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Technological innovation: options for developing countries
IN THE year 2000, Intel earned a whopping $10 billion profit
after taxes. Cisco's sales exceeded $14 billion, barely a decade
after the company went public. Wal-Mart transformed itself from a
regional retailer of the Seventies to a $200 billion behemoth.
Banc One emerged from its small-town beginnings to join America's
top ten banks.
These are successful firms, belonging to different industry
groups, but bound by a common thread: they all employed
technological innovations to achieve superior performance. Intel
and Cisco invented the microprocessor and router technologies,
respectively, and successfully commercialised them. Wal-Mart and
Banc One created unique linkages in their operations by using
information technology and gained cost and differentiation
advantage over rivals.
In a dynamic, global business environment, technological
innovation is imperative for competitive success. A firm must
frequently pioneer new products, enhance current products, or
create a unique operational system. However, not all firms emerge
victorious in the innovation game. The road to the innovation
altar is littered with more dead bodies than living exemplars.
Many fail because they make half-hearted attempts or cannot
recognise the profit potential of an invention. If they do, they
cannot profitably exploit it. Others fail because they cannot
stop competition from imitating their invention.
Business history is replete with stories of innovation failures
and missed opportunities. NCR, a recognised leader in
electromechanical cash registers, could not develop an electronic
cash register. Xerox invented the personal computer and the laser
printer but did not see a viable market for them. RCA, the
broadcasting giant, chose not to invest in FM technology. EMI
invented and commercialised the CAT scan but could not sustain
its leadership position in that technology.
What is technological innovation and what should a firm do to be
a successful innovator? Should technological innovations focus on
developing new products only or are there other types? Should an
innovator be also the inventor of the underlying technology to
realise significant profits? How can developing country firms,
with limited financial resources and a long tradition as low-cost
production sites for the developed world, fully participate in
the expensive technological innovation race?
Technological innovation?
Management scholars define technology as `technical knowhow'.
When IBM says that it has the computer mainframe technology, it
means that it has the knowhow necessary to design and make
computer mainframes.
Similarly, Citibank would say that it had the technology or the
knowhow to offer personal and electronic banking. Technology is
thus technical knowledge necessary for making products or serving
customers and it can be competitively managed. Innovation is the
commercialisation of a technical idea or invention. Invention
results in scientific/technical research. When developed and
marketed as a product, an invention becomes an innovation.
Innovation can occur in a product's components or how they are
linked. Framed in this way, innovations are radical when they
fundamentally change the product's components and linkages (for
example, transistors altered the components and linkages in a
radio) and incremental when current components and linkages are
refined (for example, LP records refined 78 RPM but did not alter
the gramophone technology). Innovations that change the
components only (for example, fuel injection system replaced the
carburettor) are called modular whereas changes in linkages only
(example, a PC as compared to a mainframe) are called
architectural.
However, innovations do not occur in component design and
architecture only. They are also possible in materials
procurement and logistics, manufacturing, packaging, marketing
and distribution, and in how customers are served after sales.
Product innovations
Inventions are the prerequisite for innovations. Inventions
require determining the area of research focus, followed by
investments in human and physical assets for conducting research.
An additional and more important requirement is a work culture
that management fosters to induce creativity. Many firms employ
fantasy and imagination-building techniques for this purpose. For
example, at DuPont, researchers are encouraged to frequently
narrate their dreams to colleagues. Kodak's technical personnel
are trained to communicate metaphorically. Hoechst Celanese
employees play imagination-enhancing games with the help of
creativity trainers.
General Electric and Xerox use `story-boarding' - employees use
white boards in common areas to sketch designs that are
incrementally shaped and redesigned by others. Boeing engineers
use `mind mapping' - an individual draws a diagram in the centre
of a paper and others draw related ideas as branches growing out
of a tree. Psychologists and management scholars suggest that
such techniques that build fantasies are fundamental for
generating revolutionary ideas.
Inventions are developed into products through successive stages
of refinement and verification involving prototyping, designing
and testing. It is important for an inventor to be quick to the
market with its invention before competition does. Inventions are
rapidly and successfully developed into new products when the
firm uses flexible organisational arrangements that foster
frequent interaction and information-sharing among the
development stages such as engineering, manufacturing and
marketing. A parallel processing of activities (compare a rugby
game) among work-stages, as opposed to sequential processing
(compare a relay race), is what is necessary for this purpose.
Scholars suggest that parallel organisations cut waste arising
out of rework, increase speed in processing, and enhance outcome
effectiveness.
The profit potential is significantly higher for an innovator who
also owns the patent to the invention. However, inventions are
expensive and uncertain in regard to their technical feasibility.
Developing country firms generally lack the resources needed to
generate inventions and, as a result, prefer to license
technologies from the West. But, in a rapidly changing global
economy, the path to premium profits lies in creating proprietary
technologies and competing in world markets under one's own brand
name rather than under a licensing arrangement. Following are
some economical alternatives to developing country firms that
will allow them to fully participate in the innovation game.
Architectural innovation
(1) Focus on architectural innovation: It is less expensive
compared to other forms. IBM never pioneered any PC components.
Instead, it focussed more on the PC architecture to create a
competitive difference. It used Microsoft's operating system,
Intel's microprocessor, and Tandem's disk drives to create a
unique PC architecture as opposed to Apple that designed most
components in-house. Because its components were proprietary,
Apple also had to design its own PC architecture, thus increasing
the cost of its end-product. Likewise, Sony designed its first
tape recorder by changing RCA's architecture (achieved through
reverse engineering) and making it more sleek, rather than
licensing the technology from RCA. This set the trend towards
miniaturisation in subsequent tape recorders and other consumer
electronic goods, largely through changes in design architecture.
While comparatively easy and less expensive, architectural
innovation generates equally significant profits like other types
of innovations do.
Imitation is cheaper
(2) Imitate successful product innovators: During the early
stages of their development, the Japanese never invested in basic
R&D. Instead, they became adept in imitating West European and
U.S. products. Seiko imitated Rolex's styling, Canon copied
Xerox's features, and Komatsu copied Caterpillar's design. In the
U.S., Crown Cork and Seal, a highly profitable can manufacturer,
never pioneered new products but often followed the technological
footsteps of American Can to become successful. The South Korean
and Chinese firms presently imitate American products and
technologies to achieve high visibility in international markets.
Undoubtedly, imitation is a cheaper and effective alternative to
pioneering. When done diligently, imitation can generate
significant profits and, at the same time, control for R&D-
related costs and risks.
(3) Cooperatively develop technologies: Cooperation with
customers, suppliers, and competitors can reduce R&D costs and
simultaneously enhance the quality of innovation due to the
pooling of competencies. Singer Sewing Machine Company invented
the electronic cash register jointly with Friden, its supplier.
Friden's knowledge in electronics calculator technology helped
Singer to develop a successful new product economically. In the
Seventies, IBM, Motorola. Texas Instruments, National
Semiconductor, and Advanced Micro Devices formed an R&D
consortium called Sematech to develop new semiconductor
technologies that would enable consortium members better compete
against the Japanese. The pooling of competencies enabled these
companies to develop unique semiconductor technologies at a low
cost. Toshiba emerged as a $45 billion maker of electrical and
electronic products, largely through innovations developed
cooperatively with others with complementary capabilities.
Innovations are not restricted to breakthrough product
technologies, they can also occur in other value-adding
activities of a firm. Several manufacturers and service
organisations have employed IT in innovative ways, in materials
procurement (example, just-in-time), customer responsiveness, and
total quality management (TQM). The focus is on process
innovation that will minimise cost, maximise operational quality,
or enhance customer service. For example, American Airlines
developed a proprietary computer reservation system called SABRE
that linked travel agents to its database and altered how travel
agencies conduct business. American further sells listings on
this system to other airlines, generating revenues that by some
estimates are significantly higher than from flying the
airplanes.
Federal Express developed a sophisticated package tracking system
that, besides providing the company with a cost-quality advantage
over rivals, established an operational standard for the
overnight mail industry. Baxter International, a distributor of
hospital supplies, developed a proprietary network technology
called `analytic systems automated purchasing' that
revolutionised inventory management in hospitals. In the service
sector, banks, hospitals, stock brokerage houses, and
supermarkets have used IT to offer unique services to customers,
altering the way products are marketed and sold in their
industries.
The competitive importance of technological innovation has
increased due to globalisation of trade. Until now, developing
country firms have survived by licensing previous generation
technologies and providing low-cost manufacturing havens to the
technological pioneers of the West. But such standard and non-
entrepreneurial techniques can only take firms in these regions
so far. With global competition intensifying in geometric
proportions, survival and profitability of these firms will
hereafter depend on their demonstrated ability to develop
proprietary products and market them internationally under their
own brand names. The sooner companies in these regions embark on
a `technological invention and implementation' strategy, the
better it will be for their competitive survival and growth. With
several economic alternatives available to do so, failure to make
a serious endeavour is inexcusable.
Raghavan Parthasarthy & Tracy Hammond
The former is a professor of competitive strategy at the City
University of New York and the latter an adjunct professor of
computer science at Columbia University and a doctoral student in
computer science at MIT.
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