taken from many
historical analyses of the parties who study the phenomena of the age eras and
their characteristics.
Probably the most significant
item that is relevant to all these age groups is that of lifestyle and the
values that define that. Each age group tends to indulge in the criticism of
the previous one laying blame for all the problems that beset their current
lifestyles. Characteristics such as social responsibilities, work ethics, corporate
practice, family stability, wealth profile and continuity of employment are
significant items. It just seems to be easier to blame the earlier generation
for its own generation’s problems rather than exhibit and practice leadership
and responsibility for one’s own.
Corporate value systems have
changed with the evolution of bottom line items that go beyond profit. Awareness
of the environment, ecology and health systems have emerged strongly where the
impacts of these are able to be managed with technology development.
In engineering education
training and practice, it is not uncommon to witness those who question the
effectiveness of present-day curricula which in real terms have not differed
significantly from those of earlier generations. Obviously the tools that
facilitate learning have changed with modern information technology
developments such as computers, software and digital configuration. How often
has one heard the comments questioning the inclusion of certain academic basics
into programmes where the graduate has claimed that such learning has never
been applied in their subsequent careers? In engineering curricula this may be
a truism but the challenge is that due to the "connectedness” of science and
technology, where does one omit such content?
The great thing about an
engineering curriculum is that it addresses the challenge of tackling those
aspects of life that do not radically change: the laws of nature and science
remain intact, the fundamentals still exist, the approach to problem solving and
the need to develop empirical competence are still the foundations of the Engineer’s world. They are
the toolbox for future applications. What does matter thereafter is the
training and practice of how to use them to build the environment we purport to
do better than any other profession.
The matter of becoming
competent to apply these principals, plus those of management and economics,
then need to be assessed as to their relevance of past experiences on modern
engineering practice. Have these changed other than for the tweaking required for
inclusion of new technologies, materials development, and refinement of codes
of practice for example? What age group is the right mentorship group? Are the
retired or semi-retired the right dispensers of experiential skills and advice?
Has this thinking now emerged for the reason that each generation of Engineers from
the baby boomer era was both supervised and mentored by the next level in the
system as a matter of course where is was not called "official mentoring” but de
facto on the job development in the process of evolving the next skills layer?
There was clear period of
world practice in infrastructure development with the emergence of industry,
production and modern supply chain logistics. Large projects covering all the
technologies were common: energy development, transport, communications and
service industries emerged that had decades of continuity that encouraged
sequential training and development of practical skills.
We must question why we now have
an era where this has reduced significantly and it is evident that
internationally well experienced skills in the lower, active age groups are in very
short supply.
From a human development
perspective, the period over which a candidate Engineer needs to develop
sufficient competencies to be recognized as a professional will not have
changed. Gladwell’s theory on the 10,000 hour rule probably applies where any
person claiming expertise will have spent 10,000 hours odd developing that
expertise. So the candidacy phase which is set as 3 years minimum is rarely
met, and the statistics show that 5 years is the norm. If you work that out, it
is about 10,000 hours.
Until we return to the era of
on-the-job sequential skills development, we will have to recall the retired
and semi-retired who are willing to fill this space. Regrettably in SA, we have
bolstered the loss of this intellectual capacity by dumb affirmative action
politics and short term financial returns. The challenge is when this capacity
is not available in books or boxes, it is the only option. This capacity must
be applied sensibly to the emerging graduate training programmes to make the
most of their 10,000 hours needed to reach a recognized level of professional
competence.