Technological Innovation As A Process Tornatzky
Technological Innovation As A Process Tornatzky
Technological Innovation As A Process Tornatzky
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H
aving bounded our i n q u i r y to that of understanding the evolution of
knowledge-based technologies, w e w i l l n o w open up the l i d of that
black b o x . I n this chapter, w e w i l l describe t w o of the most i m p o r -
tant analytic problems that m a k e technological i n n o v a t i o n so fascinating as
well as so difficult to u n d e r s t a n d . T h e y are:
Table 3 - 1
Length of the Innovation Process
I
Technology Initial Proof-of-Concept General Use
4. testing or evaluating
5. manufacturing or p a c k a g i n g
6. marketing or dissemination
1. awareness-problems
2. matching-selection
3. adoption-commitment
4. implementation
5. routinization
Nonlinearity
T
W h i l e stage models have a certain c o m f o r t i n g appeal i n that they provide an
intellectual organizing theme for m a n y events and large blocks of time, there
are distinct limitations to this a p p r o a c h . O n e is that neither life nor i n n o v a -
pri
tion are at all simple or linear. W h i l e there are some logical priorities i n the
At
sequence of stages a n d phases (one cannot disseminate something one has
OV(
never heard of; implementation generally must f o l l o w some decision to adopt
on
or p u r c h a s e ) , there are numerous v a r i a t i o n s o n the presumed sequence. T h i s
cor
is p a r t i c u l a r l y so on the creation/production side. F o r e x a m p l e , as noted
anc
elsewhere ( K l i n e 1 9 8 5 ; K l i n e a n d Rosenberg 1 9 8 6 ) , product development
pol
m a y often stimulate applied or basic research, rather t h a n derive f r o m it.
bu!
T h e r e are typically so m a n y feedback and f e e d f o r w a r d cycles of i n f o r m a t i o n
tak
exchange that are part of the i n n o v a t i o n process, a n d so m a n y shocks and u n -
cor
predictable setbacks and surprises (Schroeder et a l . 1 9 8 6 ) to almost defy the
inr
notion of stages and phases. It is better to t h i n k of it as a highly iterative
pai
process.
ho^
vai F l o w e v e r , the process is h a r d l y r a n d o m . Perhaps a better w a y of t h i n k i n g
trai about these issues is not to t h i n k of the sets of behaviors defined i n most
/ stage/phase models as steps o n a s t a i r w a y , but rather as rooms connected by
• ^ a finite number of doors. F o r e x a m p l e , i n the creation/production of
TE(
T.
prim
A t \i
over
on t Figure 3 - 1 . Processes of Technological Innovation
con(
and
poli innovations do not f o l l o w any single, set ordering of events or stages. Never-
bus: theless, most innovations do appear to proceed through a relatively c o m m o n
take set of m a r k e r events, w h i c h in t u r n are embedded i n foci of activity (rooms
con of core b e h a v i o r s ) , that pretty m u c h correspond to t r a d i t i o n a l stages and
inni phases. T h e real p r o b l e m w i t h stage models is that they delude people into
par t h i n k i n g that one stage i n e x o r a b l y leads to the next (for e x a m p l e , that basic
ho\ research leads to development). Such is not necessarily the case.
var
I n figure 3 - 1 w e have attempted to capture m a n y of the concepts dis-
trai
cussed i n this chapter. T h e s e include the notion of i n n o v a t i o n as a
longitudinal set of processes, as w e l l as the distinction between developers of
technology a n d users o f technology. O n e r e m a i n i n g set o f issues concerns the
different levels of social aggregation that are i n v o l v e d i n those processes. T h i s
w i l l be the topic of the next several sections.
W h o o r W h a t I n n o v a t e s : T h e U n i t of A n a l y s i s P r o b l e m s
It should be apparent that there are multiple social units that participate in
any process of technological i n n o v a d o n . A s the process u n f o l d s , decisions are
Technological Innovation as a Process • 33
individuals as i n d i v i d u a l s
individuals enacting social roles
social groups
organizations
interorganizational l i n k s
aggregates of organizations (for e x a m p l e , industries)
societies
Groups
Organizations
Aggregation problems exist not only across structure or space but also
across time ( K i m b e r l y 1 9 7 6 a ) . P o o l i n g data describing events that occur at
different dmes is a c o m m o n technique; it is seldom done w i t h explicit atten-
tion to the inferential consequences of this a s s u m p t i o n . A t its e x t r e m e , this
pooling results in r e m o v i n g time f r o m analyses entirely a n d c a n lead to a n a -
chronisms such as " c o r r e l a t i n g yesterday's innovativeness w i t h today's inde-
pendent variables" (Rogers a n d E v e l a n d 1 9 7 8 ) in a reversal of the plausible
causal ordering. S i m i l a r l y , the aggregation of observations f r o m different time
points is frequently done s i m p l y i n order to increase sample sizes.
The third p r o b l e m , methodological choice, is p a r t i c u l a r l y difficult to
resolve. Although the a i m of all varieties of research is to describe the same
set of organizational actions, there are serious epistemological questions
regarding the techniques best adapted to identifying the critical features of
that behavior. H o w to balance off a finding derived f r o m experimental
methods (Boruch, M c S w e e n e y , and Soderstrom 1 9 7 7 ) against one derived
from a case study analysis ( Y i n 1 9 8 1 ; Greene and D a v i d 1 9 8 1 ) , or a highly
quantitative finding against a more qualitative one ( M i l e s 1 9 7 9 ; V a n M a a n e n
1982), is not intuitively apparent except to ideological partisans of a p a r t i c u -
lar point of view.
Much attention has been given to the question of w h a t is the " r e a l " level
of analysis for particular issues, given the difficulty of multilevel inference.
However, restricting analyses to one level does not seem to be either helpful
or necessary. Phenomena do not belong neatly to one level alone of a hierar-
chical system, and analyses that attempt to restrict their inferences to one level
will miss many of the most interesting interactions that affect their d a t a .
Thus, instead of spending time attempting to find the proper type or level of
analysis, we encourage using all types of research strategies and data sources,
with due attention to the limitations of each. T h e r e is a tradition of, a n d argu-
ment for, using data f r o m different research methodologies i n a triangulation
approach (Denzin 1 9 7 0 ; K i r k a n d M i l l e r 1 9 8 6 ) . G i v e n the c o m p l e x i t y and
mcssiness of innovation p h e n o m e n a , it is p r o b a b l y a w i s e strategy, and one
that students of the field are increasingly r e c o m m e n d i n g ( U t t e r b a c k 1 9 8 6 ) .
Summary
Notes
T 1. A s we will argue in later chapters, there is some doubt that this stage is often
pri: reached, particularly in so-called "high technology" areas.
At 2. T h e r e is an intentional relationship here to Y i n ' s (1979) concept of "passages"
in innovation.
on 3. T h i s is not totally accurate. A s Fry (1982) has s h o w n , relationships {in his
cor case, between structure and technology) may appear attenuated if one uses an inappro-
priate level of analysis.
an(
4. Generally excluded from this review is a detailed discussion of questions rela-
po:
ting to organizational resources, because of considerable ambiguity in how such vari-
bui
ables should be interpreted ( M o h r 1 9 6 9 ; Bourgeois 1 9 8 1 ; R o w e and Boise 1981). See
tak
the section relating to organizational size issues.
CO]
5. T h e definition of context is obviously dependent to some degree on material
inr circumstances, but not a direct function of them. F o r example, one person faced with
pa the prospect of heavy snow may define the situation as " f u n , " while for another it con-
ho stitutes "shear torture."
va:
tra