TEchNOLOGy TRaNSFER MODEL - Javna agencija
TEchNOLOGy TRaNSFER MODEL - Javna agencija
TEchNOLOGy TRaNSFER MODEL - Javna agencija
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5<br />
Technology Management<br />
the (now only marginal) performance improvement<br />
of the current, obsolete technology T o<br />
or rather used<br />
for development of the new, promising substitution<br />
technology T n<br />
, which however requires a technology<br />
change and therefore a technology leap to the<br />
S-curve of T n<br />
. Sure, at a point in time t as seen in figure<br />
5, an investment in the substitution technology T n<br />
would entail a performance decrease due to current<br />
predominance of T o<br />
, but with continuous investment<br />
in the new technology the viability limit and maximum<br />
potential of T o<br />
can be greatly exceeded in the<br />
long term, as the technological potential of T n<br />
turns<br />
out to be much higher than with T o<br />
in the big picture.<br />
Figure 5: S-curve concept and the shaping of a potential technology change<br />
(According to: Tiefel, 2007)<br />
5.4.4 Continuous technological development vs. disruptive technological changes<br />
As figure 6 points out, continuous technological development typically evokes incremental innovations which lead to an up-shift on<br />
the respective S-curve. Once a technology change is intended, a leap in technology from T o<br />
to T n<br />
takes place. However, such a ‘disruptive’<br />
change to T n<br />
is not in practice as easy as may be assumed and, furthermore, entails the following risks:<br />
• The current corporate technological basis is partly going to be devaluated, possibly even irrelevant for competition<br />
• There are no reliable instruments to predict the necessity of a change from one technological paradigm to another<br />
• Not the present capability but the potential capability of T n<br />
should be assessed for decision making – Attention: T n<br />
is often underestimated!<br />
• Discontinuous technology leaps are often evoked by companies outside a particular sector of industry – they are, compared to direct<br />
competitors, more dangerous for the competitive position, as these company’s technologies often remain „blind spots“ despite<br />
precautions<br />
• Appearance of phenomena like INCUMBENT INERTIA, INNOVATOR’S DILEMMA or SAILING-SHIP-EFFECT resulting from management<br />
problems<br />
Info Box:<br />
T o<br />
T n<br />
• INCUMBENT INERTIA: technological<br />
change is interpreted primary as a<br />
threat, reacting on it with rigidness<br />
• INNOVATOR’S DILEMMA: business is<br />
still going strong with current technology,<br />
thus exists ‘no reason’ for<br />
a technology change. Organization<br />
is set up for steady-state innovation<br />
and is not able to respond well<br />
to weak signals about disruptive<br />
change<br />
• SAILING-SHIP-EFFECT: desperate attempt<br />
to once again notably improve<br />
the performance of an obsolete<br />
technology<br />
Figure 6: Disruptive technological change and potential management problems (According to: Voigt, 2008)<br />
5.5 Technology Assessment<br />
5.5.1 Detection of technological potentials<br />
In order to detect technological potentials, corporate analysis has to be focused on both technologies and markets (compare chapter<br />
5.3.1). In doing so, previously established as well as newly established, potential technologies and markets have to be taken into<br />
account. In addition, the current and prospective general framework affected by the political, economic, ecological and legal environment<br />
is an integrated part of the analysis.<br />
Proceeding for detection of technological potentials is composed of three phases: TECHNOLOGY ANALYSIS, APPLICATION ANALYSIS<br />
and POTENTIAL DETERMINATION (see fig. 7), which is explained briefly as follows.<br />
57